chore: extract ruv-neural to ruvnet/ruv-neural, wire as submodule (#1019)

The 12-crate brain-topology analysis ecosystem (v2/crates/ruv-neural) was a
self-contained nested workspace with no inbound deps from the v2 workspace
(verified: zero path references outside its own tree). Published standalone
at github.com/ruvnet/ruv-neural and re-attached here as a submodule at the
same path, so the build layout is unchanged while the project gets its own
repo/CI/release cadence.

.github/workflows/ci.yml

@@ -121,12 +121,23 @@ jobs:
       with:
         workspaces: v2
 
+    # The 38-crate workspace debug build exhausts the runner's disk when built
+    # with full debuginfo (observed: "final link failed: No space left on
+    # device" once the engine/benchmark crates landed; the same tree's local
+    # debug target measured 151 GB). Debuginfo is useless in CI — tests either
+    # pass or print their failure — so build without it; target shrinks ~5-10x.
     - name: Run Rust tests
       working-directory: v2
+      env:
+        CARGO_PROFILE_DEV_DEBUG: "0"
+        CARGO_PROFILE_TEST_DEBUG: "0"
       run: cargo test --workspace --no-default-features
 
     - name: Run ADR-147 worldmodel tests
       working-directory: v2
+      env:
+        CARGO_PROFILE_DEV_DEBUG: "0"
+        CARGO_PROFILE_TEST_DEBUG: "0"
       run: cargo test -p wifi-densepose-worldmodel --no-default-features
 
     # ADR-134 CIR tests are behind the `cir` feature so the bench dependency

.gitmodules

@@ -14,3 +14,7 @@
 	path = vendor/rvcsi
 	url = https://github.com/ruvnet/rvcsi
 	branch = main
+[submodule "v2/crates/ruv-neural"]
+	path = v2/crates/ruv-neural
+	url = https://github.com/ruvnet/ruv-neural.git
+	branch = main

CHANGELOG.md

@@ -7,7 +7,34 @@ and this project adheres to [Semantic Versioning](https://semver.org/spec/v2.0.0
 
 ## [Unreleased]
 
+### Changed
+- **Mesh partition risk now demotes the privacy class and is witnessed (ADR-032).** The dynamic min-cut guard's `at_risk` signal was advisory-only (it fed the recalibration advisor). It now also contributes to the ADR-141 privacy demotion alongside fusion- and array-level contradictions: a mesh close to partitioning makes the fused belief less trustworthy, so the cycle emits at a more restricted class (monotonic — information only removed). Because `effective_class` feeds the BLAKE3 witness, a fragmenting array now shifts the witness — partition risk is auditable, not just logged. The mesh computation moved ahead of the demotion step in `process_cycle`; new `mesh_guard_mut()` exposes risk-threshold tuning. Test proves a forced-risk 3-node cycle demotes PrivateHome Anonymous→Restricted and shifts the witness vs a clean *same-topology* baseline (the only delta between the two cycles is the forced risk).
+
+### Added
+- **ADR-152 WiFi-Pose SOTA 2026 intake — verified external benchmark + four Rust integrations.** A 22-source adversarially-verified survey of the 2025–2026 WiFi-sensing SOTA, with every adopted number reproduced or graded before integration:
+  - **WiFlow-STD (DY2434) reproduction (`benchmarks/wiflow-std/`)** — the external "97.25% PCK@20, 2.23M params" claim audited end-to-end: the **shipped checkpoint is REFUTED** (0.08% PCK@20 — wrong keypoint normalization, predates the published code), the released code does not run as published (6 documented defects, incl. an import that fails and an unreachable test phase), and the released dataset's final 13 files are corrupted (9,072 windows of NaN + float32-max garbage that NaN-poisons fp16 BatchNorm training). After repairing both, retraining with upstream defaults on an RTX 5080 reproduced **96.09% PCK@20 (full test) / 96.61% (corruption-free)** — claims graded MEASURED-EQUIVALENT; params (2,225,042) and FLOPs (~0.055 G) verified exactly. Full forensics in `benchmarks/wiflow-std/RESULTS.md`.
+  - **`GeometryEmbedding` (ADR-152 §2.1.2, `wifi-densepose-calibration`)** — 32-slot permutation-invariant, NaN-proof featurization of the §2.1.1 `NodeGeometry` records (centroid/spread, measured-first pairwise distances, circular azimuth stats, covariance-eigenvalue geometric diversity, per-node flags), schema-versioned for the ADR-151 P6 LoRA heads; derived `SpecialistBank::geometry_embedding()` accessor. The PerceptAlign "coordinate overfitting" defense, transplanted to per-room banks.
+  - **MAE pretraining recipe (ADR-152 §2.3, `wifi-densepose-train/src/mae.rs`)** — `MaePretrainConfig` pinning the UNSW-measured recipe (80% masking, (30,3) patches) with pure-Rust patchify/random-mask (exact counts, seed-deterministic, error-not-truncate divisibility, NaN rejection), property-tested; the consumption seam for the future ADR-150 ViT-Small encoder.
+  - **`WiFlowStdModel` Rust port (`wifi-densepose-train/src/wiflow_std/`)** — tch-gated idiomatic port of the verified spatio-temporal-decoupled architecture (grouped causal TCN → asymmetric conv stack → dual axial attention); ungated param formula asserted equal to the reference 2,225,042; 15/17-keypoint variants share weights (enables the ADR-152 §2.2(b) ESP32 fine-tune).
+  - **RuVector vendor sync + §2.6 opportunity survey** — vendor at `a083bd77f`; graded ADOPT/EVALUATE/WATCH table; crates.io bumps applied (mincut/solver 2.0.6, attention 2.1.0, gnn 2.2.0; RUSTSEC #504 audit: no pinned crate affected); top WATCH: unpublished `ruvector-graph-condense` differentiable min-cut for trainable subcarrier grouping.
+- **ADR-153 IEEE 802.11bf-2025 forward-compatibility protocol model (`wifi-densepose-hardware/src/ieee80211bf/`)** — typed WLAN-sensing procedures (measurement setup/instance/report, SBP, termination) with `SpecProfile` version gates, `SensingCapabilities` negotiation, and **required** `ConsentMode` governance metadata on every setup; deterministic session FSM with rejection/timeout paths; `SensingTransport` seam with `SimTransport` and an `OpportunisticCsiBridge` mapping live ESP32 CSI batches into standardized report shape (a future chipset adapter replaces the bridge without touching RuvSense consumers). Not a certified implementation — simulation-tested protocol surface; OTA binding lands when silicon does. 19 acceptance tests.
+- **Dynamic min-cut mesh partition guard in the streaming engine (`mesh_guard`).** Maintains a `ruvector-mincut` exact min-cut over the live mesh coupling graph (nodes = sensing nodes, coupling = product of fusion attention weights), surfacing per cycle: the global **cut value** (how close the array is to splitting — a structural measure per-node heuristics miss), the **weak side** (which specific nodes would partition: failure/jamming triage feeding ADR-032 posture), and an **at-risk flag** that counts as a structural event for the drift→recalibration advisor. Surfaced as `TrustedOutput::mesh`. **Measured cost policy** (criterion, 12-node mesh): weights are quantized (1/64; a *nonzero* coupling below one quantum saturates to quantum 1 so quantization never erases a live coupling — without the floor, balanced meshes of ≥ 65 nodes had every ~1/n coupling erased and sat permanently "at risk") and updates change-gated, so the steady-state cycle does zero graph work (~7.3 µs, ~23× cheaper than building); on any real change a full exact rebuild (~171 µs) is used because one `DynamicMinCut` delete+insert measured ~240 µs — the incremental machinery's overhead targets much larger graphs, so rebuild-on-change is the measured optimum at mesh scale (one-edge case −28% after the policy switch). Degenerate cases fail toward risk: a node with zero coupling is reported as already partitioned (cut 0). 9 mesh-guard tests + an engine-level wiring test; full `process_cycle` with the guard: ~33 µs for 4 nodes (50 ms budget).
+- **Opt-in FFT operator for the CIR ISTA solver (8–14× measured).** Φ is a sub-DFT, so each ISTA mat-vec can run as one length-G FFT (O(G log G)) instead of a dense O(K·G) product. New `CirConfig::fft_operator` (default **false** — the dense path stays the bit-exact witness default; the FFT evaluates the same sums in a different order, so enabling it shifts float results and requires regenerating any pinned witness). `FftOperator` (rustfft, planned once at construction, scratch reused across the ISTA loop) dispatches inside `ista_solve`; warm-start/Lipschitz stay dense at construction. Measured (criterion, same run): ht20 2.22 ms → 265 µs (**8.4×**), ht40 10.26 ms → 717 µs (**14.3×**); the real HE40 grid (K=484, G=1452) scales further. 3 new tests: FFT↔dense matvec equivalence to float tolerance (ht20 + he40 grids), end-to-end dominant-tap agreement on a single-path frame, and all default configs keep FFT off. New `cir_estimate_fft` bench group.
+- **Per-room adapter provenance + drift→recalibration advisor in the streaming engine.** Closes the trust-chain gap where an ~11 KB per-room LoRA adapter (ADR-150 §3.4) could silently change inference without the witness noticing. `StreamingEngine::set_room_adapter(AdapterInfo)` pins the adapter's content-derived id into provenance `model_version` (`rfenc-v1+adapter:<id>`) — and therefore into the BLAKE3 witness — so swapping or clearing adapter weights always shifts the witness (engine test proves base → adapter → other-adapter → cleared all witness differently, and cleared == base). New `RecalibrationAdvisor` recommends re-running the ADR-135 baseline / refitting the adapter on sustained low fusion coherence (streak threshold, default 60 cycles ≈ 3 s at 20 Hz) or an ADR-142 change-point; surfaced as `TrustedOutput::recalibration_recommended` and recorded on the sensing-server's `EngineBridge` alongside the witness. Bridge plumbing: `EngineBridge::{set_room_adapter, clear_room_adapter}` + live-path test that the adapter id flows into the live witness. *Scope note: this is the deployable provenance/trigger half of the "retrained model" roadmap item — fitting the adapter itself runs in the existing external calibration service (`aether-arena/calibration/`), and a trained RF-encoder checkpoint still does not exist in-tree.*
+- **RuView beyond-SOTA research series** (`docs/research/ruview-beyond-sota/`, 6 docs) — research-swarm output defining the beyond-SOTA bar and the path to it: system capability audit (role→crate maturity matrix, gap analysis, risk register), web-verified 2026 SOTA landscape per capability axis (incl. ratified IEEE 802.11bf-2025), 8-pillar target architecture on the ADR-136 contract spine (no rewrite), 6-layer benchmark/validation methodology (all 15 criterion bench targets inventoried; ADR-149 statistical protocol), and a determinism-safe optimization roadmap. Includes session validation evidence: 2,797 workspace tests / 0 failed, Python proof PASS (bit-exact), paired pre/post criterion runs.
+
+### Performance
+- **CIR estimator warm-start precompute** — the diagonal Tikhonov preconditioner `diag(Φ^H Φ)+λI` and its CSR matrix were rebuilt every frame although they depend only on Φ and λ (fixed at `CirEstimator::new`); now precomputed at construction (`ruvsense/cir.rs`). Bit-identical floats (summation order unchanged, witness chain unaffected). Measured: `cir_estimate/he40` −3.9% (p<0.01), multiband groups −1.2/−1.4%; smaller configs within container noise.
+- **RF tomography solver hoisting** — ISTA gradient buffer no longer allocated inside the 100-iteration loop, and the Frobenius Lipschitz bound moved from per-`reconstruct` to construction (`ruvsense/tomography.rs`). Bit-identical results.
+
+### Added
+- **Falsifiable occupancy benchmark (`wifi-densepose-train::occupancy_bench`).** Makes the presence/person-count "beyond SOTA" claim falsifiable in code instead of aspirational (the unfalsifiability gap from the beyond-SOTA system review). Grades predictions vs ground truth and gates a SOTA claim behind one `claim_allowed` invariant requiring all of: `DataProvenance::Measured` (synthetic/mock is scorable but **never claimable** — anti-mock-contamination per the CLAUDE.md Kconfig-bug lesson), a leak-free `EvalSplit` (refuses any split where a subject *or* environment id appears in both train and test — subject leakage / per-environment overfitting), `n_test ≥ min`, a **non-degenerate test set** (both truth classes represented: present-rate ≥ `min_positive_rate` and ≥ 1 absent sample — an all-absent set plus an always-absent predictor cannot release a claim; vacuous F1 scores 0.0, never 1.0), presence-F1 **bootstrap-CI lower bound** (deterministic seeded splitmix64) clearing the threshold, and count MAE within threshold. The claim string is unreadable except through the gate (`NO_CLAIM` otherwise). What remains is data, not method: a frozen, SHA-pinned, subject/environment-disjoint measured replay set turns the claim into a passing/failing test. 12 tests cover each refusal path, including the point-above/CI-below case (claim withheld on the CI lower bound even when the point estimate clears the threshold).
+- **Live trust path: sensing-server routes real frames through the governed `StreamingEngine` (parallel governed path with partial output gating).** Previously the live server ran only the *bare* `MultistaticFuser` (fused amplitudes, no trust control plane), while the privacy/provenance/witness engine (ADR-135..146) ran only on synthetic in-test frames — the gap called out in ADR-136 §8 and the beyond-SOTA system review. New `engine_bridge` module drives `StreamingEngine::process_cycle` from the server's live `NodeState` map (reusing the existing `NodeState → MultiBandCsiFrame` conversion), lazily wiring each node as a WorldGraph sensor and bounding belief growth via the retention cap; every *governed belief* carries evidence + model + calibration + privacy decision and a deterministic witness. **Honest scope:** the engine runs alongside (not instead of) the bare fusion path that feeds the live `SensingUpdate`. What its decision gates on the wire today: a cycle emitted at class `Restricted` (base mode or contradiction/mesh-risk demotion) suppresses the per-node raw amplitude vectors from the live publish — the same field mapping `wifi-densepose-bfld`'s privacy gate applies at `Restricted`; gating the remaining derived outputs (person count, classification, signal field) is tracked as a follow-up. Trust state is no longer write-only: the latest witness, effective privacy class, demotion flag, recalibration recommendation, and an engine-error counter are readable on `GET /api/v1/status`, and engine errors are counted + rate-limit logged instead of silently swallowed (`EngineBridge::observe_cycle`). Adds `wifi-densepose-engine/-worldgraph/-bfld/-geo` deps. Bridge tests cover witnessed belief with provenance, determinism, idempotent node registration, retention bound, privacy-mode propagation, trust-state recording, the error-counter path, and Restricted-class raw-output suppression.
+
 ### Fixed
+- **`wifi-densepose-mat` standalone `--no-default-features` build (101 errors → 0).** `pub mod api` was unconditional while its only dependency, serde, is optional behind the `api` feature — so any build without default features failed with unresolved serde imports (masked in `--workspace` runs by feature unification). The `api` module and its `create_router`/`AppState` re-export are now `#[cfg(feature = "api")]`-gated (with docsrs annotations). All feature combos compile: bare `--no-default-features`, `--no-default-features --features api`, and full default (177 tests pass).
+- **WorldGraph no longer grows unboundedly under the live loop.** `StreamingEngine::process_cycle` appended one `SemanticState` belief per cycle with no eviction — ~1.7M nodes/day at 20 Hz (identified in `docs/research/ruview-beyond-sota/04-optimization-roadmap.md`). Added `WorldGraph::prune_semantic_states(max)` — deterministic eviction of the oldest beliefs by `(valid_from_unix_ms, id)`, structural nodes (rooms/zones/sensors/anchors/tracks/events) never eligible — and wired it into the engine after each belief append (`StreamingEngine::DEFAULT_SEMANTIC_RETENTION` = 7,200 ≈ 6 min at 20 Hz; tunable via `set_semantic_retention`). The WorldGraph holds *current* beliefs; durable history is the recorder's job, so no audit data is lost. 3 new tests (bounded growth end-to-end, oldest-only eviction, deterministic tie-break).
+- **ESP32 edge heart rate no longer stuck at ~45 BPM / dropping wildly — #987.** The on-device HR estimator (`edge_processing.c`, `0xC5110002`) reported ~45 BPM regardless of true heart rate (Apple-Watch ground truth 87 BPM read as ~45) and swung frame-to-frame. Two root causes: (1) a hardcoded `sample_rate = 10.0f` that became wrong after #985's self-ping raised the CSI callback rate to a variable ~13–19 Hz — BPM scales as `assumed/actual × true`, so 87 read ~45 and the reading swung as CSI yield fluctuated; (2) the zero-crossing estimator locked onto a breathing harmonic (a 0.25 Hz breathing fundamental puts its 3rd harmonic at ~0.74 Hz ≈ 44 BPM inside the HR band). Fix: measure the real sample rate from inter-frame timestamps (used for BPM conversion + biquad re-tuning on >15% drift); replace the HR zero-crossing with an autocorrelation estimator that rejects breathing harmonics (driven by a robust autocorr breathing period); median-13 smooth the output. Hardware A/B (fixed vs unmodified control board, both `edge_tier=2`): control pegged 40–49 BPM; fixed reaches the true 88–91 BPM (vs 87 GT) and holds a stable physiological value (spread 59→0 for a steady subject). Known limitation: heavy subject motion still degrades the estimate (motion gating is a follow-up).
 - **Person count no longer leaks up to 10 in heuristic mode — addresses #894.** `field_bridge::occupancy_or_fallback` returned the eigenvalue-based `FieldModel::estimate_occupancy` count **unbounded** (its internal ceiling is 10), while the sibling estimators on the same single-link data — the perturbation-energy fallback right below it and `score_to_person_count` — both cap at 3 ("1-3 for single ESP32"). On noisy / under-calibrated CSI the eigenvalue count inflated, producing the "10 persons reported when 1 present" symptom (seen when `--model` fails to load and the server runs on heuristics). Bounded the eigenvalue path to the shared `MAX_SINGLE_LINK_OCCUPANCY` (3) so every estimator on one link agrees; genuine higher counts come from the multistatic fusion path, not a single-link covariance estimate.
 - **MQTT multi-node deployments now create one Home-Assistant device per node — closes #898.** After the #872 MQTT wiring landed, the JSON→`VitalsSnapshot` bridge hard-coded a single `node_id` (the MQTT client id) and the publisher used a single `OwnedDiscoveryBuilder`, so every physical node collapsed into one device (`identifiers:["wifi_densepose_wifi-densepose-1"]`), contradicting the "one device per node" docs. The bridge now emits one snapshot per node in the sensing update's `nodes[]` (each with its own `node_id` + RSSI, falling back to a single aggregate snapshot for wifi/simulate sources), and the publisher derives a per-node builder (`OwnedDiscoveryBuilder::for_node`) that publishes discovery + availability lazily on first sight of each `node_id` and routes state to per-node topics — yielding N distinct HA devices with per-node availability/LWT. Unit-tested (distinct nodes → distinct `wifi_densepose_<node>` identifiers); 71 MQTT tests pass.
 - **Person count no longer pinned to 1 — addresses #803.** The aggregate occupancy reported by the sensing server was derived from `smoothed_person_score`, an EMA-smoothed *activity* score (amplitude variance / motion / spectral energy). That score saturates near a single occupant — one moving person maxes it out — so it cannot discriminate occupancy *count* and stayed clamped at 1 across S3/C6 and the Python/Docker/Rust servers. Meanwhile the count-aware per-node estimates the ESP32 paths already compute (firmware `n_persons`, and the DynamicMinCut `corr_persons`) were stashed in `NodeState::prev_person_count` and then **discarded** by the aggregator (same dead-wiring class as #872). The aggregator now takes `max(activity_count, node_max)` via a unit-tested `aggregate_person_count` helper, so a node positively estimating 2–3 occupants is surfaced instead of overwritten. The fix can only ever *raise* the count when a node reports more people, so the single-occupant case is provably never inflated (regression-guarded by test). **Second half:** the pure-CSI per-node path itself clamped its own estimate — the DynamicMinCut occupancy (`estimate_persons_from_correlation`, 0–3) was mapped to a score via `corr_persons / 3.0`, putting 2 people at 0.667, *just under* the 0.70 up-threshold of `score_to_person_count`, so the per-node count never climbed past 1 (so `node_max` was also stuck at 1 for CSI-only nodes). Replaced it with a threshold-aligned `corr_persons_to_score` mapping (1→0.40, 2→0.74, 3→0.96) whose steady state round-trips back to the same count through the EMA + hysteresis, while still gating transient noise. A convergence test replays the exact EMA loop to prove min-cut=2 now reports 2 (and documents that the old `/3.0` mapping reported 1). Full multi-person accuracy still depends on the underlying estimator quality; this removes the two server-side clamps that masked it. 586 sensing-server tests pass.
@@ -18,6 +45,10 @@ and this project adheres to [Semantic Versioning](https://semver.org/spec/v2.0.0
 - **`--export-rvf` no longer silently produces a placeholder model — PR #920.** The `--export-rvf` handler ran *before* `--train`/`--pretrain` and unconditionally wrote placeholder sine-wave weights, so the documented `--train … --export-rvf <path>` workflow short-circuited to a fake model and never trained (while printing "exported successfully"). It now emits the placeholder **container-format demo** only standalone (with a clear warning), and falls through to real training when `--train`/`--pretrain` is set; docs point to `--save-rvf` for the real model. 3 guard tests.
 
 ### Added
+- **ADR-151 per-room calibration & specialist training — full `baseline → enroll → extract → train` pipeline (new `wifi-densepose-calibration` crate).** "Teach the room before you teach the model": a local-first pipeline that turns a few minutes of clean human anchors — layered on the ADR-135 empty-room baseline — into a versioned bank of small, room-calibrated specialists for **presence, posture, breathing, heartbeat, restlessness, and anomaly**. Stages: guided enrollment with an adaptive quality gate (event-sourced `EnrollmentSession`, re-prompts bad anchors); feature extraction (autocorrelation periodicity in breathing/HR bands + variance/motion); six small specialists (learned threshold / nearest-prototype / band-limited periodicity / novelty); a `SpecialistBank` with baseline-drift **STALE** invalidation; and a `MixtureOfSpecialists` runtime with presence short-circuit + anomaly veto + confidence gating. Specialists are statistical heads today (runnable + hardware-validated); the frozen ADR-150 HF RF Foundation Encoder backbone is the documented upgrade path.
+  - **CLI:** `enroll` / `train-room` / `room-status` / `room-watch`, plus the Stage-1 `calibrate-serve` HTTP API (CORS-enabled: `POST /start`, `GET /status`, `POST /stop`, `GET /result`, `GET /baselines`, `GET /health`) and a firewall-free `scripts/csi-udp-relay.py` for local Windows ESP32 testing without admin.
+  - **Multistatic fusion (ADR-029):** `MultiNodeMixture` fuses several co-located nodes (each with its own room-calibrated bank) into one room state — presence OR'd across nodes, posture/breathing/heartbeat from the highest-confidence node, a single implausible node vetoes the room's vitals. Driven via `room-watch --node-bank N:path` (repeatable), which groups live frames by `node_id` and fuses. Same-room only; cross-room is federation (ADR-105).
+  - **Validated on live ESP32-S3 (COM8, `edge_tier=0` raw CSI):** baseline capture (120 frames → 52-subcarrier baseline); the real parser → feature-extraction → mixture runtime detecting breathing (~16–31 BPM); and the multistatic ingest grouping/fusing by node-id end-to-end. Full multi-anchor enrollment accuracy requires the operator to perform the poses; true 2-node fusion + phase-based breathing + RVF/HNSW storage are noted follow-ups. 54 tests pass (35 calibration + 19 CLI).
 - **WiFi-CSI pose: efficiency frontier + per-room calibration service** (ADR-150 §3.2–3.6). Two beyond-SOTA results on the MM-Fi benchmark, plus the deployment mechanism that resolves real-world generalization:
   - **Efficiency frontier** — a **75 K-param model beats published SOTA** (74.3% vs MultiFormer 72.25% torso-PCK@20); every config from `micro` up is Pareto-dominant (smaller *and* more accurate than prior work). Shipped a deployable **int4 edge model (~20 KB, verified 74.08%, 0.135 ms single-thread CPU)** — published at [`ruvnet/wifi-densepose-mmfi-pose/edge`](https://huggingface.co/ruvnet/wifi-densepose-mmfi-pose). See [`docs/benchmarks/wifi-pose-efficiency-frontier.md`](docs/benchmarks/wifi-pose-efficiency-frontier.md).
   - **Generalization solved by few-shot calibration** — zero-shot cross-subject (~64%) and cross-environment (~10%) are *not* closeable by algorithms (CORAL, DANN, instance-norm, contrastive foundation-pretraining all tested, all failed) or by more training subjects (saturates ~64%). But **~100–200 labeled in-room samples recover SOTA-level pose**: cross-subject 64→76%, **cross-environment 10→73% (60% from just 5 samples)** — deployable as a **~11 KB per-room LoRA adapter** on a frozen shared base. Full empirical chain in ADR-150 §3.2–3.6.

CLAUDE.md

@@ -10,12 +10,13 @@ Dual codebase: Python v1 (`v1/`) and Rust port (`v2/`).
 | `wifi-densepose-core` | Core types, traits, error types, CSI frame primitives |
 | `wifi-densepose-signal` | SOTA signal processing + RuvSense multistatic sensing (16 modules) |
 | `wifi-densepose-nn` | Neural network inference (ONNX, PyTorch, Candle backends) |
-| `wifi-densepose-train` | Training pipeline with ruvector integration + ruview_metrics |
+| `wifi-densepose-train` | Training pipeline with ruvector integration + ruview_metrics; MAE pretraining recipe (`mae.rs`, ADR-152 §2.3) + WiFlow-STD port (`wiflow_std/`, tch-gated) |
 | `wifi-densepose-mat` | Mass Casualty Assessment Tool — disaster survivor detection |
-| `wifi-densepose-hardware` | ESP32 aggregator, TDM protocol, channel hopping firmware |
+| `wifi-densepose-hardware` | ESP32 aggregator, TDM protocol, channel hopping firmware; `ieee80211bf/` 802.11bf forward-compat protocol model (ADR-153) |
 | `wifi-densepose-ruvector` | RuVector v2.0.4 integration + cross-viewpoint fusion (5 modules) |
 | `wifi-densepose-wasm` | WebAssembly bindings for browser deployment |
-| `wifi-densepose-cli` | CLI tool (`wifi-densepose` binary) |
+| `wifi-densepose-cli` | CLI tool (`wifi-densepose` binary) — `calibrate`/`calibrate-serve`/`enroll`/`train-room`/`room-watch` + MAT (MAT gated behind the `mat` feature; build `--no-default-features` for the aarch64/appliance calibration binary) |
+| `wifi-densepose-calibration` | ADR-151 per-room calibration & specialist training — `baseline → enroll → extract → train` → bank of small specialists (presence/posture/breathing/heartbeat/restlessness/anomaly) + multistatic fusion; pure Rust, edge-deployable |
 | `wifi-densepose-sensing-server` | Lightweight Axum server for WiFi sensing UI |
 | `wifi-densepose-wifiscan` | Multi-BSSID WiFi scanning (ADR-022) |
 | `wifi-densepose-vitals` | ESP32 CSI-grade vital sign extraction (ADR-021) |
@@ -72,6 +73,8 @@ All 5 ruvector crates integrated in workspace:
 - ADR-031: RuView sensing-first RF mode (Proposed)
 - ADR-032: Multistatic mesh security hardening (Proposed)
 - ADR-148: Drone swarm control system / `ruview-swarm` (In Progress)
+- ADR-152: WiFi-Pose SOTA 2026 intake — geometry conditioning, WiFlow-STD benchmark (measurement (a) complete: claims MEASURED-EQUIVALENT at ~96% PCK@20), MAE recipe (Proposed; §2.1–2.3, 2.6 implemented)
+- ADR-153: IEEE 802.11bf-2025 forward-compatibility protocol model (Accepted — amends ADR-152 §2.4)
 
 ### Supported Hardware
 

archive/v1/src/hardware/csi_extractor.py

@@ -221,11 +221,15 @@ class ESP32BinaryParser:
 
         snr = float(rssi - noise_floor)
         frequency = float(freq_mhz) * 1e6
-        bandwidth = 20e6  # default; could infer from n_subcarriers
 
-        if n_subcarriers <= 56:
+        # Bandwidth inference (issue #1005): HE-LTF uses a 4x denser tone
+        # grid than HT-LTF on the same channel width — an HE-SU frame with
+        # 256 bins (242 active HE20 tones) is a *20 MHz* capture, not 160.
+        if ppdu_byte in (1, 2, 3):  # HE-SU / HE-MU / HE-TB
+            bandwidth = 40e6 if (flags_byte & 0x01) or n_subcarriers > 256 else 20e6
+        elif n_subcarriers <= 64:  # ESP32 HT20 delivers the full 64-bin FFT
             bandwidth = 20e6
-        elif n_subcarriers <= 114:
+        elif n_subcarriers <= 128:
             bandwidth = 40e6
         elif n_subcarriers <= 242:
             bandwidth = 80e6

benchmarks/wiflow-std/.gitignore

@@ -0,0 +1,26 @@
+# Upstream clone (WiFlow-STD, DY2434) -- never commit third-party code/weights
+upstream/
+
+# Local python env
+.venv/
+
+# Downloaded data / artifacts
+data/
+downloads/
+*.pth
+*.pt
+*.npy
+*.npz
+*.zip
+*.mat
+*.safetensors
+results/parity_fixture.json
+__pycache__/
+*.onnx
+
+# Committed ground truth: corruption masks for the pristine Kaggle download.
+# remote/clean_v2.py zeroes the corrupted source windows IN PLACE, so these
+# masks CANNOT be regenerated from a cleaned copy (generate_corruption_masks.py
+# documents the criteria and reproduces them only from a fresh download).
+!results/nan_windows_mask.npy
+!results/big_windows_mask.npy

benchmarks/wiflow-std/RESULTS.md

@@ -0,0 +1,486 @@
+# WiFlow-STD (DY2434) Benchmark Results — ADR-152 §2.2
+
+Upstream: <https://github.com/DY2434/WiFlow-WiFi-Pose-Estimation-with-Spatio-Temporal-Decoupling>
+pinned at `06899d29` (2026-04-05), Apache-2.0. Dataset: Kaggle `kaka2434/wiflow-dataset`
+(12.8 GB archive → 15.5 GB extracted; 360,000 windows of 540×20 CSI + 15-keypoint 2D labels).
+
+Published claims (README "Setting 1"): PCK@20 97.25%, PCK@30 98.63%, PCK@40 99.16%,
+PCK@50 99.48%, MPJPE 0.007 m, 2.23M params, 0.07 GFLOPs.
+
+## Measurement (a): their model on their data
+
+### Artifact verification (MEASURED, 2026-06-10, this repo `eval_repro.py`)
+
+| Check | Result |
+|---|---|
+| Parameter count | **2,225,042 (2.23M) — matches claim** |
+| FLOPs (torch profiler, batch 1) | ~0.055 GFLOPs — consistent with 0.07B claim |
+| CPU latency (Windows box, torch 2.12 CPU) | 13.2 ms/window @ batch 1 (76/s); 2.48 ms/sample @ batch 64 (403/s) |
+| Checkpoint load | `weights_only=True` (no pickle code execution) |
+
+### Released checkpoint does NOT reproduce the claims — REFUTED as shipped
+
+Running the released `best_pose_model.pth` through the released code on the released
+dataset with the released split procedure (seed-42 file-level 70/15/15; 54,000 test
+samples) yields:
+
+| Metric | Published | Measured (shipped checkpoint) |
+|---|---|---|
+| PCK@20 | 97.25% | **0.08%** |
+| PCK@30 | 98.63% | 0.78% |
+| PCK@40 | 99.16% | 5.53% |
+| PCK@50 | 99.48% | 15.42% |
+| MPJPE | 0.007 | **NaN** (dataset contains NaN CSI windows) |
+
+Raw output: `results/repro_a.json`.
+
+Diagnostics (on 2,000 NaN-free windows from the first files of the dataset, i.e.
+mostly would-be *training* data — so this is not a split mismatch):
+
+- Predictions correlate with targets (Pearson r ≈ 0.76) — the checkpoint is a trained
+  model, but in a **different keypoint normalization/order** than the released data.
+- Best-case post-hoc global per-axis affine correction: PCK@20 ≈ 20%.
+- Best-case per-keypoint affine correction (15×2 fitted transforms — generous
+  cheating): PCK@20 ≈ 72%, still far below 97.25%.
+- Pred↔target keypoint correspondence matrix is degenerate (multiple predicted
+  keypoints best-match the same target joint) — keypoint convention mismatch.
+
+### Reproducibility defects in the released artifacts
+
+1. `models/__init__.py` imports `TemporalConvNet`, which `models/tcn.py` does not
+   define — **the published code does not import/run as-is**.
+2. The released root checkpoint uses pre-rename module names (`att.*`, `final_conv.*`)
+   vs the published code (`attention.*`, `decoder.*`) — same shapes/param count, but
+   confirms the checkpoint predates the published code.
+3. The second shipped checkpoint (`cross_dataset_test/WiFlow/best_pose_model.pth`) is
+   a **different architecture** (342-channel input = MM-Fi layout, 3 TCN layers,
+   3-channel/3D decoder) — not usable on their own dataset.
+4. `run.py` ignores `--data_dir` and hardcodes `../preprocessed_csi_data`.
+5. The released dataset's final 13 files (indices 487–499; 9,072 windows, 2.52%)
+   are corrupted: NaN values plus garbage amplitudes up to 3.4e38 (float32 max) in
+   data that is otherwise [0,1]-normalized. Upstream code has no NaN/inf handling;
+   training as published on this download diverges — the first corrupted batch
+   overflows fp16 autocast and permanently poisons BatchNorm running statistics
+   (GradScaler step-skipping does not protect BN). The authors' training curves
+   show normal convergence, so their local data evidently differed from the
+   Kaggle upload. Window masks: `results/nan_windows_mask.npy`,
+   `results/big_windows_mask.npy`.
+
+### Reproducing the corruption masks
+
+The two mask files (9,070 NaN/Inf windows, 9,072 with |amplitude| > 1.5;
+union 9,072, all in dataset files 487–499) are **committed ground truth**
+(gitignore-negated, ~352 KB each). They can only be regenerated from a
+**pristine** Kaggle download: `remote/clean_v2.py` repairs the dataset by
+zeroing the corrupted windows in place, after which the corruption evidence
+is gone and a rescan returns all-False. `generate_corruption_masks.py`
+re-derives them (chunked scan, criteria: any non-finite value OR
+max |finite| > 1.5 per 540×20 window) and refuses to write all-False masks,
+which indicate a cleaned copy. Verified 2026-06-11: a regeneration from the
+local pristine download is bit-identical to the committed masks.
+
+### Retraining result (MEASURED, 2026-06-10): claims APPROXIMATELY REPRODUCED
+
+Since the shipped checkpoint is unusable, measurement (a) fell back to retraining
+with upstream code + defaults (seed 42, batch 64, early-stopped at epoch 41 of 50,
+best epoch 36, ~75 s/epoch) on ruvultra (RTX 5080). Deviations, all forced and
+documented: one-line fix for defect (1); torch 2.x+cu128 instead of pinned 2.3.1
+(Blackwell sm_120 unsupported); the 9,072 corrupted windows (defect 5) zeroed
+entirely — without this the published pipeline produces NaN from epoch 1 (observed).
+Scripts mirrored in `remote/`; raw metrics in `results/eval_retrained.json`.
+
+| Metric | Published | Retrained (full test, 54,000) | Retrained (corruption-free, 52,560) |
+|---|---|---|---|
+| PCK@20 | 97.25% | **96.09%** | **96.61%** |
+| PCK@30 | 98.63% | 97.89% | 98.23% |
+| PCK@40 | 99.16% | 98.58% | 98.79% |
+| PCK@50 | 99.48% | 98.99% | 99.11% |
+| MPJPE | 0.007 | 0.0098 | 0.0094 |
+
+Within ~0.6–1.2 PCK points of every published figure (single run, corrupted train
+windows zeroed, different torch/GPU). **Verdict: the accuracy claims are credible
+and approximately reproducible — but only after repairing the released dataset and
+code.** Val best: PCK@20 96.99%, MPJPE 0.0086 (epoch 36).
+
+One more defect found during the run:
+
+6. `train.py` calls `plot_training_history`, which is not defined anywhere — the
+   built-in post-training test evaluation is unreachable as published (crashes
+   with NameError after training completes).
+
+## ADR-152 §2.2 citation rule
+
+Evidence grade for the WiFlow-STD accuracy claims after measurement (a):
+**MEASURED-EQUIVALENT (96.1–96.6% PCK@20 reproduced by retraining; shipped
+checkpoint REFUTED; dataset/code require repairs)**. RuView docs may cite
+"~96% PCK@20 (our reproduction)" — still **not comparable** to our 17-keypoint
+ESP32 numbers (different hardware, 5 subjects, in-domain random split,
+15 keypoints).
+
+## Edge optimization (measured)
+
+ADR-152 "optimize beyond SOTA" track, 2026-06-10, this Windows box (Windows 11,
+16 torch threads, torch 2.12.0+cpu, onnxruntime 1.26.0). Subject: the retrained
+checkpoint `results/retrained_best_pose_model.pth` (2,225,042 fp32 params).
+Scripts: `quantize_bench.py`, `onnx_bench.py`, `eval_ort_accuracy.py`.
+Raw numbers: `results/edge_optimization.json`.
+
+Accuracy is on a **10,000-window seed-42 random subset** of the corruption-free
+test split (same seed-42 file-level 70/15/15 split as `eval_repro.py`; 54,000
+test windows, 1,440 corrupted excluded via `results/nan_windows_mask.npy` |
+`results/big_windows_mask.npy`, leaving 52,560; subset drawn with
+`np.random.default_rng(42)`). The fp32 subset PCK@20 (96.68%) matches the full
+clean-test figure (96.61%), so the subset is representative.
+
+Latency is CPU ms/window, median of repeated runs, 3 interleaved repetitions
+per variant (medians below; run-to-run spread on this box is large, roughly
+±20-40% at batch 1 — reps are in the JSON).
+
+| Variant | Disk size | Batch 1 (ms/win) | Batch 64 (ms/win) | PCK@20 | PCK@50 | MPJPE |
+|---|---|---|---|---|---|---|
+| torch fp32 (baseline) | 9.07 MB | 11.0 | 2.27 | 96.68% | 99.15% | 0.00936 |
+| torch fp16 (`.half()`) | **4.58 MB** | 24.3 | 2.42 | 96.68% | 99.15% | 0.00946 |
+| torch int8 dynamic | 9.07 MB (unchanged) | 15.6 | 2.06 | 96.68% (identical) | 99.15% | 0.00936 |
+| ONNX fp32 (onnxruntime) | 8.97 MB | **3.2** | **2.0** | 96.68% | 99.15% | 0.00936 |
+| ONNX int8 (ORT dynamic, supplementary) | **2.44 MB** | 6.5 | 5.8 | 96.52% | 99.15% | 0.01108 |
+
+Findings:
+
+- **torch dynamic INT8 quantizes nothing on this model.** The architecture has
+  **zero `nn.Linear` layers** — it is entirely Conv1d (21) + Conv2d (22) +
+  BatchNorm. `torch.ao.quantization.quantize_dynamic` (requested over
+  `{Linear, Conv1d, Conv2d}`) converted **0 modules / 0.0% of params**: dynamic
+  quantization only has kernels for Linear/RNN-family modules and silently
+  skips convolutions. The "int8" model is bit-identical to fp32 (same outputs,
+  same 9.07 MB). Conv quantization would require static (PTQ) quantization
+  with calibration — out of scope here; the ORT dynamic path below is the
+  honest int8 datapoint.
+- **fp16 halves size for free accuracy-wise** (PCK@20 −0.005 pt, MPJPE
+  +0.0001) but is *slower* on CPU at batch 1 (~2.2×) — torch CPU fp16 conv
+  kernels are emulated. fp16 is a storage/transport format here, not a CPU
+  runtime win.
+- **ONNX Runtime is the real batch-1 latency win: ~3.4× faster than torch**
+  (3.2 vs 11.0 ms/window) at identical accuracy (parity 2.4e-7).
+
+### Verdict on the paper's "~2.2 MB int8" claim
+
+**Plausible but not free, and unreachable by the obvious PyTorch route.**
+2,225,042 params × 1 byte ≈ 2.2 MB assumes *every* parameter quantizes.
+PyTorch dynamic quantization — the one-liner most readers would reach for —
+yields **9.07 MB (0% quantized)** because the model has no Linear layers.
+ONNX Runtime dynamic quantization, which does have int8 conv weight support,
+gets **2.44 MB** (close to the claim; the overhead is BatchNorm params/buffers
+and quantization scales kept in fp32) at a measurable accuracy cost:
+PCK@20 96.68 → 96.52% (−0.16 pt) and MPJPE 0.00936 → 0.01108 (+18%), and
+~2× slower inference than ONNX fp32 (ConvInteger kernels). The paper does not
+state a method or an int8 accuracy; treat "2.2 MB" as a weight-arithmetic
+estimate, achievable in practice only via conv-capable quantization toolchains
+and with a small accuracy penalty.
+
+### ONNX export status
+
+**Works.** Exported via the TorchScript exporter (`dynamo=False`), opset 17,
+with a dynamic batch axis — `results/retrained_fp32_dynamic.onnx` (8.97 MB),
+verified to run at batch 1/2/64. The axial attention's
+`view(N*W, C, H)` reshape traced correctly (sizes recorded as graph ops, not
+baked constants). The dynamo exporter also captures the graph but crashed on
+this box writing a ✅ to a cp1252 console (cosmetic Windows encoding issue, not
+a model blocker). Parity vs torch on the stored fixture
+(`results/parity_fixture.npz`, batch 2, seed 42): **max abs diff 2.4e-7 —
+PASS** (< 1e-4). ORT-quantized int8 model: `results/retrained_int8_ort_dynamic.onnx`.
+
+### Static PTQ (calibrated) — follow-up
+
+Follow-up to the dynamic-int8 row above (2026-06-10, same box, onnxruntime
+1.26.0): ONNX Runtime **static** post-training quantization
+(`quantize_static`, QDQ format, per-channel int8 weights + int8 activations)
+of the same fp32 export, calibrated on **corruption-free TRAINING-split
+windows only** (seed-42 file-level split, same masks; 1,000 windows for
+MinMax, 512 for the histogram calibrators; never test windows). Scopes:
+"conv-only" (`op_types_to_quantize=["Conv"]` — the attention path exports as
+Einsum/Softmax, which ORT never quantizes anyway, so "all-ops" additionally
+quantizes the elementwise Mul/Sigmoid/Add/AveragePool glue). Accuracy on the
+identical 10k-window seed-42 corruption-free test subset; latency median of
+3 interleaved reps (fp32/dynamic re-benched in-session as references).
+Script: `static_ptq_bench.py`; raw: `results/edge_optimization.json`
+(`onnx_static_ptq`).
+
+| Variant | Disk size | Batch 1 (ms/win) | Batch 64 (ms/win) | PCK@20 | PCK@50 | MPJPE |
+|---|---|---|---|---|---|---|
+| ONNX fp32 (reference) | 8.97 MB | 2.5 | 1.9 | 96.68% | 99.15% | 0.00936 |
+| ORT dynamic int8 (baseline) | **2.44 MB** | 5.7 | 4.6 | 96.52% | 99.15% | 0.01108 |
+| static QDQ **Percentile(99.99) conv-only** | 2.53 MB | 5.3 | 4.7 | 96.61% | 99.16% | **0.01031** |
+| static QDQ MinMax conv-only | 2.53 MB | 5.2 | 3.3 | **96.63%** | 99.19% | 0.01084 |
+| static QDQ Entropy conv-only | 2.53 MB | 5.2 | 3.1 | 96.60% | 99.19% | 0.01078 |
+| static QDQ MinMax all-ops | 2.60 MB | 6.5 | 3.9 | 95.45% | 99.14% | 0.01486 |
+| static QDQ Entropy all-ops | 2.60 MB | 5.7 | 4.1 | 95.30% | 99.13% | 0.01510 |
+| static QDQ Percentile all-ops | 2.60 MB | 5.3 | 4.3 | 96.39% | 99.17% | 0.01218 |
+
+**Verdict: static PTQ (conv-only) is the new best int8 point on accuracy —
+but only modestly, and it does not fix int8's latency penalty.**
+
+- **Accuracy: beats dynamic.** All three conv-only calibrations land at
+  PCK@20 96.60–96.63% (vs dynamic 96.52%, fp32 96.68% — recovers ~⅔ of the
+  dynamic gap) and MPJPE 0.0103–0.0108 (vs dynamic 0.01108). Best MPJPE:
+  Percentile conv-only, +10% over fp32 instead of dynamic's +18%.
+- **Size: slightly worse.** 2.53 MB vs 2.44 MB (+3.6%) — QDQ nodes and
+  per-channel scales cost a little; BatchNorm stays fp32 in both (the 12 BNs
+  follow Slice/Einsum/Reshape, never Conv, so they cannot be folded).
+- **Latency: a wash vs dynamic, still ~2× slower than ONNX fp32 at batch 1.**
+  Batch-1 medians 5.2–5.3 vs dynamic 5.7 ms/win in-session — within this
+  box's ±20–40% noise. Batch 64 leans static (3.1–3.3 for MinMax/Entropy
+  conv-only vs 4.6), same caveat.
+- **All-ops QDQ is strictly worse**: up to −1.4 pt PCK@20 and +60% MPJPE for
+  zero size/latency benefit — int8 activations through the elementwise glue
+  around the attention blocks is where the damage is. Conv-only is the right
+  scope.
+- Negative result worth recording: **Entropy calibration is a no-op here** —
+  on an identical calibration set it selects full-range thresholds
+  bit-identical to MinMax (all 247 scales equal; verified on a 64-window
+  smoke set). Also, ORT 1.26's `CalibMaxIntermediateOutputs` raises a
+  spurious "No data is collected" when the batch count divides the chunk
+  size (worked around in the script).
+
+Deployment guidance: need speed → ONNX fp32 (3.2 ms b1). Need int8 weights
+for size → static QDQ conv-only (Percentile or MinMax,
+`results/retrained_int8_static_percentile_conv.onnx`), which strictly
+dominates dynamic int8 on accuracy at ~equal latency and +0.09 MB.
+
+## Efficiency sweep (MEASURED, overnight 2026-06-10/11)
+
+ADR-152 beyond-SOTA track: compact purpose-built variants of the WiFlow-STD
+architecture, trained from scratch on the same cleaned dataset, identical
+seed-42 file-level split, loss and protocol as the measurement-(a) reference
+(fp32, batch 64, ≤50 epochs, patience 5; RTX 5080, ~22–29 min/variant).
+Variant transforms are pure channel/group/stride scalings of an
+architecture-exact parameterized model (validated: reproduces 2,225,042 params
+at the reference config). Scripts: `remote/sweep/`; raw:
+`results/efficiency_sweep.jsonl`; checkpoints `results/{half,quarter,tiny}_best.pth`
+(gitignored).
+
+| Variant | Params | vs 2.23M | Clean-test PCK@20 | PCK@50 | MPJPE | Best epoch |
+|---|---|---|---|---|---|---|
+| full (reference, meas. a) | 2,225,042 | 1× | 96.61% | 99.11% | 0.0094 | 36 |
+| **half** | **843,834** | **0.38×** | **96.62%** | **99.47%** | **0.00898** | 23 |
+| quarter | 338,600 | 0.15× | 96.05% | 99.43% | 0.00928 | 50 |
+| tiny | 56,290 | 0.025× | 94.11% | 99.36% | 0.0125 | 47 |
+
+Findings:
+
+- **The half model (843k params) strictly dominates the full reference** on
+  this dataset — equal PCK@20, better PCK@50 and MPJPE, converges in fewer
+  epochs. The published 2.23M architecture is over-parameterized for its own
+  benchmark.
+- **tiny (56k params, 1/39.5) holds 94.11% PCK@20** — a ~220 KB fp32 /
+  ~60 KB int8-class model in reach of severely constrained edge targets,
+  at −2.5 pt from the full reference.
+- Caveats: in-domain (5-subject random-file split) like every number on this
+  dataset; single run per variant; corruption-free test subset (52,560).
+  Cross-domain behavior of compact variants is untested — ADR-150's evidence
+  says capacity *hurts* cross-subject, so the compact end may generalize no
+  worse, but that is a hypothesis, not a measurement.
+
+### Compact-variant edge artifacts (MEASURED, 2026-06-11)
+
+Edge pipeline for the **tiny** checkpoint (56,290 params), same machinery and
+protocol as the full-model edge rows above (this Windows box, torch
+2.12.0+cpu, onnxruntime 1.26.0; dynamic-batch opset-17 TorchScript export;
+static QDQ **Percentile(99.99) conv-only** int8 calibrated on **512**
+corruption-free TRAIN-split windows; accuracy on the identical 10k-window
+seed-42 clean test subset; latency = median ms/window over 3 interleaved
+reps, with the full-model fp32/int8 sessions interleaved as same-session
+references). Script: `tiny_edge_bench.py`; raw:
+`results/edge_optimization.json` (`tiny_variant`). Torch-vs-ORT parity on the
+stored fixture input: **max abs diff 1.5e-7 — PASS** (< 1e-4). The tiny fp32
+subset PCK@20 (94.11%) matches the full clean-test sweep figure (94.11%)
+exactly, so the subset remains representative.
+
+Two forced deviations, both recorded in the JSON:
+
+1. **Adaptive-pool export rewrite.** tiny's derived stride schedule
+   `[2,1,1,1]` leaves feature width 16, and the TorchScript exporter rejects
+   `AdaptiveAvgPool2d((15,1))` when 15 is not a factor of the input height
+   (the full model never hit this — its width was exactly 15). Since the
+   pool over a fixed-size map is a fixed linear operator, the export wrapper
+   replaces it with `mean(-1)` (W axis, a factor) + a constant averaging
+   matmul using PyTorch's exact bin rule; the parity check (vs the original
+   torch model with the real pool) proves exactness.
+2. **Calibration count 512, not "~500"**: ORT 1.26's histogram collector
+   `np.asarray()`'s the per-batch maxima, so the calibration count must be a
+   multiple of the 64-window calibration batch or the ragged last batch
+   crashes it (the earlier static-PTQ run dodged this by using exactly 512).
+
+| Variant | Disk size | Batch 1 (ms/win) | Batch 64 (ms/win) | PCK@20 | PCK@50 | MPJPE |
+|---|---|---|---|---|---|---|
+| full ONNX fp32 (same-session ref) | 8.97 MB | 2.27 | 1.42 | 96.68% | 99.15% | 0.00936 |
+| full static QDQ Percentile conv-only (same-session ref) | 2.53 MB | 5.53 | 3.82 | 96.61% | 99.16% | 0.01031 |
+| **tiny ONNX fp32** | **0.295 MB** | **0.66** | **0.24** | **94.11%** | 99.37% | 0.01253 |
+| tiny static QDQ Percentile conv-only | 0.248 MB | 0.85 | 1.03 | 92.68% | 99.33% | 0.01491 |
+
+(tiny torch `.pth` checkpoint for reference: 0.34 MB on disk; 56,290 fp32
+params ≈ 225 KB of weights.)
+
+Findings:
+
+- **The smallest deployable WiFlow-class model is the tiny ONNX fp32
+  artifact: ~295 KB on disk, 0.66 ms/window batch-1 CPU (~1,500 windows/s),
+  94.1% PCK@20** — 30× smaller and ~3.4× faster (in-session) than the full
+  ONNX fp32 model for −2.6 pt PCK@20.
+- **int8 is a bad trade at this scale.** Static QDQ conv-only — the recipe
+  that cost the full model only 0.07 pt — costs tiny **−1.43 pt** PCK@20
+  (94.11 → 92.68%) and +19% MPJPE, saves only 47 KB (−16%; QDQ scales and
+  the fp32 BN/attention glue are proportionally larger in a small graph),
+  and is *slower* than tiny fp32 (0.85 vs 0.66 ms b1; 1.03 vs 0.24 ms b64 —
+  QDQ kernel overhead dominates when the convs are this small). A 56k-param
+  model has little redundancy left to absorb weight+activation rounding.
+- Deployment guidance, compact edition: ship tiny as **ONNX fp32** — at
+  295 KB the int8 size saving solves no real constraint and costs accuracy
+  and speed. If ~250 KB vs ~295 KB ever matters, weight-only quantization
+  would be the thing to try next, not QDQ.
+
+## Measurement (b): BLOCKED-ON-DATA (attempted 2026-06-10)
+
+The fine-tune-on-ESP32 measurement stopped at dataset characterization, per the
+pre-registered stop rule (<2,000 paired windows). Findings (MEASURED):
+
+- **Only one trainable paired dataset exists**: `ruvultra:~/work/cog-pose-train/paired.jsonl`
+  — 1,077 windows (one subject, one room, one 29.9-min session, single node;
+  CSI [56, 20]; 17 COCO keypoints, MediaPipe confidence mean 0.44 — only 264
+  windows pass ADR-079's own conf>0.5 training filter). Prior measured attempts
+  on this exact set: 0–3% torso-PCK@20 (temporal splits, three independent
+  pipelines). Fine-tuning a 2.23M-param model on ~860 train windows would
+  measure memorization, not transfer.
+- **The April session behind the old "92.9% PCK@20" claim is lost** (345
+  samples, 35 subcarriers; raw CSI gone from ruvzen/ruvultra/cognitum-v0; only
+  a 69-sample predictions+GT holdout survives at `models/wiflow-real/eval-holdout.jsonl`).
+- **Forensic recheck of that holdout RETRACTS the 92.9% figure**: the trainer's
+  `pck()` used an absolute 0.2 image-unit threshold (not torso-normalized) and
+  the model output a **constant pose** (pred std 0.0000 across 69 near-static
+  frames; a mean predictor scores 100% under the same protocol). The
+  torso-normalized PCK@20 on the same holdout is 19.1%. This corroborates the
+  2026-05-11 audit retraction (CHANGELOG, PR #535); stale doc citations were
+  removed 2026-06-10 (user-guide, readme-details, ADR-152 §2.1.3). The §2.2
+  no-citation rule now applies to ADR-079 accuracy claims.
+
+Unblock criteria: a paired collection session of ≥2k windows (≈35+ min at the
+observed stride; multi-pose, conf>0.5, ideally with the §2.1.3 two-checkerboard
+calibration), plus a re-baselined our-pipeline number under torso-PCK@20 on the
+same split. WiFlow-STD assets stand ready on ruvultra (`~/wiflow-std-bench/`).
+Also worth investigating: ADR-079's protocol predicts ~9k windows per 30 min;
+the May session under-delivered ~8× (aligner drop rate?).
+
+## Measurement (b) (MEASURED 2026-06-10/11)
+
+The data baseline unblocked: the 2026-06-10 22:10–22:40 collection session produced
+**2,046 paired windows** (`ruvultra:~/wiflow-std-bench/paired-20260610.jsonl`; ONE
+subject, ONE room, ONE ESP32 node, varied poses: walk/raise/squat/kick/wave/turn/
+jump/sit; aligner `scripts/align-ground-truth.js`, non-overlapping 20-frame windows
+~0.42 s; 17 COCO keypoints in normalized [0,1] camera coords; MediaPipe confidence
+mean 0.802, min 0.692 — all windows pass the conf>0.5 filter). The −4 h timestamp
+bug and the empty-frame confidence-dilution aligner findings are recorded
+separately; results only here. Trained on ruvultra (RTX 5080, torch 2.11+cu128,
+fp32, batch 32, GPU shared with the efficiency sweep). Scripts mirrored in
+`remote/measb/`; raw metrics + full training curves in `results/measurement_b.json`.
+
+### Two new aligner/dataset findings (forced deviations, MEASURED)
+
+1. **`csi_shape` is heterogeneous, not [70, 20]**: 1,347× [70,20], 284× [134,20],
+   243× [26,20], 130× [12,20], 42× [20,20]. The ESP32 stream emits mixed frame
+   types and `extractCsiMatrix` stamps each window's subcarrier count from
+   `window[0].subcarriers`, zero-padding/truncating the other frames — even
+   native-70 windows contain ~20.4% internally zero-padded short frames
+   (subcarriers 40–69 all-zero). Handling: the primary suite ("all 2,046")
+   linearly resamples every frame's subcarrier axis to 70 bins (identity for
+   native-70 frames) so the pre-registered n and split sizes hold; a secondary
+   suite restricts to the 1,347 native [70,20] windows as a homogeneity check.
+2. **Aligner layout bug**: `extractCsiMatrix` fills `matrix[f * nSc + s]`
+   (frame-major) but declares `shape: [nSc, nFrames]` — the stored shape label is
+   transposed relative to the data. Confirmed by coherent per-frame zero-tails;
+   corrected on load (`reshape(nFrames, nSc).T`).
+
+### Protocol (pre-registered, followed)
+
+Temporal split, no shuffling across time: first 70% train (1,432), next 15% val
+(307), last 15% test (307); seed 42 elsewhere. Model: learned 1×1 Conv1d 70→540
+adapter prepended to the upstream WiFlow-STD trunk; K=17 via the parameter-free
+adaptive pool (`AdaptiveAvgPool2d((17,1))` — pretrained weights load strict for
+any K). CSI normalized by the TRAIN-split p99 amplitude (129.7 all / 130.9
+native-70), clipped to [0,1]. Three runs, ≤60 epochs, early-stop patience 8 on
+val MPJPE, AdamW (adapter lr 1e-4; pretrained trunk lr 1e-5, 10× lower; scratch
+all 1e-4), fp32. Pretrained init = the measurement-(a) **retrained** checkpoint
+(`upstream/test/best_pose_model.pth`, ~96% PCK@20 on WiFlow data; the
+`att.`/`final_conv.` key remap from `eval_repro.py` applied defensively — a no-op,
+that checkpoint already uses post-rename keys). Frozen-trunk run: trunk
+`requires_grad=False` **and** held in `.eval()` so BatchNorm running stats cannot
+drift — a pure transfer probe; only the 70→540 adapter (38,340 params) trains.
+
+PCK is torso-normalized with **torso = ‖l_shoulder(5) − l_hip(11)‖** (upstream
+`calculate_pck` math — per-frame norm clamped at 0.01, mean over keypoints ×
+frames — but upstream's `NECK_IDX/PELVIS_IDX = 2, 12` is a 15-keypoint
+convention; on 17-kp COCO those indices are right_eye/right_hip, so the indices
+were replaced, not the math). MPJPE is in normalized image units (not meters).
+
+### Results — primary suite, all 2,046 windows (test = last 307)
+
+| Run | PCK@10 | PCK@20 | PCK@30 | PCK@40 | PCK@50 | MPJPE | pred std | best ep |
+|---|---|---|---|---|---|---|---|---|
+| **mean-pose baseline** (honesty bar) | **73.1%** | **95.9%** | **98.7%** | 99.3% | 99.3% | **0.0148** | 0 (by constr.) | — |
+| (i) pretrained-init, full fine-tune | 26.0% | 65.0% | 88.0% | 96.4% | 98.9% | 0.0313 | 0.0113 | 58/60 |
+| (ii) scratch | 0.0% | 0.0% | 0.0% | 0.0% | 0.0% | 0.2554 | 0.0002 | 4 (stop @13) |
+| (iii) frozen-trunk (adapter only) | 0.0% | 0.0% | 0.2% | 3.2% | 14.4% | 0.1260 | 0.0073 | 59/60 |
+
+Secondary suite (native [70,20] windows only, n=1,347, test=202) reproduces the
+same ordering: mean-baseline 96.0% / pretrained 67.1% / scratch 0.0% /
+frozen-trunk 0.0% PCK@20 (MPJPE 0.0153 / 0.0318 / 0.2236 / 0.1343) — the
+subcarrier-resampling choice does not change any conclusion.
+
+### Interpretation
+
+- **Did pretraining-transfer happen? Partially — as optimization transfer, not
+  feature transfer, and not past the honesty bar.**
+  - *Pretrained vs scratch*: dramatic (65.0% vs 0.0% PCK@20). The pretrained init
+    is the only configuration that trains at all under the pre-registered budget.
+  - *Frozen-trunk*: near-zero (0.0% PCK@20, 14.4% @50). WiFlow-STD's frozen
+    features do **not** transfer to our ESP32 domain through a linear subcarrier
+    adapter — the pretrained benefit is a well-conditioned initialization (incl.
+    calibrated BN/output scales), not reusable CSI→pose features.
+  - *Everything vs mean-pose baseline*: **no run beats it.** A constant
+    train-mean pose scores 95.9% torso-PCK@20 / 0.0148 MPJPE on this test split,
+    because a single subject in one camera frame barely moves in normalized
+    coordinates. The fine-tuned model is a real, non-constant model
+    (pred std 0.0113 > 0 — passes the constant-pose detector that retracted the
+    old 92.9% figure) but its deviations from the mean hurt: it fits train-period
+    temporal dynamics that do not generalize across the temporal split.
+- **Verdict for ADR-152 §2.2(b): fine-tuning WiFlow-STD on this dataset does not
+  demonstrate CSI→pose signal beyond the mean pose.** Until a model beats the
+  mean-pose baseline on a temporal split, no PCK number from this line may be
+  cited as pose-estimation capability.
+
+### Caveats (honest, pre-registered)
+
+- Single subject, single room, single session (30 min), single ESP32 node —
+  in-domain temporal split only; nothing here speaks to cross-room or
+  cross-subject generalization.
+- 2k windows vs the 360k-window WiFlow-STD corpus — **NOT comparable** to the
+  ~96% in-domain measurement-(a) number, and the published 97.25% even less so.
+- The scratch run's total collapse (it cannot even reach the mean pose; its
+  output BatchNorm/SiLU head must learn output scale from random init at lr 1e-4)
+  is an optimization outcome under the fixed budget, not proof the architecture
+  cannot learn from scratch — the pretrained-vs-scratch gap partially reflects
+  this conditioning advantage.
+- Mixed-subcarrier frames (finding 1) mean even the "clean" windows carry ~20%
+  zero-padded frames; collection-side frame-type filtering should precede the
+  next session.
+- Mean-baseline PCK is inflated by low pose variance relative to torso size
+  (~0.2–0.3 image units); PCK@10 (73.1%) shows the same ceiling effect at a
+  stricter threshold — the bar is the bar, but a livelier dataset would lower it.
+
+## Pending
+
+- (b) fine-tune on our ESP32 17-keypoint eval set — **MEASURED 2026-06-10/11**,
+  see above: no run beats the mean-pose baseline; pretraining transfers as
+  optimization aid only.
+- (c) our internal WiFlow on their dataset (15-keypoint subset mapping) — also
+  affected: there is currently no validated internal pose model to compare
+  (the 92.9% artifact is retracted; the MM-Fi SOTA models in ADR-150 §3 are a
+  different input domain).

benchmarks/wiflow-std/_bench_common.py

@@ -0,0 +1,200 @@
+"""Shared infrastructure for the LOCAL wiflow-std benchmark scripts (ADR-152).
+
+This module is the single canonical implementation of the helpers that were
+previously copy-pasted across eval_repro.py / quantize_bench.py /
+onnx_bench.py / eval_ort_accuracy.py / export_to_safetensors.py:
+
+  - ``import_upstream()``  -- sys.path setup + the models-package stub that
+    works around the upstream import bug, plus the >1GB np.load mmap patch
+  - ``install_np_load_mmap_patch()`` -- the mmap patch on its own
+  - ``remap_legacy_keys()`` / ``load_remapped_state()`` -- checkpoint
+    key remap for the pre-rename released checkpoint
+  - ``load_wiflow_model()`` -- WiFlowPoseModel from a checkpoint, eval mode
+  - ``set_seed()`` -- mirrors upstream run.py seeding exactly
+  - ``evaluate()`` -- THE canonical batch-weighted PCK/MPJPE evaluation loop
+    (thresholds 0.1-0.5, upstream utils/metrics.py math); accepts either a
+    torch nn.Module or an onnxruntime InferenceSession
+
+The scripts under remote/ deploy to ruvultra as standalone single files and
+therefore intentionally inline private copies of these helpers; when editing
+them, treat this module as the reference implementation and keep the copies
+in sync.
+"""
+
+import os
+import random
+import sys
+import time
+import types
+
+import numpy as np
+import torch
+
+HERE = os.path.dirname(os.path.abspath(__file__))
+UPSTREAM = os.path.join(HERE, "upstream")
+RESULTS = os.path.join(HERE, "results")
+
+DEFAULT_THRESHOLDS = (0.1, 0.2, 0.3, 0.4, 0.5)
+
+# ---------------------------------------------------------------------------
+# >1GB np.load mmap patch
+# ---------------------------------------------------------------------------
+
+# csi_windows.npy is ~13 GB; mmap large arrays instead of loading into RAM
+# (loading it eagerly needs ~15 GB).
+_np_load = np.load
+
+
+def _np_load_mmap(path, *a, **kw):
+    if (isinstance(path, str) and path.endswith(".npy")
+            and os.path.getsize(path) > 1 << 30 and "mmap_mode" not in kw):
+        kw["mmap_mode"] = "r"
+    return _np_load(path, *a, **kw)
+
+
+def install_np_load_mmap_patch():
+    """Globally patch np.load so .npy files >1GB are mmap'd read-only.
+
+    Idempotent. Patching the numpy module attribute is equivalent to the
+    historical ``upstream_dataset.np.load = _np_load_mmap`` (dataset.np IS
+    the numpy module), but works regardless of import order.
+    """
+    np.load = _np_load_mmap
+
+
+# ---------------------------------------------------------------------------
+# upstream import shim
+# ---------------------------------------------------------------------------
+
+def import_upstream(mmap_patch=True):
+    """Make the upstream WiFlow-STD clone importable; returns its path.
+
+    Upstream bug: models/__init__.py imports TemporalConvNet, which
+    models/tcn.py does not define -- the package fails to import as
+    published. Register a stub package so the broken __init__ never
+    executes; submodules (models.pose_model etc.) still resolve via
+    __path__. Idempotent.
+    """
+    if UPSTREAM not in sys.path:
+        sys.path.insert(0, UPSTREAM)
+    if "models" not in sys.modules:
+        _models_pkg = types.ModuleType("models")
+        _models_pkg.__path__ = [os.path.join(UPSTREAM, "models")]
+        sys.modules["models"] = _models_pkg
+    if mmap_patch:
+        install_np_load_mmap_patch()
+    return UPSTREAM
+
+
+# ---------------------------------------------------------------------------
+# checkpoint loading
+# ---------------------------------------------------------------------------
+
+# The released checkpoint predates the published code: modules were renamed
+# att -> attention, final_conv -> decoder (param count identical, 2.23M).
+LEGACY_RENAMES = {"att.": "attention.", "final_conv.": "decoder."}
+
+
+def remap_legacy_keys(state):
+    """Remap pre-rename state_dict keys; no-op for already-new-style keys."""
+    return {next((new + k[len(old):] for old, new in LEGACY_RENAMES.items()
+                  if k.startswith(old)), k): v
+            for k, v in state.items()}
+
+
+def load_remapped_state(path, map_location="cpu"):
+    """torch.load (weights_only) + legacy key remap."""
+    state = torch.load(path, map_location=map_location, weights_only=True)
+    return remap_legacy_keys(state)
+
+
+def load_wiflow_model(checkpoint, map_location="cpu", dropout=0.5):
+    """Full-size WiFlowPoseModel from a checkpoint, strict load, eval mode."""
+    import_upstream()
+    from models.pose_model import WiFlowPoseModel
+    model = WiFlowPoseModel(dropout=dropout)
+    model.load_state_dict(load_remapped_state(checkpoint, map_location),
+                          strict=True)
+    model.eval()
+    return model
+
+
+# ---------------------------------------------------------------------------
+# seeding
+# ---------------------------------------------------------------------------
+
+def set_seed(seed=42):
+    # mirror upstream run.py exactly
+    random.seed(seed)
+    np.random.seed(seed)
+    torch.manual_seed(seed)
+    if torch.cuda.is_available():
+        torch.cuda.manual_seed(seed)
+        torch.cuda.manual_seed_all(seed)
+    torch.backends.cudnn.deterministic = True
+    torch.backends.cudnn.benchmark = False
+
+
+# ---------------------------------------------------------------------------
+# THE canonical evaluation loop
+# ---------------------------------------------------------------------------
+
+def evaluate(model, loader, device=None, dtype=None, label="",
+             thresholds=DEFAULT_THRESHOLDS, progress_every=50):
+    """Batch-weighted PCK/MPJPE over a DataLoader (upstream metrics math).
+
+    ``model`` may be a torch nn.Module (optionally evaluated on ``device``
+    with inputs cast to ``dtype``) or an onnxruntime InferenceSession.
+    Per-threshold PCK values are independent in upstream calculate_pck, so
+    evaluating a superset of thresholds never changes any individual value.
+
+    Returns {"samples", "mpjpe", "pck@10".."pck@50", "wall_seconds"}.
+    """
+    import_upstream()
+    from utils.metrics import calculate_mpjpe, calculate_pck
+
+    is_ort = hasattr(model, "get_inputs")  # onnxruntime InferenceSession
+    if is_ort:
+        inp = model.get_inputs()[0].name
+
+        def forward(bx):
+            return torch.from_numpy(model.run(None, {inp: bx.numpy()})[0])
+    else:
+        model.eval()
+
+        def forward(bx):
+            if device is not None:
+                bx = bx.to(device)
+            if dtype is not None:
+                bx = bx.to(dtype)
+            return model(bx).float()
+
+    thresholds = list(thresholds)
+    totals = {t: 0.0 for t in thresholds}
+    total_mpe, n = 0.0, 0
+    t0 = time.time()
+    with torch.no_grad():
+        for batch_idx, (bx, by) in enumerate(loader):
+            out = forward(bx)
+            if device is not None and not is_ort:
+                by = by.to(device)
+            mpe = calculate_mpjpe(out, by)
+            pck = calculate_pck(out, by, thresholds=thresholds)
+            bs = by.size(0)
+            total_mpe += mpe * bs
+            for t in totals:
+                totals[t] += pck[t] * bs
+            n += bs
+            if batch_idx % progress_every == 0:
+                tag = f"[{label}] " if label else ""
+                pck20 = totals.get(0.2)
+                pck20_str = f"pck20={pck20 / n:.4f} " if pck20 is not None else ""
+                print(f"  {tag}batch {batch_idx}: n={n} {pck20_str}"
+                      f"mpjpe={total_mpe / n:.4f} ({time.time() - t0:.0f}s)",
+                      flush=True)
+    return {
+        "samples": n,
+        "mpjpe": total_mpe / n,
+        **{f"pck@{int(t * 100)}": totals[t] / n for t in thresholds},
+        "wall_seconds": time.time() - t0,
+    }

benchmarks/wiflow-std/eval_ort_accuracy.py

@@ -0,0 +1,67 @@
+"""ADR-152 edge optimization: accuracy of the ONNX fp32 and ORT-dynamic-int8
+models on the same corruption-free 10k test subset used by quantize_bench.py.
+
+The torch dynamic-int8 path quantizes nothing (no nn.Linear in the model), so
+the only real int8 datapoint for the paper's "~2.2 MB int8" claim is the
+onnxruntime dynamically quantized model -- this script measures what that
+quantization costs in PCK/MPJPE.
+
+Usage:
+  .venv/Scripts/python.exe eval_ort_accuracy.py \
+      --data-dir <preprocessed_csi_data> [--subset 10000]
+
+Writes/merges into results/edge_optimization.json under key "onnx_accuracy".
+"""
+
+import argparse
+import json
+import os
+import sys
+
+HERE = os.path.dirname(os.path.abspath(__file__))
+sys.path.insert(0, HERE)
+
+from _bench_common import RESULTS, evaluate  # noqa: E402
+from quantize_bench import build_test_subset  # noqa: E402  (sets up upstream imports)
+
+
+def evaluate_ort(sess, loader, label):
+    """ORT-session evaluation via the canonical _bench_common.evaluate loop."""
+    return evaluate(sess, loader, label=label)
+
+
+def main():
+    import onnxruntime as ort
+    parser = argparse.ArgumentParser()
+    parser.add_argument("--data-dir", default=os.path.join(
+        os.path.expanduser("~"), ".cache", "kagglehub", "datasets", "kaka2434",
+        "wiflow-dataset", "versions", "1", "preprocessed_csi_data"))
+    parser.add_argument("--subset", type=int, default=10000)
+    parser.add_argument("--out", default=os.path.join(RESULTS, "edge_optimization.json"))
+    args = parser.parse_args()
+
+    loader, _n_clean = build_test_subset(args.data_dir, args.subset)
+    results = {}
+    for label, fname in (("onnx_fp32", "retrained_fp32_dynamic.onnx"),
+                         ("onnx_int8_ort_dynamic", "retrained_int8_ort_dynamic.onnx")):
+        path = os.path.join(RESULTS, fname)
+        if not os.path.exists(path):
+            results[label] = {"error": f"{fname} not found; run onnx_bench.py first"}
+            continue
+        sess = ort.InferenceSession(path, providers=["CPUExecutionProvider"])
+        print(f"=== accuracy: {label} ({fname}) ===")
+        results[label] = evaluate_ort(sess, loader, label)
+        print(json.dumps(results[label], indent=2))
+
+    merged = {}
+    if os.path.exists(args.out):
+        with open(args.out) as f:
+            merged = json.load(f)
+    merged["onnx_accuracy"] = results
+    with open(args.out, "w") as f:
+        json.dump(merged, f, indent=2)
+    print(f"wrote {args.out}")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/eval_repro.py

@@ -0,0 +1,102 @@
+"""ADR-152 §2.2 measurement (a): reproduce WiFlow-STD (DY2434) published test metrics.
+
+Runs the released pretrained checkpoint (upstream/best_pose_model.pth) against the
+released Kaggle dataset (kaka2434/wiflow-dataset) using the upstream code path:
+identical dataset class, identical file-level 70/15/15 split at seed 42, identical
+PCK/MPJPE implementations (utils/metrics.py).
+
+Published claims (README, "Setting 1 random split"):
+  PCK@20 97.25% | PCK@30 98.63% | PCK@40 99.16% | PCK@50 99.48% | MPJPE 0.007 m
+
+Usage:
+  .venv/Scripts/python.exe eval_repro.py --data-dir <dir containing csi_windows.npy>
+"""
+
+import argparse
+import json
+import os
+import sys
+
+import torch
+from torch.utils.data import DataLoader
+
+from _bench_common import (UPSTREAM, evaluate, import_upstream,
+                           load_remapped_state, set_seed)
+
+import_upstream()  # sys.path + models stub + >1GB np.load mmap patch
+
+from dataset import PreprocessedCSIKeypointsDataset, create_preprocessed_train_val_test_loaders  # noqa: E402
+from models.pose_model import WiFlowPoseModel  # noqa: E402
+
+
+def find_data_dir(root):
+    for dirpath, _dirnames, filenames in os.walk(root):
+        if "csi_windows.npy" in filenames:
+            return dirpath
+    return None
+
+
+def main():
+    parser = argparse.ArgumentParser()
+    parser.add_argument("--data-dir", required=True,
+                        help="Directory containing csi_windows.npy (searched recursively)")
+    parser.add_argument("--checkpoint", default=os.path.join(UPSTREAM, "best_pose_model.pth"))
+    parser.add_argument("--batch-size", type=int, default=64)
+    parser.add_argument("--out", default=os.path.join(os.path.dirname(os.path.abspath(__file__)),
+                                                      "results", "repro_a.json"))
+    args = parser.parse_args()
+
+    data_dir = args.data_dir
+    if not os.path.exists(os.path.join(data_dir, "csi_windows.npy")):
+        located = find_data_dir(data_dir)
+        if located is None:
+            sys.exit(f"csi_windows.npy not found under {data_dir}")
+        data_dir = located
+    print(f"data dir: {data_dir}")
+
+    device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
+    print(f"device: {device}, torch {torch.__version__}")
+
+    set_seed(42)
+
+    dataset = PreprocessedCSIKeypointsDataset(
+        data_dir=data_dir, keypoint_scale=1000.0, enable_temporal_clean=True)
+
+    # split must match upstream: file-level shuffle at random_seed=42, 70/15/15
+    _train_loader, _val_loader, test_loader = create_preprocessed_train_val_test_loaders(
+        dataset=dataset, batch_size=args.batch_size, num_workers=0, random_seed=42)
+
+    model = WiFlowPoseModel(dropout=0.5).to(device)
+    # released checkpoint predates the published code: modules were renamed
+    # att -> attention, final_conv -> decoder (param count identical, 2.23M)
+    state = load_remapped_state(args.checkpoint, map_location=device)
+    model.load_state_dict(state, strict=True)
+    n_params = sum(p.numel() for p in model.parameters())
+    print(f"checkpoint: {args.checkpoint} ({n_params/1e6:.2f}M params)")
+
+    # upstream also evaluates with drop_last=True; we report the full test set
+    # (drop_last=False) and the drop_last variant for exact comparability
+    results = {"published": {"pck@20": 0.9725, "pck@30": 0.9863, "pck@40": 0.9916,
+                             "pck@50": 0.9948, "mpjpe": 0.007},
+               "params_millions": n_params / 1e6,
+               "data_dir": data_dir,
+               "device": str(device)}
+
+    print("=== test set (full, drop_last=False) ===")
+    results["test_full"] = evaluate(model, test_loader, device=device)
+    print(json.dumps(results["test_full"], indent=2))
+
+    test_loader_dl = DataLoader(test_loader.dataset, batch_size=args.batch_size,
+                                shuffle=False, drop_last=True)
+    print("=== test set (drop_last=True, as upstream train.py) ===")
+    results["test_drop_last"] = evaluate(model, test_loader_dl, device=device)
+    print(json.dumps(results["test_drop_last"], indent=2))
+
+    os.makedirs(os.path.dirname(args.out), exist_ok=True)
+    with open(args.out, "w") as f:
+        json.dump(results, f, indent=2)
+    print(f"wrote {args.out}")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/export_to_safetensors.py

@@ -0,0 +1,174 @@
+"""ADR-152 §2.2: export the retrained WiFlow-STD PyTorch checkpoint to
+safetensors with tch-rs (VarStore) variable names, plus a numerical-parity
+fixture for the Rust port.
+
+Outputs (all under results/, gitignored):
+  retrained_wiflow_std.safetensors  -- 248 f32 tensors named exactly as the
+                                       Rust WiFlowStdModel VarStore expects
+                                       (see wiflow_std/model.rs
+                                       `dump_variable_names` for the
+                                       authoritative name dump)
+  parity_fixture.npz                -- deterministic input (seed 42,
+                                       shape (2, 540, 20), uniform [0,1]) and
+                                       the Python model's eval-mode output
+  parity_fixture.json               -- same data as flattened f32 lists, for
+                                       the dependency-free Rust test
+                                       (tests/test_wiflow_std_parity.rs)
+
+PyTorch -> tch key mapping (derived from the VarStore dump, not guessed):
+
+  tcn.network.{i}.conv1_group.weight        -> tcn{i}.conv1_group.weight
+  tcn.network.{i}.bn*_{group,pw}.<leaf>     -> tcn{i}.bn*_{group,pw}.<leaf>
+  tcn.network.{i}.downsample.0.weight       -> tcn{i}.ds_conv.weight
+  tcn.network.{i}.downsample.1.<leaf>       -> tcn{i}.ds_bn.<leaf>
+  up.block.{0,1,4,5,8,9}.<leaf>             -> conv_in.{conv1,bn1,conv2,bn2,conv3,bn3}.<leaf>
+  up.downsample.{0,1}.<leaf>                -> conv_in.{ds_conv,ds_bn}.<leaf>
+  residual_blocks.{i}.block.{...}.<leaf>    -> conv{i}.{conv1..bn3}.<leaf>
+  residual_blocks.{i}.downsample.{0,1}      -> conv{i}.{ds_conv,ds_bn}
+  attention.{width,height}_axis.qkv_transform.weight
+                                            -> attention.{width,height}.qkv.weight
+  attention.{width,height}_axis.bn_*        -> attention.{width,height}.bn_*
+  decoder.{0,1,3,4}.<leaf>                  -> {dec_conv1,dec_bn1,dec_conv2,dec_bn2}.<leaf>
+  *.num_batches_tracked                     -> dropped (tch BatchNorm has no such buffer)
+
+Legacy upstream names (att. -> attention., final_conv. -> decoder.) are
+remapped first, exactly as eval_repro.py does for the released checkpoint.
+
+Usage:
+  .venv/Scripts/python.exe export_to_safetensors.py
+"""
+
+import json
+import os
+import re
+
+import numpy as np
+import torch
+from safetensors.torch import save_file
+
+from _bench_common import RESULTS, import_upstream, remap_legacy_keys
+
+import_upstream()  # sys.path + models stub
+
+from models.pose_model import WiFlowPoseModel  # noqa: E402
+
+CHECKPOINT = os.path.join(RESULTS, "retrained_best_pose_model.pth")
+
+# Sequential index -> tch sub-name inside one ConvBlock1/AsymmetricConvBlock:
+# [Conv2d(0), BN(1), SiLU(2), Dropout2d(3), Conv2d(4), BN(5), SiLU(6),
+#  Dropout2d(7), Conv2d(8), BN(9)]
+_BLOCK_IDX = {"0": "conv1", "1": "bn1", "4": "conv2", "5": "bn2",
+              "8": "conv3", "9": "bn3"}
+_DS_IDX = {"0": "ds_conv", "1": "ds_bn"}
+_DECODER_IDX = {"0": "dec_conv1", "1": "dec_bn1", "3": "dec_conv2",
+                "4": "dec_bn2"}
+
+
+def _conv_block(new_prefix: str, rest: str) -> str:
+    m = re.fullmatch(r"block\.(\d+)\.(.+)", rest)
+    if m:
+        return f"{new_prefix}.{_BLOCK_IDX[m.group(1)]}.{m.group(2)}"
+    m = re.fullmatch(r"downsample\.(\d+)\.(.+)", rest)
+    if m:
+        return f"{new_prefix}.{_DS_IDX[m.group(1)]}.{m.group(2)}"
+    raise KeyError(f"unmapped conv-block key: {new_prefix} / {rest}")
+
+
+def map_key(key: str) -> str:
+    """Map one PyTorch state_dict key to the tch VarStore name."""
+    m = re.fullmatch(r"tcn\.network\.(\d+)\.(.+)", key)
+    if m:
+        i, rest = m.groups()
+        rest = (rest.replace("downsample.0.", "ds_conv.")
+                    .replace("downsample.1.", "ds_bn."))
+        return f"tcn{i}.{rest}"
+
+    m = re.fullmatch(r"up\.(.+)", key)
+    if m:
+        return _conv_block("conv_in", m.group(1))
+
+    m = re.fullmatch(r"residual_blocks\.(\d+)\.(.+)", key)
+    if m:
+        return _conv_block(f"conv{m.group(1)}", m.group(2))
+
+    m = re.fullmatch(r"attention\.(width|height)_axis\.(.+)", key)
+    if m:
+        axis, rest = m.groups()
+        rest = rest.replace("qkv_transform.", "qkv.")
+        return f"attention.{axis}.{rest}"
+
+    m = re.fullmatch(r"decoder\.(\d+)\.(.+)", key)
+    if m:
+        return f"{_DECODER_IDX[m.group(1)]}.{m.group(2)}"
+
+    raise KeyError(f"unmapped checkpoint key: {key}")
+
+
+def main():
+    state = torch.load(CHECKPOINT, map_location="cpu", weights_only=True)
+    if not isinstance(state, dict) or "tcn.network.0.conv1_group.weight" not in {
+        k for k in state
+    } | {k.replace("att.", "attention.") for k in state}:
+        # tolerate trainer wrappers like {"model_state_dict": ...}
+        for wrapper in ("model_state_dict", "state_dict", "model"):
+            if isinstance(state, dict) and wrapper in state:
+                state = state[wrapper]
+                break
+
+    # Legacy upstream names predate the published code (_bench_common).
+    state = remap_legacy_keys(state)
+
+    mapped = {}
+    dropped = 0
+    for k, v in state.items():
+        if k.endswith("num_batches_tracked"):
+            dropped += 1
+            continue
+        tch_key = map_key(k)
+        if tch_key in mapped:
+            raise KeyError(f"duplicate mapped key: {k} -> {tch_key}")
+        mapped[tch_key] = v.detach().to(torch.float32).contiguous()
+
+    n_params = sum(v.numel() for k, v in mapped.items()
+                   if "running_" not in k)
+    print(f"checkpoint tensors: {len(state)} "
+          f"(dropped {dropped} num_batches_tracked)")
+    print(f"mapped tensors: {len(mapped)}, "
+          f"non-buffer params: {n_params/1e6:.6f}M")
+    assert len(mapped) == 248, f"expected 248 tch variables, got {len(mapped)}"
+    assert n_params == 2_225_042, f"param count mismatch: {n_params}"
+
+    st_path = os.path.join(RESULTS, "retrained_wiflow_std.safetensors")
+    save_file(mapped, st_path)
+    print(f"wrote {st_path}")
+
+    # ---- parity fixture --------------------------------------------------
+    model = WiFlowPoseModel(dropout=0.5)
+    model.load_state_dict(state, strict=True)
+    model.eval()
+
+    gen = torch.Generator().manual_seed(42)
+    x = torch.rand(2, 540, 20, generator=gen, dtype=torch.float32)
+    with torch.no_grad():
+        y = model(x)
+    print(f"fixture input {tuple(x.shape)} -> output {tuple(y.shape)}, "
+          f"output range [{y.min().item():.6f}, {y.max().item():.6f}]")
+
+    np.savez(os.path.join(RESULTS, "parity_fixture.npz"),
+             input=x.numpy(), output=y.numpy())
+    fixture = {
+        "seed": 42,
+        "input_shape": list(x.shape),
+        "input": x.flatten().tolist(),
+        "output_shape": list(y.shape),
+        "output": y.flatten().tolist(),
+    }
+    json_path = os.path.join(RESULTS, "parity_fixture.json")
+    with open(json_path, "w") as f:
+        json.dump(fixture, f)
+    print(f"wrote {os.path.join(RESULTS, 'parity_fixture.npz')}")
+    print(f"wrote {json_path}")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/generate_corruption_masks.py

@@ -0,0 +1,148 @@
+"""Regenerate results/nan_windows_mask.npy + results/big_windows_mask.npy by
+scanning a PRISTINE kagglehub download of the WiFlow-STD dataset
+(kaka2434/wiflow-dataset v1, csi_windows.npy, 360,000 windows of 540x20).
+
+============================ READ THIS FIRST ===============================
+This script MUST be run against an UNCLEANED copy of the dataset.
+
+remote/clean_v2.py (and its predecessor clean_nan.py) repair the dataset by
+zeroing the corrupted windows IN PLACE, with no backup. A cleaned copy
+contains no non-finite values and no out-of-range amplitudes, so on a cleaned
+copy this scan produces ALL-FALSE masks -- silently wrong ground truth. The
+script errors out loudly in that case (see the sanity check in main()).
+
+That irreversibility is exactly why the two committed mask files under
+results/ (gitignore-negated) are the canonical ground truth: once a download
+has been cleaned, the masks can NEVER be regenerated from it. Only run this
+on a fresh `kagglehub.dataset_download("kaka2434/wiflow-dataset")`.
+============================================================================
+
+Criteria (per window; mirrors the original 2026-06-10 scan and the
+remote/clean_v2.py repair criteria):
+
+  nan mask: any non-finite value (NaN/Inf) anywhere in the 540x20 window
+  big mask: max |finite value| > 1.5 (the data is otherwise [0,1]-normalized;
+            the corrupted files contain garbage up to 3.4e38, float32 max)
+
+Expected result on the pristine Kaggle download (RESULTS.md defect 5):
+  nan: 9,070 True | big: 9,072 True | union: 9,072 -- all windows in dataset
+  files 487-499 (the final 13 files), window indices 350,922-359,999.
+
+Usage:
+  PYTHONUTF8=1 .venv/Scripts/python.exe generate_corruption_masks.py \
+      [--data-dir <dir containing csi_windows.npy>] [--out-dir results]
+"""
+
+import argparse
+import os
+import sys
+
+import numpy as np
+
+HERE = os.path.dirname(os.path.abspath(__file__))
+RESULTS = os.path.join(HERE, "results")
+
+EXPECTED = {"nan": 9070, "big": 9072, "union": 9072,
+            "files": (487, 499), "windows": (350922, 359999)}
+
+
+def scan(csi_path, chunk=4000):
+    """Chunked scan of the (mmap'd) windows array; returns (nan_mask, big_mask)."""
+    csi = np.load(csi_path, mmap_mode="r")
+    n = len(csi)
+    nan_mask = np.zeros(n, dtype=bool)
+    big_mask = np.zeros(n, dtype=bool)
+    for i in range(0, n, chunk):
+        block = np.asarray(csi[i:i + chunk])
+        finite = np.isfinite(block)
+        nan_mask[i:i + chunk] = (~finite).any(axis=(1, 2))
+        big_mask[i:i + chunk] = (
+            np.abs(np.where(finite, block, 0)).max(axis=(1, 2)) > 1.5)
+        if (i // chunk) % 10 == 0:
+            print(f"  scanned {min(i + chunk, n):,}/{n:,} windows "
+                  f"(nan={int(nan_mask.sum()):,} big={int(big_mask.sum()):,})",
+                  flush=True)
+    return nan_mask, big_mask
+
+
+def describe_files(data_dir, mask):
+    """Map marked windows to dataset file indices via window_info.npz."""
+    info = os.path.join(data_dir, "window_info.npz")
+    if not os.path.exists(info):
+        return None
+    w2f = np.load(info)["window_to_file"]
+    return np.unique(w2f[mask])
+
+
+def main():
+    parser = argparse.ArgumentParser(
+        description="Regenerate the corruption masks from a PRISTINE "
+                    "(uncleaned) kagglehub download. See module docstring.")
+    parser.add_argument("--data-dir", default=os.path.join(
+        os.path.expanduser("~"), ".cache", "kagglehub", "datasets", "kaka2434",
+        "wiflow-dataset", "versions", "1", "preprocessed_csi_data"),
+        help="Directory containing csi_windows.npy (PRISTINE copy)")
+    parser.add_argument("--out-dir", default=RESULTS,
+                        help="Where to write the two .npy masks")
+    parser.add_argument("--chunk", type=int, default=4000,
+                        help="Windows per scan chunk (memory/speed tradeoff)")
+    args = parser.parse_args()
+
+    csi_path = os.path.join(args.data_dir, "csi_windows.npy")
+    if not os.path.exists(csi_path):
+        sys.exit(f"csi_windows.npy not found in {args.data_dir}")
+
+    print(f"scanning {csi_path} (chunk={args.chunk}) ...")
+    nan_mask, big_mask = scan(csi_path, args.chunk)
+    union = nan_mask | big_mask
+    print(f"nan: {int(nan_mask.sum()):,} | big: {int(big_mask.sum()):,} | "
+          f"union: {int(union.sum()):,} of {len(union):,} windows")
+
+    # ---- sanity check: an all-False result means a CLEANED copy ------------
+    if not union.any():
+        sys.exit(
+            "ERROR: scan found ZERO corrupted windows.\n"
+            "\n"
+            "The pristine Kaggle download (kaka2434/wiflow-dataset v1) is "
+            "known to contain\n"
+            "9,072 corrupted windows (NaN/Inf + amplitudes up to 3.4e38) in "
+            "dataset files\n"
+            "487-499 (RESULTS.md, reproducibility defect 5). Finding none "
+            "means this copy\n"
+            "has almost certainly already been repaired by remote/clean_v2.py "
+            "(or clean_nan.py),\n"
+            "which zeroes the corrupted windows IN PLACE -- after that the "
+            "corruption evidence\n"
+            "is gone and the masks CANNOT be regenerated from this copy.\n"
+            "\n"
+            "Refusing to overwrite the committed ground-truth masks with "
+            "all-False ones.\n"
+            "Re-download the dataset (kagglehub.dataset_download("
+            "'kaka2434/wiflow-dataset'))\n"
+            "and point --data-dir at the fresh, uncleaned copy.")
+
+    files = describe_files(args.data_dir, union)
+    if files is not None:
+        print(f"marked windows span dataset files {files.min()}-{files.max()}: "
+              f"{files.tolist()}")
+        lo, hi = EXPECTED["files"]
+        if files.min() != lo or files.max() != hi:
+            print(f"WARNING: expected marked files exactly {lo}-{hi} "
+                  f"(the pristine v1 download); got {files.min()}-{files.max()}. "
+                  f"Different dataset version, or a partially cleaned copy?")
+    for name, mask, exp in (("nan", nan_mask, EXPECTED["nan"]),
+                            ("big", big_mask, EXPECTED["big"])):
+        if int(mask.sum()) != exp:
+            print(f"WARNING: {name} mask has {int(mask.sum()):,} True windows; "
+                  f"the pristine v1 download yields {exp:,}.")
+
+    os.makedirs(args.out_dir, exist_ok=True)
+    for name, mask in (("nan_windows_mask.npy", nan_mask),
+                       ("big_windows_mask.npy", big_mask)):
+        out = os.path.join(args.out_dir, name)
+        np.save(out, mask)
+        print(f"wrote {out} ({int(mask.sum()):,} True)")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/onnx_bench.py

@@ -0,0 +1,220 @@
+"""ADR-152 edge optimization: ONNX export + onnxruntime CPU benchmark for the
+retrained WiFlow-STD checkpoint.
+
+- Exports fp32 to ONNX. The axial attention reshapes with python ints taken
+  from tensor.size() (view(N*W, C, H)), so a traced graph bakes the batch
+  size; we first try a dynamic-batch export and verify it actually works at
+  batch sizes 1/2/64 -- if not, we fall back to fixed-batch exports.
+- Verifies output parity vs torch on the stored fixture
+  (results/parity_fixture.npz, batch 2, seed 42): max abs diff < 1e-4.
+- Measures onnxruntime CPU latency at batch 1 and 64 (median of N runs).
+- Supplementary: onnxruntime dynamic int8 quantization of the exported model
+  (weight size datapoint for the paper's "~2.2 MB int8" claim).
+
+Usage:
+  .venv/Scripts/python.exe onnx_bench.py
+
+Writes/merges into results/edge_optimization.json under key "onnx".
+"""
+
+import json
+import os
+import platform
+import statistics
+import time
+import traceback
+
+import numpy as np
+import torch
+
+from _bench_common import RESULTS, import_upstream, load_wiflow_model
+
+import_upstream()  # sys.path + models stub + >1GB np.load mmap patch
+
+CHECKPOINT = os.path.join(RESULTS, "retrained_best_pose_model.pth")
+OUT_JSON = os.path.join(RESULTS, "edge_optimization.json")
+
+
+def load_fp32_model():
+    return load_wiflow_model(CHECKPOINT)
+
+
+def try_export(model, path, batch, dynamic, opset=17):
+    """Returns (ok, exporter_used, error)."""
+    x = torch.rand(batch, 540, 20)
+    attempts = []
+    if dynamic:
+        attempts.append(("dynamo", dict(dynamo=True,
+                                        dynamic_shapes={"x": {0: "batch"}})))
+        attempts.append(("torchscript", dict(dynamo=False,
+                                             dynamic_axes={"input": {0: "batch"},
+                                                           "output": {0: "batch"}})))
+    else:
+        attempts.append(("torchscript", dict(dynamo=False)))
+        attempts.append(("dynamo", dict(dynamo=True)))
+    last_err = None
+    for name, kw in attempts:
+        try:
+            with torch.no_grad():
+                torch.onnx.export(model, (x,), path, opset_version=opset,
+                                  input_names=["input"], output_names=["output"],
+                                  **kw)
+            return True, name, None
+        except Exception as e:  # noqa: BLE001
+            last_err = f"{name}: {type(e).__name__}: {e}"
+            traceback.print_exc()
+    return False, None, last_err
+
+
+def ort_session(path):
+    import onnxruntime as ort
+    return ort.InferenceSession(path, providers=["CPUExecutionProvider"])
+
+
+def ort_run(sess, x):
+    inp = sess.get_inputs()[0].name
+    return sess.run(None, {inp: x})[0]
+
+
+def bench_ort(sess, batch, n_runs):
+    rng = np.random.default_rng(123)
+    x = rng.random((batch, 540, 20), dtype=np.float32)
+    for _ in range(max(5, n_runs // 10)):
+        ort_run(sess, x)
+    times = []
+    for _ in range(n_runs):
+        t0 = time.perf_counter()
+        ort_run(sess, x)
+        times.append(time.perf_counter() - t0)
+    med = statistics.median(times)
+    return {
+        "batch_size": batch,
+        "runs": n_runs,
+        "median_ms_per_batch": med * 1e3,
+        "median_ms_per_window": med * 1e3 / batch,
+        "windows_per_second": batch / med,
+    }
+
+
+def main():
+    import argparse
+    parser = argparse.ArgumentParser(
+        description="ONNX export + onnxruntime CPU benchmark for the "
+                    "retrained WiFlow-STD checkpoint (no options; see "
+                    "module docstring). NB: the published "
+                    "retrained_fp32_dynamic.onnx came from the TorchScript "
+                    "exporter; on newer torch the dynamo attempt may succeed "
+                    "first and produce a different (external-data) artifact.")
+    parser.parse_args()
+
+    import onnxruntime
+    model = load_fp32_model()
+    results = {
+        "env": {
+            "torch": torch.__version__,
+            "onnxruntime": onnxruntime.__version__,
+            "platform": platform.platform(),
+        },
+    }
+
+    fixture = np.load(os.path.join(RESULTS, "parity_fixture.npz"))
+    fx, fy = fixture["input"], fixture["output"]  # (2,540,20) -> (2,15,2)
+
+    # ---- export: dynamic batch first, fall back to fixed --------------------
+    dyn_path = os.path.join(RESULTS, "retrained_fp32_dynamic.onnx")
+    ok, exporter, err = try_export(model, dyn_path, batch=2, dynamic=True)
+    dynamic_works = False
+    if ok:
+        # verify the dynamic graph really runs at other batch sizes
+        try:
+            sess = ort_session(dyn_path)
+            for b in (1, 2, 64):
+                y = ort_run(sess, np.zeros((b, 540, 20), dtype=np.float32))
+                assert y.shape == (b, 15, 2), y.shape
+            dynamic_works = True
+        except Exception as e:  # noqa: BLE001
+            print(f"dynamic-batch model does not generalize: {e}")
+
+    sessions = {}
+    if dynamic_works:
+        results["export"] = {"mode": "dynamic-batch", "exporter": exporter,
+                             "file": os.path.basename(dyn_path),
+                             "size_mb": os.path.getsize(dyn_path) / 1e6}
+        sess = ort_session(dyn_path)
+        sessions = {1: sess, 2: sess, 64: sess}
+        print(f"dynamic-batch export OK via {exporter}")
+    else:
+        results["export"] = {"mode": "fixed-batch", "fallback_reason": err,
+                             "files": {}}
+        for b in (1, 2, 64):
+            p = os.path.join(RESULTS, f"retrained_fp32_b{b}.onnx")
+            ok, exporter, err = try_export(model, p, batch=b, dynamic=False)
+            if not ok:
+                results["export"]["files"][str(b)] = {"error": err}
+                print(f"EXPORT FAILED at batch {b}: {err}")
+                continue
+            results["export"]["files"][str(b)] = {
+                "exporter": exporter, "file": os.path.basename(p),
+                "size_mb": os.path.getsize(p) / 1e6}
+            sessions[b] = ort_session(p)
+            print(f"fixed-batch {b} export OK via {exporter}")
+
+    # ---- parity vs torch on the fixture -------------------------------------
+    if 2 in sessions:
+        y_ort = ort_run(sessions[2], fx)
+        with torch.no_grad():
+            y_torch = model(torch.from_numpy(fx)).numpy()
+        results["parity"] = {
+            "fixture": "results/parity_fixture.npz (batch 2, seed 42)",
+            "max_abs_diff_vs_stored_fixture": float(np.abs(y_ort - fy).max()),
+            "max_abs_diff_vs_torch_now": float(np.abs(y_ort - y_torch).max()),
+            "pass_lt_1e-4": bool(np.abs(y_ort - y_torch).max() < 1e-4),
+        }
+        print("parity:", json.dumps(results["parity"], indent=2))
+
+    # ---- latency -------------------------------------------------------------
+    results["latency"] = {}
+    if 1 in sessions:
+        results["latency"]["batch1"] = bench_ort(sessions[1], 1, 100)
+        print(f"ORT batch 1:  {results['latency']['batch1']['median_ms_per_window']:.2f} ms/window")
+    if 64 in sessions:
+        results["latency"]["batch64"] = bench_ort(sessions[64], 64, 30)
+        print(f"ORT batch 64: {results['latency']['batch64']['median_ms_per_window']:.3f} ms/window")
+
+    # ---- supplementary: ORT dynamic int8 (size datapoint for the 2.2MB claim)
+    src = (dyn_path if dynamic_works
+           else os.path.join(RESULTS, "retrained_fp32_b1.onnx"))
+    if os.path.exists(src):
+        try:
+            from onnxruntime.quantization import QuantType, quantize_dynamic
+            q_path = os.path.join(RESULTS, "retrained_int8_ort_dynamic.onnx")
+            quantize_dynamic(src, q_path, weight_type=QuantType.QInt8)
+            entry = {"file": os.path.basename(q_path),
+                     "size_mb": os.path.getsize(q_path) / 1e6}
+            try:
+                qs = ort_session(q_path)
+                yq = ort_run(qs, fx[:1] if not dynamic_works else fx)
+                ref = fy[:1] if not dynamic_works else fy
+                entry["runs"] = True
+                entry["max_abs_diff_vs_fp32_fixture"] = float(np.abs(yq - ref).max())
+            except Exception as e:  # noqa: BLE001
+                entry["runs"] = False
+                entry["run_error"] = f"{type(e).__name__}: {e}"
+            results["ort_int8_dynamic_supplementary"] = entry
+            print("ORT int8:", json.dumps(entry, indent=2))
+        except Exception as e:  # noqa: BLE001
+            results["ort_int8_dynamic_supplementary"] = {
+                "error": f"{type(e).__name__}: {e}"}
+
+    merged = {}
+    if os.path.exists(OUT_JSON):
+        with open(OUT_JSON) as f:
+            merged = json.load(f)
+    merged["onnx"] = results
+    with open(OUT_JSON, "w") as f:
+        json.dump(merged, f, indent=2)
+    print(f"wrote {OUT_JSON}")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/quantize_bench.py

@@ -0,0 +1,228 @@
+"""ADR-152 "optimize beyond SOTA": edge-optimization benchmark for the
+retrained WiFlow-STD checkpoint (results/retrained_best_pose_model.pth,
+~96% PCK@20, fp32 params 2,225,042).
+
+Measures, for fp32 / fp16 / dynamic-int8 torch variants:
+  (a) serialized state_dict size on disk,
+  (b) CPU inference latency per window at batch 1 and batch 64
+      (median of repeated runs, this Windows box),
+  (c) accuracy (PCK@20/50 + MPJPE, upstream metrics) on a corruption-free
+      random subset of the seed-42 file-level 70/15/15 test split
+      (same split as eval_repro.py; corrupted windows 487-499 excluded via
+      results/nan_windows_mask.npy | results/big_windows_mask.npy).
+
+Also verifies the paper's "~2.2 MB int8" size claim: reports which layer
+types torch dynamic quantization actually converts (the model contains NO
+nn.Linear -- it is Conv1d/Conv2d/BatchNorm only) and the real on-disk size.
+
+Usage:
+  .venv/Scripts/python.exe quantize_bench.py \
+      --data-dir C:/Users/ruv/.cache/kagglehub/datasets/kaka2434/wiflow-dataset/versions/1/preprocessed_csi_data \
+      [--subset 10000] [--skip-accuracy]
+
+Writes/merges into results/edge_optimization.json under key "torch".
+"""
+
+import argparse
+import json
+import os
+import platform
+import statistics
+import time
+
+import numpy as np
+import torch
+import torch.nn as nn
+from torch.utils.data import DataLoader
+
+from _bench_common import HERE, RESULTS, evaluate, import_upstream, load_wiflow_model
+
+import_upstream()  # sys.path + models stub + >1GB np.load mmap patch
+
+from dataset import (  # noqa: E402
+    PreprocessedCSIKeypointsDataset,
+    create_preprocessed_train_val_test_loaders,
+)
+
+CHECKPOINT = os.path.join(RESULTS, "retrained_best_pose_model.pth")
+
+
+def load_fp32_model():
+    # legacy upstream key remap inside is a harmless no-op on this checkpoint
+    return load_wiflow_model(CHECKPOINT)
+
+
+def state_dict_size_bytes(model, path):
+    torch.save(model.state_dict(), path)
+    return os.path.getsize(path)
+
+
+def bench_latency(model, batch_size, n_runs, dtype=torch.float32):
+    gen = torch.Generator().manual_seed(123)
+    x = torch.rand(batch_size, 540, 20, generator=gen).to(dtype)
+    with torch.no_grad():
+        for _ in range(max(5, n_runs // 10)):  # warmup
+            model(x)
+        times = []
+        for _ in range(n_runs):
+            t0 = time.perf_counter()
+            model(x)
+            times.append(time.perf_counter() - t0)
+    med = statistics.median(times)
+    return {
+        "batch_size": batch_size,
+        "runs": n_runs,
+        "median_ms_per_batch": med * 1e3,
+        "median_ms_per_window": med * 1e3 / batch_size,
+        "windows_per_second": batch_size / med,
+    }
+
+
+def build_test_subset(data_dir, subset_size, batch_size=64):
+    """Seed-42 file-level 70/15/15 test split (exactly as eval_repro.py),
+    minus corrupted windows, then a seed-42 random subset."""
+    dataset = PreprocessedCSIKeypointsDataset(
+        data_dir=data_dir, keypoint_scale=1000.0, enable_temporal_clean=True)
+    _tr, _va, test_loader = create_preprocessed_train_val_test_loaders(
+        dataset=dataset, batch_size=batch_size, num_workers=0, random_seed=42)
+    test_indices = np.asarray(test_loader.dataset.indices)
+
+    corrupted = (np.load(os.path.join(RESULTS, "nan_windows_mask.npy"))
+                 | np.load(os.path.join(RESULTS, "big_windows_mask.npy")))
+    clean = test_indices[~corrupted[test_indices]]
+    print(f"test split: {len(test_indices)} windows, "
+          f"{len(test_indices) - len(clean)} corrupted excluded, "
+          f"{len(clean)} clean")
+
+    if subset_size and subset_size < len(clean):
+        rng = np.random.default_rng(42)
+        clean = np.sort(rng.choice(clean, size=subset_size, replace=False))
+    subset = torch.utils.data.Subset(dataset, clean.tolist())
+    loader = DataLoader(subset, batch_size=batch_size, shuffle=False,
+                        num_workers=0)
+    return loader, len(clean)
+
+
+def quantize_int8_dynamic(fp32_model):
+    """torch.ao.quantization.quantize_dynamic on Linear/Conv where supported.
+    Returns (model, report) where report documents what actually quantized."""
+    qmodel = torch.ao.quantization.quantize_dynamic(
+        fp32_model, {nn.Linear, nn.Conv1d, nn.Conv2d}, dtype=torch.qint8)
+
+    quantized, total_params, quant_params = [], 0, 0
+    for name, mod in qmodel.named_modules():
+        cls = type(mod).__module__ + "." + type(mod).__name__
+        if "quantized" in cls:
+            w = mod.weight() if callable(getattr(mod, "weight", None)) else None
+            numel = w.numel() if w is not None else 0
+            quant_params += numel
+            quantized.append({"module": name, "class": cls, "params": numel})
+    for p in fp32_model.parameters():
+        total_params += p.numel()
+
+    n_linear = sum(isinstance(m, nn.Linear) for m in fp32_model.modules())
+    n_conv1d = sum(isinstance(m, nn.Conv1d) for m in fp32_model.modules())
+    n_conv2d = sum(isinstance(m, nn.Conv2d) for m in fp32_model.modules())
+    report = {
+        "eligible_module_counts": {
+            "nn.Linear": n_linear, "nn.Conv1d": n_conv1d, "nn.Conv2d": n_conv2d},
+        "modules_actually_quantized": quantized,
+        "n_modules_quantized": len(quantized),
+        "params_total": total_params,
+        "params_quantized": quant_params,
+        "params_quantized_fraction": quant_params / total_params,
+    }
+    return qmodel, report
+
+
+def main():
+    parser = argparse.ArgumentParser()
+    parser.add_argument("--data-dir", default=os.path.join(
+        os.path.expanduser("~"), ".cache", "kagglehub", "datasets", "kaka2434",
+        "wiflow-dataset", "versions", "1", "preprocessed_csi_data"))
+    parser.add_argument("--subset", type=int, default=10000)
+    parser.add_argument("--runs-b1", type=int, default=100)
+    parser.add_argument("--runs-b64", type=int, default=30)
+    parser.add_argument("--skip-accuracy", action="store_true")
+    parser.add_argument("--out", default=os.path.join(RESULTS, "edge_optimization.json"))
+    args = parser.parse_args()
+
+    torch.manual_seed(42)
+    results = {
+        "env": {
+            "torch": torch.__version__,
+            "platform": platform.platform(),
+            "processor": platform.processor(),
+            "num_threads": torch.get_num_threads(),
+            "checkpoint": os.path.relpath(CHECKPOINT, HERE),
+        },
+        "variants": {},
+    }
+
+    # ---- build variants ---------------------------------------------------
+    fp32 = load_fp32_model()
+    n_params = sum(p.numel() for p in fp32.parameters())
+    results["env"]["params"] = n_params
+    print(f"fp32 model: {n_params:,} params")
+
+    fp16 = load_fp32_model().half()
+
+    int8, q_report = quantize_int8_dynamic(load_fp32_model())
+    results["int8_dynamic_quant_report"] = q_report
+    print(f"int8 dynamic: {q_report['n_modules_quantized']} modules quantized, "
+          f"{q_report['params_quantized_fraction']*100:.1f}% of params")
+
+    variants = {
+        "fp32": (fp32, torch.float32, "retrained_fp32_resaved.pth"),
+        "fp16": (fp16, torch.float16, "retrained_fp16.pth"),
+        "int8_dynamic": (int8, torch.float32, "retrained_int8_dynamic.pth"),
+    }
+
+    # ---- (a) size + (b) latency -------------------------------------------
+    for name, (model, dtype, fname) in variants.items():
+        path = os.path.join(RESULTS, fname)
+        size = state_dict_size_bytes(model, path)
+        print(f"\n=== {name}: {size/1e6:.3f} MB on disk ({fname}) ===")
+        lat1 = bench_latency(model, 1, args.runs_b1, dtype)
+        lat64 = bench_latency(model, 64, args.runs_b64, dtype)
+        print(f"  batch 1:  {lat1['median_ms_per_window']:.2f} ms/window "
+              f"({lat1['windows_per_second']:.0f}/s)")
+        print(f"  batch 64: {lat64['median_ms_per_window']:.3f} ms/window "
+              f"({lat64['windows_per_second']:.0f}/s)")
+        results["variants"][name] = {
+            "file": fname,
+            "size_bytes": size,
+            "size_mb": size / 1e6,
+            "latency_batch1": lat1,
+            "latency_batch64": lat64,
+        }
+
+    # ---- (c) accuracy ------------------------------------------------------
+    if not args.skip_accuracy:
+        loader, n_clean = build_test_subset(args.data_dir, args.subset)
+        results["accuracy_subset"] = {
+            "description": "seed-42 file-level 70/15/15 test split, corrupted "
+                           "windows (files 487-499) excluded, seed-42 random "
+                           "subset",
+            "subset_size": min(args.subset, n_clean) if args.subset else n_clean,
+            "clean_test_total": n_clean,
+        }
+        for name, (model, dtype, _f) in variants.items():
+            print(f"\n=== accuracy: {name} ===")
+            results["variants"][name]["accuracy"] = evaluate(
+                model, loader, dtype=dtype, label=name)
+            print(json.dumps(results["variants"][name]["accuracy"], indent=2))
+
+    # ---- merge into edge_optimization.json ---------------------------------
+    merged = {}
+    if os.path.exists(args.out):
+        with open(args.out) as f:
+            merged = json.load(f)
+    merged["torch"] = results
+    with open(args.out, "w") as f:
+        json.dump(merged, f, indent=2)
+    print(f"\nwrote {args.out}")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/remote/clean_v2.py

@@ -0,0 +1,14 @@
+import numpy as np, os
+d = os.path.expanduser('~/wiflow-std-bench/preprocessed_csi_data')
+csi = np.load(os.path.join(d, 'csi_windows.npy'), mmap_mode='r+')
+zeroed = 0
+chunk = 4000
+for i in range(0, len(csi), chunk):
+    block = csi[i:i+chunk]
+    finite = np.isfinite(block)
+    bad = (~finite).any(axis=(1, 2)) | (np.abs(np.where(finite, block, 0)).max(axis=(1, 2)) > 1.5)
+    if bad.any():
+        block[bad] = 0.0
+        zeroed += int(bad.sum())
+csi.flush()
+print(f'zeroed {zeroed} corrupted windows entirely')

benchmarks/wiflow-std/remote/eval_retrained.py

@@ -0,0 +1,112 @@
+"""Evaluate the retrained WiFlow-STD checkpoint (ADR-152 §2.2a fallback).
+
+Scores the model produced by run.py (train_output/best_pose_model.pth or similar)
+on the seed-42 test split: full test set AND NaN-free subset (excluding windows
+that were zero-filled by clean_nan.py — file indices 487-499).
+
+NOTE: deployed to ruvultra (~/wiflow-std-bench) as a standalone single file,
+so it deliberately inlines its helpers. The reference implementations (upstream
+import shim, >1GB np.load mmap patch, key-remap loader, canonical evaluate
+loop) live in benchmarks/wiflow-std/_bench_common.py — keep copies in sync.
+"""
+import json, os, random, sys
+
+import numpy as np
+import torch
+from torch.utils.data import DataLoader, Subset
+
+# csi_windows.npy is ~13 GB; mmap large arrays instead of eagerly loading
+# ~15 GB into RAM (same patch as _bench_common._np_load_mmap).
+_np_load = np.load
+
+
+def _np_load_mmap(path, *a, **kw):
+    if (isinstance(path, str) and path.endswith('.npy')
+            and os.path.getsize(path) > 1 << 30 and 'mmap_mode' not in kw):
+        kw['mmap_mode'] = 'r'
+    return _np_load(path, *a, **kw)
+
+
+np.load = _np_load_mmap
+
+sys.path.insert(0, os.path.expanduser('~/wiflow-std-bench/upstream'))
+from dataset import PreprocessedCSIKeypointsDataset, create_preprocessed_train_val_test_loaders
+from models.pose_model import WiFlowPoseModel
+from utils.metrics import calculate_pck, calculate_mpjpe
+
+
+def find_checkpoint():
+    cands = []
+    for root, _, files in os.walk(os.path.expanduser('~/wiflow-std-bench/train_output')):
+        for f in files:
+            if f.endswith('.pth'):
+                cands.append(os.path.join(root, f))
+    # also upstream/test default output dir
+    for root, _, files in os.walk(os.path.expanduser('~/wiflow-std-bench/upstream')):
+        for f in files:
+            if f.endswith('.pth') and 'best' in f and 'cross_dataset' not in root:
+                p = os.path.join(root, f)
+                if os.path.getmtime(p) > os.path.getmtime(os.path.expanduser('~/wiflow-std-bench/train.log')) - 86400 * 2:
+                    cands.append(p)
+    cands = [c for c in cands if not c.endswith('upstream/best_pose_model.pth')]
+    if not cands:
+        sys.exit('no retrained checkpoint found')
+    return max(cands, key=os.path.getmtime)
+
+
+def evaluate(model, loader, device):
+    model.eval()
+    totals = {t: 0.0 for t in (0.1, 0.2, 0.3, 0.4, 0.5)}
+    total_mpe, n = 0.0, 0
+    with torch.no_grad():
+        for bx, by in loader:
+            bx, by = bx.to(device), by.to(device)
+            out = model(bx)
+            bs = by.size(0)
+            total_mpe += calculate_mpjpe(out, by) * bs
+            pck = calculate_pck(out, by, thresholds=list(totals))
+            for t in totals:
+                totals[t] += pck[t] * bs
+            n += bs
+    return {'samples': n, 'mpjpe': total_mpe / n,
+            **{f'pck@{int(t*100)}': totals[t] / n for t in totals}}
+
+
+random.seed(42); np.random.seed(42); torch.manual_seed(42)
+torch.cuda.manual_seed_all(42)
+torch.backends.cudnn.deterministic = True
+
+d = os.path.expanduser('~/wiflow-std-bench/preprocessed_csi_data')
+dataset = PreprocessedCSIKeypointsDataset(data_dir=d, keypoint_scale=1000.0,
+                                          enable_temporal_clean=True)
+_, _, test_loader = create_preprocessed_train_val_test_loaders(
+    dataset=dataset, batch_size=256, num_workers=2, random_seed=42)
+
+device = torch.device('cuda')
+ckpt = find_checkpoint()
+print('checkpoint:', ckpt)
+model = WiFlowPoseModel(dropout=0.5).to(device)
+state = torch.load(ckpt, map_location=device, weights_only=True)
+renames = {'att.': 'attention.', 'final_conv.': 'decoder.'}
+state = {next((new + k[len(old):] for old, new in renames.items()
+               if k.startswith(old)), k): v for k, v in state.items()}
+model.load_state_dict(state, strict=True)
+
+results = {'checkpoint': ckpt}
+print('=== full test set ===')
+results['test_full'] = evaluate(model, test_loader, device)
+print(json.dumps(results['test_full'], indent=2))
+
+# NaN-free subset: exclude windows from corrupted files 487-499
+test_subset = test_loader.dataset            # Subset(dataset, test_indices)
+w2f = dataset.window_to_file
+clean_idx = [i for i in test_subset.indices if w2f[i] < 487]
+print(f'=== NaN-free test subset ({len(clean_idx)} of {len(test_subset.indices)}) ===')
+clean_loader = DataLoader(Subset(dataset, clean_idx), batch_size=256, shuffle=False)
+results['test_clean'] = evaluate(model, clean_loader, device)
+print(json.dumps(results['test_clean'], indent=2))
+
+out = os.path.expanduser('~/wiflow-std-bench/eval_retrained.json')
+with open(out, 'w') as f:
+    json.dump(results, f, indent=2)
+print('wrote', out)

benchmarks/wiflow-std/remote/measb/train_measb.py

@@ -0,0 +1,374 @@
+"""ADR-152 SS2.2 measurement (b): WiFlow-STD fine-tuned on our fresh ESP32 paired dataset.
+
+Dataset: ~/wiflow-std-bench/paired-20260610.jsonl -- 2,046 paired windows collected
+2026-06-10 22:10-22:40 (ONE subject, ONE room, ONE ESP32 node, varied poses).
+Per record: csi = flat float32 list, csi_shape, kp = 17 COCO [x, y] normalized [0,1]
+camera coords, conf (MediaPipe mean confidence, all > 0.5 in this set), ts_start/ts_end.
+Aligner: scripts/align-ground-truth.js, non-overlapping 20-frame windows (~0.42 s each).
+
+Dataset findings (MEASURED on this file, 2026-06-10):
+  - csi_shape is HETEROGENEOUS, not uniformly [70, 20]: 1,347x [70,20], 284x [134,20],
+    243x [26,20], 130x [12,20], 42x [20,20]. The ESP32 stream emits mixed frame types
+    and the aligner stamps each window's subcarrier count from frame[0]
+    (extractCsiMatrix: nSc = window[0].subcarriers), zero-padding/truncating the rest.
+    Even native-70 windows contain ~20.4% internally zero-padded short frames
+    (subcarriers 40..69 all-zero for those frames).
+  - LAYOUT BUG: the aligner fills matrix[f * nSc + s] (frame-major) but declares
+    shape [nSc, nFrames]. The true layout is (frame, subcarrier); we reshape
+    (nFrames, nSc) and transpose. Confirmed by coherent per-frame zero-tails.
+  - Handling here (primary suite, "all2046"): every frame's subcarrier axis is
+    linearly resampled to 70 bins (np.interp over a normalized index domain;
+    identity for native-70 frames) so the pre-registered n=2,046 and split sizes
+    hold. Secondary suite ("native70") restricts to the 1,347 native [70,20]
+    windows (temporal 70/15/15 of those) as a homogeneity robustness check.
+
+Pre-registered protocol (followed exactly):
+  1. TEMPORAL split (records are time-sorted; asserted): first 70% train (1,432),
+     next 15% val (307), last 15% test (307). No shuffling across time. Seed 42
+     for everything else.
+  2. Model: upstream WiFlow-STD trunk (WiFlowPoseModel) with a learned 1x1 Conv1d
+     projection 70->540 prepended, and K=17 via the parameter-free adaptive pool
+     (AdaptiveAvgPool2d((17, 1)) instead of (15, 1)) -- pretrained weights load
+     for any K. CSI normalization: divide by the TRAIN-split 99th-percentile
+     amplitude, clip to [0, 1] (documented in output JSON).
+  3. Three runs, <=60 epochs, early-stop patience 8 on val MPJPE, batch 32,
+     AdamW, fp32 (no autocast):
+       (i)   pretrained-init: trunk init from upstream/test/best_pose_model.pth
+             (the measurement-(a) retrained checkpoint, ~96% PCK@20 on WiFlow data;
+             key remap att.->attention. / final_conv.->decoder. applied defensively
+             as in eval_repro.py -- a no-op for this checkpoint, which already uses
+             the new names). Discriminative lr: adapter 1e-4, trunk 1e-5.
+       (ii)  scratch: same architecture, random init, all params lr 1e-4.
+       (iii) frozen-trunk: pretrained trunk frozen (requires_grad=False AND held in
+             .eval() so BatchNorm running stats cannot drift -- pure transfer probe);
+             only the 70->540 adapter trains, lr 1e-4.
+  4. Metrics on the temporal TEST split: torso-normalized PCK@10/20/30/40/50 and
+     MPJPE. Upstream utils/metrics.py calculate_pck(use_torso_norm=True) hardcodes
+     NECK_IDX/PELVIS_IDX = 2, 12 -- a 15-keypoint convention that is WRONG for our
+     17 COCO keypoints (2 = right_eye, 12 = right_hip). We therefore reimplement the
+     identical math (per-frame norm distance, clamp min 0.01, mean over all
+     keypoints x frames) with torso = ||l_shoulder(5) - l_hip(11)||.
+     Also reported: prediction std across test frames (constant-pose detector;
+     must be > 0) and the mean-pose-predictor baseline (train-split mean pose
+     evaluated on test -- the honesty bar).
+
+Usage (on ruvultra):
+  nice -n 10 nohup ~/wiflow-std-bench/venv/bin/python train_measb.py > train_measb.log 2>&1 &
+
+NOTE: deployed to ruvultra as a standalone single file, so it deliberately
+inlines its helpers. The reference implementations (upstream import shim,
+np.load mmap patch, key-remap loader, canonical evaluate loop) live in
+benchmarks/wiflow-std/_bench_common.py — keep copies in sync.
+"""
+
+import json
+import os
+import random
+import sys
+import time
+
+import numpy as np
+import torch
+import torch.nn as nn
+
+BENCH = os.path.expanduser("~/wiflow-std-bench")
+UPSTREAM = os.path.join(BENCH, "upstream")
+MEASB = os.path.join(BENCH, "measb")
+DATA = os.path.join(BENCH, "paired-20260610.jsonl")
+CHECKPOINT = os.path.join(UPSTREAM, "test", "best_pose_model.pth")
+
+sys.path.insert(0, UPSTREAM)
+
+# Upstream defect (1): models/__init__.py imports a name tcn.py does not define.
+# Register a stub package so the broken __init__ never executes (as eval_repro.py).
+import types  # noqa: E402
+
+_models_pkg = types.ModuleType("models")
+_models_pkg.__path__ = [os.path.join(UPSTREAM, "models")]
+sys.modules["models"] = _models_pkg
+
+from models.pose_model import WiFlowPoseModel  # noqa: E402
+
+SEED = 42
+K = 17
+N_SUBC = 70
+TRUNK_IN = 540
+BATCH = 32          # <= 64 per protocol (GPU shared with the efficiency sweep)
+MAX_EPOCHS = 60
+PATIENCE = 8
+LR_ADAPTER = 1e-4
+LR_TRUNK_FT = 1e-5  # 10x lower for the pretrained trunk vs the fresh adapter
+L_SHOULDER, L_HIP = 5, 11
+THRESHOLDS = (0.1, 0.2, 0.3, 0.4, 0.5)
+
+
+def set_seed(seed=SEED):
+    random.seed(seed)
+    np.random.seed(seed)
+    torch.manual_seed(seed)
+    if torch.cuda.is_available():
+        torch.cuda.manual_seed_all(seed)
+    torch.backends.cudnn.deterministic = True
+    torch.backends.cudnn.benchmark = False
+
+
+def resample_subcarriers(frame_major, n_out=N_SUBC):
+    """(nFrames, nSc) -> (nFrames, n_out) by per-frame linear interpolation.
+
+    Identity for nSc == n_out. Normalized index domain [0, 1] on both sides.
+    """
+    nf, nsc = frame_major.shape
+    if nsc == n_out:
+        return frame_major
+    xi = np.linspace(0.0, 1.0, nsc)
+    xo = np.linspace(0.0, 1.0, n_out)
+    return np.stack([np.interp(xo, xi, frame_major[f]) for f in range(nf)]).astype(np.float32)
+
+
+def load_dataset():
+    csi, kps, confs, ts, native70 = [], [], [], [], []
+    shape_counts = {}
+    with open(DATA) as f:
+        for line in f:
+            r = json.loads(line)
+            nsc, nf = r["csi_shape"]
+            shape_counts[f"{nsc}x{nf}"] = shape_counts.get(f"{nsc}x{nf}", 0) + 1
+            assert nf == 20, r["csi_shape"]
+            # Aligner layout bug: data is frame-major despite the declared
+            # [nSc, nFrames] shape -- reshape (nFrames, nSc), then resample the
+            # subcarrier axis to 70 and transpose to (70 subcarriers, 20 frames).
+            fm = np.asarray(r["csi"], dtype=np.float32).reshape(nf, nsc)
+            csi.append(resample_subcarriers(fm).T)
+            kp = np.asarray(r["kp"], dtype=np.float32)
+            assert kp.shape == (K, 2), kp.shape
+            kps.append(kp)
+            confs.append(r["conf"])
+            ts.append(r["ts_start"])
+            native70.append(nsc == N_SUBC)
+    assert all(ts[i] <= ts[i + 1] for i in range(len(ts) - 1)), "records not time-sorted"
+    return (np.stack(csi), np.stack(kps), np.asarray(confs, dtype=np.float32),
+            np.asarray(native70), shape_counts, ts[0], ts[-1])
+
+
+def temporal_split(n):
+    n_train = int(round(n * 0.70))
+    n_val = int(round(n * 0.15))
+    return slice(0, n_train), slice(n_train, n_train + n_val), slice(n_train + n_val, n)
+
+
+class AdaptedWiFlow(nn.Module):
+    """1x1 Conv1d adapter 70->540 + upstream WiFlow-STD trunk with K=17 pool head."""
+
+    def __init__(self, k=K, dropout=0.5):
+        super().__init__()
+        self.adapter = nn.Conv1d(N_SUBC, TRUNK_IN, kernel_size=1)
+        nn.init.kaiming_normal_(self.adapter.weight, mode="fan_out", nonlinearity="relu")
+        nn.init.constant_(self.adapter.bias, 0)
+        self.trunk = WiFlowPoseModel(dropout=dropout)
+        # K=17 via the parameter-free adaptive pool: decoder emits [B, 2, 15, 20]
+        # spatial maps; pooling H->17 instead of 15 yields [B, 17, 2] with no new
+        # parameters, so the pretrained state_dict loads strict=True for any K.
+        self.trunk.avg_pool = nn.AdaptiveAvgPool2d((k, 1))
+
+    def forward(self, x):
+        return self.trunk(self.adapter(x))
+
+
+def load_pretrained_trunk(trunk, path):
+    state = torch.load(path, map_location="cpu", weights_only=True)
+    # Defensive remap as in eval_repro.py (no-op for the retrained checkpoint).
+    renames = {"att.": "attention.", "final_conv.": "decoder."}
+    state = {next((new + k[len(old):] for old, new in renames.items()
+                   if k.startswith(old)), k): v
+             for k, v in state.items()}
+    trunk.load_state_dict(state, strict=True)
+
+
+def pck_torso(pred, target, thresholds=THRESHOLDS):
+    """Upstream calculate_pck math, torso = l_shoulder(5)<->l_hip(11) for 17-kp COCO."""
+    norm = torch.sqrt(((target[:, L_SHOULDER] - target[:, L_HIP]) ** 2).sum(dim=1))
+    norm = torch.clamp(norm, min=0.01)
+    dist = torch.sqrt(((pred - target) ** 2).sum(dim=2)) / norm.unsqueeze(1)
+    return {f"pck@{int(t * 100)}": (dist <= t).float().mean().item() for t in thresholds}
+
+
+def mpjpe(pred, target):
+    return torch.sqrt(((pred - target) ** 2).sum(dim=2)).mean().item()
+
+
+@torch.no_grad()
+def predict(model, x, batch=256):
+    model.eval()
+    return torch.cat([model(x[i:i + batch]) for i in range(0, len(x), batch)])
+
+
+def eval_preds(pred, target):
+    out = pck_torso(pred, target)
+    out["mpjpe"] = mpjpe(pred, target)
+    # Constant-pose detector: std across test frames per coordinate, mean over
+    # the 17x2 coordinates. 0.0 == degenerate constant predictor.
+    out["pred_std"] = pred.std(dim=0).mean().item()
+    return out
+
+
+def train_run(name, x_tr, y_tr, x_va, y_va, device, pretrained, freeze_trunk,
+              lr_trunk):
+    set_seed(SEED)
+    model = AdaptedWiFlow().to(device)
+    if pretrained:
+        load_pretrained_trunk(model.trunk, CHECKPOINT)
+    if freeze_trunk:
+        for p in model.trunk.parameters():
+            p.requires_grad = False
+        groups = [{"params": model.adapter.parameters(), "lr": LR_ADAPTER}]
+    else:
+        groups = [{"params": model.adapter.parameters(), "lr": LR_ADAPTER},
+                  {"params": model.trunk.parameters(), "lr": lr_trunk}]
+    opt = torch.optim.AdamW(groups)
+    loss_fn = nn.MSELoss()
+
+    n = len(x_tr)
+    best_val, best_state, best_epoch, bad = float("inf"), None, -1, 0
+    history = []
+    t0 = time.time()
+    for epoch in range(MAX_EPOCHS):
+        model.train()
+        if freeze_trunk:
+            model.trunk.eval()  # keep BatchNorm running stats fixed: pure transfer
+        perm = torch.randperm(n, device=device)
+        ep_loss = 0.0
+        for i in range(0, n, BATCH):
+            idx = perm[i:i + BATCH]
+            opt.zero_grad()
+            loss = loss_fn(model(x_tr[idx]), y_tr[idx])
+            loss.backward()
+            opt.step()
+            ep_loss += loss.item() * len(idx)
+        val_mpjpe = mpjpe(predict(model, x_va), y_va)
+        history.append({"epoch": epoch, "train_mse": ep_loss / n, "val_mpjpe": val_mpjpe})
+        marker = ""
+        if val_mpjpe < best_val:
+            best_val, best_epoch, bad = val_mpjpe, epoch, 0
+            best_state = {k: v.detach().cpu().clone() for k, v in model.state_dict().items()}
+            marker = " *"
+        else:
+            bad += 1
+        print(f"[{name}] epoch {epoch:02d} train_mse {ep_loss / n:.6f} "
+              f"val_mpjpe {val_mpjpe:.5f}{marker}", flush=True)
+        if bad >= PATIENCE:
+            print(f"[{name}] early stop at epoch {epoch} (best {best_epoch})", flush=True)
+            break
+    model.load_state_dict(best_state)
+    torch.save(best_state, os.path.join(MEASB, f"{name}_best.pth"))
+    return model, {"best_epoch": best_epoch, "best_val_mpjpe": best_val,
+                   "epochs_run": len(history), "wall_seconds": round(time.time() - t0, 1),
+                   "history": history}
+
+
+def run_suite(tag, csi, kps, device):
+    """Temporal 70/15/15 split, mean-pose baseline, three training runs."""
+    n = len(csi)
+    tr, va, te = temporal_split(n)
+    print(f"=== suite {tag}: n={n} train={tr.stop} val={va.stop - va.start} "
+          f"test={te.stop - te.start} ===", flush=True)
+
+    # CSI normalization constant from TRAIN split only.
+    train_p99 = float(np.percentile(csi[tr], 99))
+    train_max = float(csi[tr].max())
+    print(f"[{tag}] train p99={train_p99:.3f} max={train_max:.3f} -> /p99, clip [0,1]",
+          flush=True)
+    csi_n = np.clip(csi / train_p99, 0.0, 1.0).astype(np.float32)
+
+    x = torch.from_numpy(csi_n).to(device)
+    y = torch.from_numpy(kps).to(device)
+    x_tr, y_tr = x[tr], y[tr]
+    x_va, y_va = x[va], y[va]
+    x_te, y_te = x[te], y[te]
+
+    suite = {
+        "n_windows": n,
+        "split": {"n_train": int(tr.stop), "n_val": int(va.stop - va.start),
+                  "n_test": int(te.stop - te.start)},
+        "csi_norm": {"method": "divide by train-split p99 amplitude, clip [0,1]",
+                     "train_p99": train_p99, "train_max": train_max},
+        "runs": {},
+    }
+
+    # Honesty bar: mean-pose predictor fit on TRAIN, evaluated on TEST.
+    mean_pose = y_tr.mean(dim=0, keepdim=True).expand(len(y_te), -1, -1)
+    suite["mean_pose_baseline"] = eval_preds(mean_pose, y_te)
+    suite["mean_pose_baseline"]["note"] = "train-split mean pose; pred_std 0 by construction"
+    print(f"[{tag}] mean-pose baseline:", json.dumps(suite["mean_pose_baseline"]),
+          flush=True)
+
+    configs = [
+        ("pretrained", dict(pretrained=True, freeze_trunk=False, lr_trunk=LR_TRUNK_FT)),
+        ("scratch", dict(pretrained=False, freeze_trunk=False, lr_trunk=LR_ADAPTER)),
+        ("frozen_trunk", dict(pretrained=True, freeze_trunk=True, lr_trunk=0.0)),
+    ]
+    for name, cfg in configs:
+        print(f"=== run: {tag}/{name} {cfg} ===", flush=True)
+        model, train_info = train_run(f"{tag}_{name}", x_tr, y_tr, x_va, y_va,
+                                      device, **cfg)
+        test_metrics = eval_preds(predict(model, x_te), y_te)
+        n_trainable = sum(p.numel() for p in model.parameters() if p.requires_grad)
+        suite["runs"][name] = {"config": cfg, "trainable_params": n_trainable,
+                               "train": {k: v for k, v in train_info.items()
+                                         if k != "history"},
+                               "history": train_info["history"],
+                               "test": test_metrics}
+        print(f"[{tag}/{name}] TEST:", json.dumps(test_metrics), flush=True)
+    return suite
+
+
+def main():
+    device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
+    print(f"device {device}, torch {torch.__version__}", flush=True)
+    set_seed(SEED)
+
+    csi, kps, confs, native70, shape_counts, ts_first, ts_last = load_dataset()
+    print(f"shape distribution: {shape_counts}", flush=True)
+
+    results = {
+        "protocol": {
+            "dataset": DATA, "n_windows": len(csi),
+            "ts_first": ts_first, "ts_last": ts_last,
+            "conf_mean": float(confs.mean()), "conf_min": float(confs.min()),
+            "csi_shape_distribution": shape_counts,
+            "csi_layout_note": "aligner stores frame-major data under a transposed "
+                               "[nSc, nFrames] shape label; corrected on load",
+            "csi_resample": "per-frame linear interp of subcarrier axis to 70 bins "
+                            "(identity for native-70 frames); native-70 windows still "
+                            "contain ~20.4% internally zero-padded short frames",
+            "split": "temporal 70/15/15 (no shuffle across time)",
+            "model": "1x1 Conv1d 70->540 adapter + WiFlowPoseModel trunk, "
+                     "AdaptiveAvgPool2d((17,1)) head (parameter-free K=17)",
+            "checkpoint": CHECKPOINT,
+            "checkpoint_note": "measurement-(a) retrained checkpoint (~96% PCK@20 on "
+                               "WiFlow data); att./final_conv. remap applied "
+                               "defensively (no-op, already new-style keys)",
+            "optimizer": f"AdamW, adapter lr {LR_ADAPTER}, fine-tuned trunk lr "
+                         f"{LR_TRUNK_FT} (10x lower), scratch all {LR_ADAPTER}",
+            "batch": BATCH, "max_epochs": MAX_EPOCHS, "patience": PATIENCE,
+            "precision": "fp32", "seed": SEED,
+            "pck": "torso-normalized, torso = ||l_shoulder(5) - l_hip(11)||, "
+                   "clamp min 0.01, mean over keypoints x frames "
+                   "(upstream math; upstream 2/12 indices are a 15-kp convention)",
+        },
+        # Primary: all 2,046 windows (pre-registered n), subcarrier axis resampled.
+        "all2046": None,
+        # Secondary robustness check: the 1,347 native [70,20] windows only.
+        "native70": None,
+    }
+
+    results["all2046"] = run_suite("all2046", csi, kps, device)
+    results["native70"] = run_suite("native70", csi[native70], kps[native70], device)
+
+    out = os.path.join(MEASB, "measurement_b.json")
+    with open(out, "w") as f:
+        json.dump(results, f, indent=2)
+    print(f"wrote {out}", flush=True)
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/remote/setup_and_train.sh

@@ -0,0 +1,33 @@
+#!/bin/bash
+set -ex
+cd ~/wiflow-std-bench
+
+# 1. clone upstream at the pinned commit
+if [ ! -d upstream ]; then
+  git clone https://github.com/DY2434/WiFlow-WiFi-Pose-Estimation-with-Spatio-Temporal-Decoupling upstream
+fi
+cd upstream && git checkout 06899d294a0f44709d601a53e91dbf24759daefb && cd ..
+
+# 2. documented deviation: fix upstream import bug (TemporalConvNet does not exist)
+sed -i 's/from .tcn import TemporalConvNet/from .tcn import TemporalBlock/; s/'"'"'TemporalConvNet'"'"'/'"'"'TemporalBlock'"'"'/' upstream/models/__init__.py
+
+# 3. venv: torch cu128 (RTX 5080 = sm_120 needs >=2.7; their pin 2.3.1 predates Blackwell)
+if [ ! -d venv ]; then
+  python3 -m venv venv
+  ./venv/bin/pip install -q --upgrade pip
+  ./venv/bin/pip install -q torch --index-url https://download.pytorch.org/whl/cu128
+  ./venv/bin/pip install -q numpy pandas matplotlib seaborn scikit-learn opencv-python-headless scipy tqdm psutil kagglehub
+fi
+./venv/bin/python -c "import torch; print(torch.__version__, torch.cuda.is_available(), torch.cuda.get_device_name(0))"
+
+# 4. dataset via kagglehub (anonymous, public dataset)
+DS=$(./venv/bin/python -c "import kagglehub; print(kagglehub.dataset_download('kaka2434/wiflow-dataset'))")
+echo "dataset at: $DS"
+
+# 5. run.py hardcodes ../preprocessed_csi_data relative to upstream/
+ln -sfn "$DS/preprocessed_csi_data" ~/wiflow-std-bench/preprocessed_csi_data
+
+# 6. train with upstream defaults (seed 42 set inside run.py)
+../venv/bin/python ../clean_nan.py 2>/dev/null || venv/bin/python clean_nan.py
+cd upstream
+../venv/bin/python run.py --gpu 0 --batch_size 64 --epochs 50 --output_dir ../train_output

benchmarks/wiflow-std/remote/sweep/model_compact.py

@@ -0,0 +1,332 @@
+"""Configurable compact variants of the WiFlow-STD pose model (ADR-152 efficiency sweep).
+
+This is a parameterized copy of upstream models/{pose_model,tcn,convnet,attention}.py
+(DY2434/WiFlow @ 06899d29, Apache-2.0). upstream/ is NOT modified. Deviations from
+upstream, all forced by shrinking channels and documented per variant in run_sweep.py:
+
+1. TCN grouped-conv groups: upstream hardcodes groups=20, which does not divide
+   the compact channel counts (e.g. 270, 135, 85). Rule here:
+   - groups_mode='gcd20': per-conv groups = gcd(channels, 20)  (== 20 wherever
+     upstream's choice is valid, incl. the 540-ch input conv; falls back to the
+     largest common divisor with 20 otherwise).
+   - groups_mode='depthwise': groups = channels (tiny variant only).
+2. Conv2d downsampling strides: upstream uses 4 stride-(1,2) blocks because
+   240/2^4 = 15 == n_keypoints. With smaller TCN output widths that would leave
+   <15 rows and AdaptiveAvgPool2d((15,1)) would duplicate rows across keypoints.
+   Rule: halve the width only while the result stays >= 15 (stride-2 blocks
+   first, stride-1 after). Full model: 240 -> 4 halvings = upstream exactly.
+3. input_pw_groups (tiny only): the dense 540->c pointwise + residual downsample
+   in TCN block 1 cost 2*540*c params (a ~117k floor that alone exceeds the
+   tiny <100k budget). tiny groups these two convs (groups=4; 4 | gcd(540, 68)).
+4. Decoder mid-channels: upstream 64->32; here c_last -> max(c_last // 2, 4).
+"""
+import math
+
+import torch
+import torch.nn as nn
+import torch.nn.functional as F
+
+
+def tcn_groups(channels: int, mode: str) -> int:
+    if mode == 'depthwise':
+        return channels
+    if mode == 'gcd20':
+        return math.gcd(channels, 20)
+    raise ValueError(mode)
+
+
+# ---------------------------------------------------------------- TCN (copy of tcn.py)
+class Chomp1d(nn.Module):
+    def __init__(self, chomp_size):
+        super().__init__()
+        self.chomp_size = chomp_size
+
+    def forward(self, x):
+        return x[:, :, :-self.chomp_size].contiguous()
+
+
+class CompactGroupedTemporalBlock(nn.Module):
+    """Upstream InnerGroupedTemporalBlock with parameterized groups."""
+
+    def __init__(self, n_inputs, n_outputs, kernel_size, stride, dilation, padding,
+                 dropout=0.2, groups_mode='gcd20', pw_groups=1):
+        super().__init__()
+        g_in = tcn_groups(n_inputs, groups_mode)
+        g_out = tcn_groups(n_outputs, groups_mode)
+        self.groups = (g_in, g_out)
+        self.pw_groups = pw_groups
+
+        self.conv1_group = nn.Conv1d(n_inputs, n_inputs, kernel_size, stride=stride,
+                                     padding=padding, dilation=dilation,
+                                     groups=g_in, bias=False)
+        self.chomp1 = Chomp1d(padding) if padding > 0 else nn.Identity()
+        self.bn1_group = nn.BatchNorm1d(n_inputs)
+        self.relu1_group = nn.SiLU(inplace=True)
+
+        self.conv1_pw = nn.Conv1d(n_inputs, n_outputs, 1, groups=pw_groups, bias=False)
+        self.bn1_pw = nn.BatchNorm1d(n_outputs)
+        self.relu1_pw = nn.SiLU(inplace=True)
+        self.dropout1 = nn.Dropout(dropout)
+
+        self.conv2_group = nn.Conv1d(n_outputs, n_outputs, kernel_size, stride=1,
+                                     padding=padding, dilation=dilation,
+                                     groups=g_out, bias=False)
+        self.chomp2 = Chomp1d(padding) if padding > 0 else nn.Identity()
+        self.bn2_group = nn.BatchNorm1d(n_outputs)
+        self.relu2_group = nn.SiLU(inplace=True)
+
+        self.conv2_pw = nn.Conv1d(n_outputs, n_outputs, 1, bias=False)
+        self.bn2_pw = nn.BatchNorm1d(n_outputs)
+        self.relu2_pw = nn.SiLU(inplace=True)
+        self.dropout2 = nn.Dropout(dropout)
+
+        self.downsample = nn.Sequential(
+            nn.Conv1d(n_inputs, n_outputs, 1, groups=pw_groups, bias=False),
+            nn.BatchNorm1d(n_outputs)
+        ) if n_inputs != n_outputs else nn.Identity()
+
+    def forward(self, x):
+        res = self.downsample(x)
+        out = self.conv1_group(x)
+        out = self.chomp1(out)
+        out = self.bn1_group(out)
+        out = self.relu1_group(out)
+        out = self.conv1_pw(out)
+        out = self.bn1_pw(out)
+        out = self.relu1_pw(out)
+        out = self.dropout1(out)
+        out = self.conv2_group(out)
+        out = self.chomp2(out)
+        out = self.bn2_group(out)
+        out = self.relu2_group(out)
+        out = self.conv2_pw(out)
+        out = self.bn2_pw(out)
+        out = self.relu2_pw(out)
+        out = self.dropout2(out)
+        return F.silu(out + res)
+
+
+class CompactTemporalBlock(nn.Module):
+    def __init__(self, num_inputs, num_channels, kernel_size=3, dropout=0.2,
+                 groups_mode='gcd20', input_pw_groups=1):
+        super().__init__()
+        layers = []
+        for i, out_channels in enumerate(num_channels):
+            dilation_size = 2 ** i
+            in_channels = num_inputs if i == 0 else num_channels[i - 1]
+            layers.append(CompactGroupedTemporalBlock(
+                in_channels, out_channels, kernel_size, stride=1,
+                dilation=dilation_size, padding=(kernel_size - 1) * dilation_size,
+                dropout=dropout, groups_mode=groups_mode,
+                pw_groups=input_pw_groups if i == 0 else 1))
+        self.network = nn.Sequential(*layers)
+
+    def forward(self, x):
+        return self.network(x)
+
+
+# ------------------------------------------------------- Conv2d path (copy of convnet.py)
+class AsymmetricConvBlock(nn.Module):
+    """Upstream block with parameterized width stride (upstream: always (1,2))."""
+
+    def __init__(self, in_channels, out_channels, dropout=0.3, stride_w=2):
+        super().__init__()
+        self.block = nn.Sequential(
+            nn.Conv2d(in_channels, out_channels, kernel_size=(1, 3),
+                      stride=(1, stride_w), padding=(0, 1)),
+            nn.BatchNorm2d(out_channels),
+            nn.SiLU(inplace=True),
+            nn.Dropout2d(dropout),
+            nn.Conv2d(out_channels, out_channels, kernel_size=(1, 3), padding=(0, 1)),
+            nn.BatchNorm2d(out_channels),
+            nn.SiLU(inplace=True),
+            nn.Dropout2d(dropout),
+            nn.Conv2d(out_channels, out_channels, kernel_size=(1, 3), padding=(0, 1)),
+            nn.BatchNorm2d(out_channels)
+        )
+        self.downsample = nn.Sequential(
+            nn.Conv2d(in_channels, out_channels, kernel_size=1,
+                      stride=(1, stride_w), bias=False),
+            nn.BatchNorm2d(out_channels)
+        )
+        self.activation = nn.SiLU(inplace=True)
+
+    def forward(self, x):
+        return self.activation(self.block(x) + self.downsample(x))
+
+
+class ConvBlock1(nn.Module):
+    def __init__(self, in_channels, out_channels, dropout=0.3):
+        super().__init__()
+        self.block = nn.Sequential(
+            nn.Conv2d(in_channels, out_channels, kernel_size=(1, 3), padding=(0, 1)),
+            nn.BatchNorm2d(out_channels),
+            nn.SiLU(inplace=True),
+            nn.Dropout2d(dropout),
+            nn.Conv2d(out_channels, out_channels, kernel_size=(1, 3), padding=(0, 1)),
+            nn.BatchNorm2d(out_channels),
+            nn.SiLU(inplace=True),
+            nn.Dropout2d(dropout),
+            nn.Conv2d(out_channels, out_channels, kernel_size=(1, 3), padding=(0, 1)),
+            nn.BatchNorm2d(out_channels)
+        )
+        self.downsample = nn.Sequential(
+            nn.Conv2d(in_channels, out_channels, kernel_size=1, stride=1, bias=False),
+            nn.BatchNorm2d(out_channels)
+        )
+        self.activation = nn.SiLU(inplace=True)
+
+    def forward(self, x):
+        return self.activation(self.block(x) + self.downsample(x))
+
+
+# ----------------------------------------------------- attention (verbatim attention.py)
+class AxialAttention(nn.Module):
+    def __init__(self, in_planes, out_planes, groups=8, stride=1, bias=False, width=False):
+        assert (in_planes % groups == 0) and (out_planes % groups == 0)
+        super().__init__()
+        self.in_planes = in_planes
+        self.out_planes = out_planes
+        self.groups = groups
+        self.group_planes = out_planes // groups
+        self.stride = stride
+        self.bias = bias
+        self.width = width
+        self.qkv_transform = nn.Conv1d(in_planes, out_planes * 3, kernel_size=1,
+                                       stride=1, padding=0, bias=False)
+        self.bn_qkv = nn.BatchNorm1d(out_planes * 3)
+        self.bn_similarity = nn.BatchNorm2d(groups)
+        self.bn_output = nn.BatchNorm1d(out_planes)
+        if stride > 1:
+            self.pooling = nn.AvgPool2d(stride, stride=stride)
+        nn.init.normal_(self.qkv_transform.weight.data, 0, math.sqrt(1. / self.in_planes))
+
+    def forward(self, x):
+        if self.width:
+            x = x.permute(0, 2, 1, 3)
+        else:
+            x = x.permute(0, 3, 1, 2)
+        N, W, C, H = x.shape
+        x = x.contiguous().view(N * W, C, H)
+        qkv = self.bn_qkv(self.qkv_transform(x))
+        qkv = qkv.reshape(N * W, 3, self.out_planes, H).permute(1, 0, 2, 3)
+        q, k, v = qkv[0], qkv[1], qkv[2]
+        q = q.reshape(N * W, self.groups, self.group_planes, H)
+        k = k.reshape(N * W, self.groups, self.group_planes, H)
+        v = v.reshape(N * W, self.groups, self.group_planes, H)
+        qk = torch.einsum('bgci, bgcj->bgij', q, k)
+        qk = self.bn_similarity(qk)
+        similarity = F.softmax(qk, dim=-1)
+        sv = torch.einsum('bgij,bgcj->bgci', similarity, v)
+        sv = sv.reshape(N * W, self.out_planes, H)
+        out = self.bn_output(sv)
+        out = out.view(N, W, self.out_planes, H)
+        if self.width:
+            out = out.permute(0, 2, 1, 3)
+        else:
+            out = out.permute(0, 2, 3, 1)
+        if self.stride > 1:
+            out = self.pooling(out)
+        return out
+
+
+class DualAxialAttention(nn.Module):
+    def __init__(self, in_planes, out_planes, groups=8, stride=1, bias=False):
+        super().__init__()
+        self.width_axis = AxialAttention(in_planes, out_planes, groups, stride, bias, width=True)
+        self.height_axis = AxialAttention(out_planes, out_planes, groups, stride, bias, width=False)
+
+    def forward(self, x):
+        return self.height_axis(self.width_axis(x))
+
+
+# --------------------------------------------------------------- full model
+def compute_strides(width: int, n_blocks: int, target: int = 15):
+    """Halve width while result stays >= target (upstream: 240 -> 4 halvings -> 15)."""
+    strides = []
+    for _ in range(n_blocks):
+        nxt = (width + 1) // 2  # conv k=3 s=2 p=1: out = ceil(in/2)
+        if nxt >= target:
+            strides.append(2)
+            width = nxt
+        else:
+            strides.append(1)
+    return strides, width
+
+
+class CompactWiFlowPoseModel(nn.Module):
+    """Parameterized upstream WiFlowPoseModel.
+
+    Upstream config == tcn_channels=[540,440,340,240], conv_channels=[8,16,32,64],
+    attn_groups=8, groups_mode='gcd20' (gcd(c,20)==20 for all upstream channels),
+    input_pw_groups=1 -> identical architecture, 2,225,042 params.
+    """
+
+    def __init__(self, tcn_channels, conv_channels, attn_groups,
+                 groups_mode='gcd20', input_pw_groups=1, dropout=0.3,
+                 num_subcarriers=540, num_keypoints=15):
+        super().__init__()
+        self.tcn = CompactTemporalBlock(
+            num_inputs=num_subcarriers, num_channels=tcn_channels, kernel_size=3,
+            dropout=dropout, groups_mode=groups_mode, input_pw_groups=input_pw_groups)
+
+        self.up = ConvBlock1(1, conv_channels[0])
+
+        strides, self.final_width = compute_strides(
+            tcn_channels[-1], len(conv_channels), target=num_keypoints)
+        self.conv_strides = strides
+        self.residual_blocks = nn.ModuleList()
+        in_channels = conv_channels[0]
+        for out_channels, s in zip(conv_channels, strides):
+            self.residual_blocks.append(
+                AsymmetricConvBlock(in_channels, out_channels, stride_w=s))
+            in_channels = out_channels
+
+        c_last = conv_channels[-1]
+        self.attention = DualAxialAttention(c_last, c_last, groups=attn_groups)
+
+        c_mid = max(c_last // 2, 4)
+        self.decoder = nn.Sequential(
+            nn.Conv2d(c_last, c_mid, kernel_size=3, padding=1),
+            nn.BatchNorm2d(c_mid),
+            nn.SiLU(inplace=True),
+            nn.Conv2d(c_mid, 2, kernel_size=1),
+            nn.BatchNorm2d(2),
+            nn.SiLU(inplace=True)
+        )
+        self.avg_pool = nn.AdaptiveAvgPool2d((num_keypoints, 1))
+        self._initialize_weights()
+
+    def _initialize_weights(self):
+        for m in self.modules():
+            if isinstance(m, nn.Conv1d):
+                nn.init.kaiming_normal_(m.weight, mode='fan_out', nonlinearity='relu')
+                if m.bias is not None:
+                    nn.init.constant_(m.bias, 0)
+            elif isinstance(m, (nn.BatchNorm1d, nn.LayerNorm)):
+                nn.init.constant_(m.weight, 1)
+                nn.init.constant_(m.bias, 0)
+            elif isinstance(m, nn.Linear):
+                nn.init.xavier_normal_(m.weight)
+                if m.bias is not None:
+                    nn.init.constant_(m.bias, 0)
+
+    def forward(self, x):
+        # [B, 540, 20]
+        x = self.tcn(x)                          # [B, C_tcn, 20]
+        x = x.transpose(1, 2).unsqueeze(1)       # [B, 1, 20, C_tcn]
+        x = self.up(x)
+        for block in self.residual_blocks:
+            x = block(x)                         # [B, C_conv, 20, W']
+        x = x.permute(0, 1, 3, 2)                # [B, C_conv, W', 20]
+        x = self.attention(x)
+        x = self.decoder(x)                      # [B, 2, W', 20]
+        x = self.avg_pool(x).squeeze(-1)         # [B, 2, 15]
+        return x.transpose(1, 2)                 # [B, 15, 2]
+
+
+def describe(model: 'CompactWiFlowPoseModel'):
+    params = sum(p.numel() for p in model.parameters())
+    tcn_g = [blk.groups for blk in model.tcn.network]
+    return {'params': params, 'tcn_groups_per_block': tcn_g,
+            'conv_strides': model.conv_strides, 'final_width': model.final_width}

benchmarks/wiflow-std/remote/sweep/run_sweep.py

@@ -0,0 +1,278 @@
+"""WiFlow-STD compact-variant efficiency sweep (ADR-152) — sequential overnight runner.
+
+Trains compact variants of the upstream WiFlow-STD architecture on the same
+data/split as the full-size reference retraining (seed 42, file-level 70/15/15,
+upstream dataset.py) and evaluates PCK@10..50 + MPJPE on the full test split and
+the corruption-free test subset (file indices < 487).
+
+Training mirrors upstream run.py/train.py defaults except:
+- fp32 only (no fp16 autocast / GradScaler — avoids the BN-poisoning trap
+  documented in RESULTS.md defect 5; data on disk is already cleaned).
+- batch 64 (kept modest: another GPU job may share the 16 GB card tonight).
+- scheduler + early stopping keyed on val MPJPE (upstream early-stops on val MPE
+  with patience 5; same here).
+
+Usage:
+  venv/bin/python sweep/run_sweep.py --dry-run    # param counts only
+  nohup venv/bin/python sweep/run_sweep.py > sweep/sweep.log 2>&1 &
+
+Idempotent: variants already present in sweep/results.jsonl are skipped.
+
+NOTE: deployed to ruvultra (~/wiflow-std-bench/sweep) as a standalone file, so
+it deliberately inlines its helpers. The reference implementations (upstream
+import shim, >1GB np.load mmap patch, key-remap loader, canonical evaluate
+loop) live in benchmarks/wiflow-std/_bench_common.py — keep copies in sync.
+"""
+import argparse
+import copy
+import json
+import os
+import random
+import sys
+import time
+
+import numpy as np
+import torch
+from torch.utils.data import DataLoader, Subset
+
+# csi_windows.npy is ~13 GB; mmap large arrays instead of eagerly loading
+# ~15 GB into RAM (same patch as _bench_common._np_load_mmap).
+_np_load = np.load
+
+
+def _np_load_mmap(path, *a, **kw):
+    if (isinstance(path, str) and path.endswith('.npy')
+            and os.path.getsize(path) > 1 << 30 and 'mmap_mode' not in kw):
+        kw['mmap_mode'] = 'r'
+    return _np_load(path, *a, **kw)
+
+
+np.load = _np_load_mmap
+
+BENCH = os.path.expanduser('~/wiflow-std-bench')
+SWEEP = os.path.join(BENCH, 'sweep')
+sys.path.insert(0, os.path.join(BENCH, 'upstream'))
+sys.path.insert(0, SWEEP)
+
+from dataset import PreprocessedCSIKeypointsDataset, create_preprocessed_train_val_test_loaders  # noqa: E402
+from losses.pose_loss import PoseLoss          # noqa: E402
+from utils.metrics import calculate_pck, calculate_mpjpe  # noqa: E402
+from model_compact import CompactWiFlowPoseModel, describe  # noqa: E402
+
+VARIANTS = [
+    # name, tcn_channels, conv_channels, attn_groups, groups_mode, input_pw_groups
+    dict(name='half',    tcn=[270, 220, 170, 120], conv=[4, 8, 16, 32], attn_groups=4,
+         groups_mode='gcd20', input_pw_groups=1),
+    dict(name='quarter', tcn=[135, 110, 85, 60],   conv=[2, 4, 8, 16],  attn_groups=2,
+         groups_mode='gcd20', input_pw_groups=1),
+    dict(name='tiny',    tcn=[68, 56, 44, 32],     conv=[2, 4, 8, 16],  attn_groups=2,
+         groups_mode='depthwise', input_pw_groups=4),
+]
+
+BATCH = 64
+EPOCHS = 50
+PATIENCE = 5
+LR = 1e-4
+WEIGHT_DECAY = 5e-5
+SEED = 42
+CORRUPT_FILE_START = 487  # files 487-499 were zero-filled by clean_nan.py
+
+
+def set_seed(seed=SEED):
+    random.seed(seed)
+    np.random.seed(seed)
+    torch.manual_seed(seed)
+    torch.cuda.manual_seed_all(seed)
+    torch.backends.cudnn.deterministic = True
+    torch.backends.cudnn.benchmark = False
+
+
+def build_model(v, dropout=0.5):
+    return CompactWiFlowPoseModel(
+        tcn_channels=v['tcn'], conv_channels=v['conv'], attn_groups=v['attn_groups'],
+        groups_mode=v['groups_mode'], input_pw_groups=v['input_pw_groups'],
+        dropout=dropout)
+
+
+@torch.no_grad()
+def evaluate(model, loader, device):
+    model.eval()
+    totals = {t: 0.0 for t in (0.1, 0.2, 0.3, 0.4, 0.5)}
+    total_mpe, n = 0.0, 0
+    for bx, by in loader:
+        bx, by = bx.to(device), by.to(device)
+        out = model(bx)
+        bs = by.size(0)
+        total_mpe += calculate_mpjpe(out, by) * bs
+        pck = calculate_pck(out, by, thresholds=list(totals))
+        for t in totals:
+            totals[t] += pck[t] * bs
+        n += bs
+    return {'samples': n, 'mpjpe': total_mpe / n,
+            **{f'pck@{int(t * 100)}': totals[t] / n for t in totals}}
+
+
+def train_variant(v, dataset, device):
+    set_seed(SEED)
+    train_loader, val_loader, test_loader = create_preprocessed_train_val_test_loaders(
+        dataset=dataset, batch_size=BATCH, num_workers=2, random_seed=SEED)
+
+    set_seed(SEED)  # re-seed after split so init is split-independent
+    model = build_model(v).to(device)
+    info = describe(model)
+    print(f"[{v['name']}] params={info['params']:,} tcn_groups={info['tcn_groups_per_block']} "
+          f"conv_strides={info['conv_strides']} final_width={info['final_width']}", flush=True)
+
+    criterion = PoseLoss(position_weight=1.0, bone_weight=0.2, loss_type='smooth_l1')
+    optimizer = torch.optim.AdamW(model.parameters(), lr=LR, weight_decay=WEIGHT_DECAY,
+                                  betas=(0.9, 0.999))
+    scheduler = torch.optim.lr_scheduler.ReduceLROnPlateau(
+        optimizer, mode='min', factor=0.5, patience=3, min_lr=LR / 1000,
+        cooldown=1, threshold=1e-4)
+
+    best_val_mpe = float('inf')
+    best_val_pck20 = 0.0
+    best_epoch = 0
+    best_state = None
+    patience_counter = 0
+    t0 = time.time()
+    error = None
+    epochs_run = 0
+
+    for epoch in range(1, EPOCHS + 1):
+        model.train()
+        ep_loss, nb = 0.0, 0
+        te = time.time()
+        for i, (bx, by) in enumerate(train_loader):
+            bx = bx.to(device, non_blocking=True)
+            by = by.to(device, non_blocking=True)
+            optimizer.zero_grad(set_to_none=True)
+            out = model(bx)
+            loss, _parts = criterion(out, by)
+            if not torch.isfinite(loss):
+                error = f'non-finite loss at epoch {epoch} step {i}'
+                break
+            loss.backward()
+            optimizer.step()
+            ep_loss += loss.item()
+            nb += 1
+            if epoch == 1 and i % 500 == 0:
+                print(f"[{v['name']}] e1 step {i}/{len(train_loader)} loss={loss.item():.5f}",
+                      flush=True)
+        if error:
+            break
+        epochs_run = epoch
+
+        val = evaluate(model, val_loader, device)
+        scheduler.step(val['mpjpe'])
+        lr_now = optimizer.param_groups[0]['lr']
+        print(f"[{v['name']}] epoch {epoch}/{EPOCHS} train_loss={ep_loss / max(nb, 1):.5f} "
+              f"val_mpjpe={val['mpjpe']:.5f} val_pck20={val['pck@20'] * 100:.2f}% "
+              f"lr={lr_now:.2e} ({time.time() - te:.0f}s)", flush=True)
+
+        if val['mpjpe'] < best_val_mpe:
+            best_val_mpe = val['mpjpe']
+            best_val_pck20 = val['pck@20']
+            best_epoch = epoch
+            best_state = copy.deepcopy(model.state_dict())
+            patience_counter = 0
+        else:
+            patience_counter += 1
+            if patience_counter >= PATIENCE:
+                print(f"[{v['name']}] early stop at epoch {epoch} (best {best_epoch})", flush=True)
+                break
+
+    train_seconds = time.time() - t0
+    result = {
+        'variant': v['name'], 'params': info['params'],
+        'tcn_channels': v['tcn'], 'conv_channels': v['conv'],
+        'attn_groups': v['attn_groups'], 'groups_mode': v['groups_mode'],
+        'input_pw_groups': v['input_pw_groups'],
+        'tcn_groups_per_block': info['tcn_groups_per_block'],
+        'conv_strides': info['conv_strides'], 'final_width': info['final_width'],
+        'batch_size': BATCH, 'max_epochs': EPOCHS, 'patience': PATIENCE,
+        'lr': LR, 'weight_decay': WEIGHT_DECAY, 'seed': SEED, 'precision': 'fp32',
+        'epochs_run': epochs_run, 'best_epoch': best_epoch,
+        'best_val_mpjpe': best_val_mpe if best_state else None,
+        'best_val_pck20': best_val_pck20 if best_state else None,
+        'train_seconds': round(train_seconds, 1),
+        'torch': torch.__version__, 'error': error,
+        'finished_utc': time.strftime('%Y-%m-%dT%H:%M:%SZ', time.gmtime()),
+    }
+
+    if best_state is not None:
+        ckpt = os.path.join(SWEEP, f"{v['name']}_best.pth")
+        torch.save(best_state, ckpt)
+        result['checkpoint'] = ckpt
+        model.load_state_dict(best_state)
+
+        eval_loader = DataLoader(test_loader.dataset, batch_size=256, shuffle=False,
+                                 num_workers=2)
+        result['test_full'] = evaluate(model, eval_loader, device)
+
+        w2f = dataset.window_to_file
+        clean_idx = [i for i in test_loader.dataset.indices if w2f[i] < CORRUPT_FILE_START]
+        clean_loader = DataLoader(Subset(dataset, clean_idx), batch_size=256,
+                                  shuffle=False, num_workers=2)
+        result['test_clean'] = evaluate(model, clean_loader, device)
+        print(f"[{v['name']}] TEST clean: pck20={result['test_clean']['pck@20'] * 100:.2f}% "
+              f"mpjpe={result['test_clean']['mpjpe']:.5f} | full: "
+              f"pck20={result['test_full']['pck@20'] * 100:.2f}%", flush=True)
+    return result
+
+
+def main():
+    ap = argparse.ArgumentParser()
+    ap.add_argument('--dry-run', action='store_true', help='print param counts and exit')
+    args = ap.parse_args()
+
+    if args.dry_run:
+        for v in VARIANTS:
+            m = build_model(v)
+            info = describe(m)
+            x = torch.randn(2, 540, 20)
+            m.eval()
+            y = m(x)
+            print(f"{v['name']:8s} params={info['params']:>9,} "
+                  f"tcn={v['tcn']} conv={v['conv']} attn_g={v['attn_groups']} "
+                  f"mode={v['groups_mode']} pw_g={v['input_pw_groups']} "
+                  f"tcn_groups={info['tcn_groups_per_block']} strides={info['conv_strides']} "
+                  f"W'={info['final_width']} out={tuple(y.shape)}")
+        return
+
+    results_path = os.path.join(SWEEP, 'results.jsonl')
+    done = set()
+    if os.path.exists(results_path):
+        with open(results_path) as f:
+            for line in f:
+                try:
+                    done.add(json.loads(line)['variant'])
+                except Exception:
+                    pass
+
+    device = torch.device('cuda')
+    print(f"torch {torch.__version__} on {torch.cuda.get_device_name(0)}", flush=True)
+    data_dir = os.path.join(BENCH, 'preprocessed_csi_data')
+    dataset = PreprocessedCSIKeypointsDataset(data_dir=data_dir, keypoint_scale=1000.0,
+                                              enable_temporal_clean=True)
+
+    for v in VARIANTS:
+        if v['name'] in done:
+            print(f"[{v['name']}] already in results.jsonl — skipping", flush=True)
+            continue
+        print(f"\n===== variant: {v['name']} =====", flush=True)
+        try:
+            result = train_variant(v, dataset, device)
+        except Exception as e:  # record and move on to next variant
+            import traceback
+            traceback.print_exc()
+            result = {'variant': v['name'], 'error': repr(e),
+                      'finished_utc': time.strftime('%Y-%m-%dT%H:%M:%SZ', time.gmtime())}
+        with open(results_path, 'a') as f:
+            f.write(json.dumps(result) + '\n')
+            f.flush()
+    print('\nSWEEP COMPLETE', flush=True)
+
+
+if __name__ == '__main__':
+    main()

benchmarks/wiflow-std/results/edge_optimization.json

@@ -0,0 +1,772 @@
+{
+  "torch": {
+    "env": {
+      "torch": "2.12.0+cpu",
+      "platform": "Windows-11-10.0.26200-SP0",
+      "processor": "Intel64 Family 6 Model 197 Stepping 2, GenuineIntel",
+      "num_threads": 16,
+      "checkpoint": "results\\retrained_best_pose_model.pth",
+      "params": 2225042
+    },
+    "variants": {
+      "fp32": {
+        "file": "retrained_fp32_resaved.pth",
+        "size_bytes": 9068948,
+        "size_mb": 9.068948,
+        "latency_batch1": {
+          "batch_size": 1,
+          "runs": 100,
+          "median_ms_per_batch": 24.903650000851485,
+          "median_ms_per_window": 24.903650000851485,
+          "windows_per_second": 40.15475642991324
+        },
+        "latency_batch64": {
+          "batch_size": 64,
+          "runs": 30,
+          "median_ms_per_batch": 184.02919999789447,
+          "median_ms_per_window": 2.875456249967101,
+          "windows_per_second": 347.77089723115813
+        },
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9668200004577636,
+          "pck@50": 0.9915333324432373,
+          "mpjpe": 0.00936222033649683,
+          "wall_seconds": 37.85407733917236
+        }
+      },
+      "fp16": {
+        "file": "retrained_fp16.pth",
+        "size_bytes": 4580332,
+        "size_mb": 4.580332,
+        "latency_batch1": {
+          "batch_size": 1,
+          "runs": 100,
+          "median_ms_per_batch": 23.936699999467237,
+          "median_ms_per_window": 23.936699999467237,
+          "windows_per_second": 41.776853117691964
+        },
+        "latency_batch64": {
+          "batch_size": 64,
+          "runs": 30,
+          "median_ms_per_batch": 102.32584999903338,
+          "median_ms_per_window": 1.5988414062348966,
+          "windows_per_second": 625.4529036465817
+        },
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.966773332977295,
+          "pck@50": 0.9915066654205322,
+          "mpjpe": 0.009460017587244511,
+          "wall_seconds": 21.632277250289917
+        }
+      },
+      "int8_dynamic": {
+        "file": "retrained_int8_dynamic.pth",
+        "size_bytes": 9068948,
+        "size_mb": 9.068948,
+        "latency_batch1": {
+          "batch_size": 1,
+          "runs": 100,
+          "median_ms_per_batch": 18.105350000041653,
+          "median_ms_per_window": 18.105350000041653,
+          "windows_per_second": 55.23229321707117
+        },
+        "latency_batch64": {
+          "batch_size": 64,
+          "runs": 30,
+          "median_ms_per_batch": 168.77549999844632,
+          "median_ms_per_window": 2.6371171874757238,
+          "windows_per_second": 379.20195763359703
+        },
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9668200004577636,
+          "pck@50": 0.9915333324432373,
+          "mpjpe": 0.00936222033649683,
+          "wall_seconds": 45.35376596450806
+        }
+      }
+    },
+    "int8_dynamic_quant_report": {
+      "eligible_module_counts": {
+        "nn.Linear": 0,
+        "nn.Conv1d": 21,
+        "nn.Conv2d": 22
+      },
+      "modules_actually_quantized": [],
+      "n_modules_quantized": 0,
+      "params_total": 2225042,
+      "params_quantized": 0,
+      "params_quantized_fraction": 0.0
+    },
+    "accuracy_subset": {
+      "description": "seed-42 file-level 70/15/15 test split, corrupted windows (files 487-499) excluded, seed-42 random subset",
+      "subset_size": 10000,
+      "clean_test_total": 10000
+    }
+  },
+  "onnx": {
+    "env": {
+      "torch": "2.12.0+cpu",
+      "onnxruntime": "1.26.0",
+      "platform": "Windows-11-10.0.26200-SP0"
+    },
+    "export": {
+      "mode": "dynamic-batch",
+      "exporter": "torchscript",
+      "file": "retrained_fp32_dynamic.onnx",
+      "size_mb": 8.971781
+    },
+    "parity": {
+      "fixture": "results/parity_fixture.npz (batch 2, seed 42)",
+      "max_abs_diff_vs_stored_fixture": 2.384185791015625e-07,
+      "max_abs_diff_vs_torch_now": 2.384185791015625e-07,
+      "pass_lt_1e-4": true
+    },
+    "latency": {
+      "batch1": {
+        "batch_size": 1,
+        "runs": 100,
+        "median_ms_per_batch": 2.5410999987798277,
+        "median_ms_per_window": 2.5410999987798277,
+        "windows_per_second": 393.5303610563043
+      },
+      "batch64": {
+        "batch_size": 64,
+        "runs": 30,
+        "median_ms_per_batch": 181.95204999938142,
+        "median_ms_per_window": 2.8430007812403346,
+        "windows_per_second": 351.7410218803118
+      }
+    },
+    "ort_int8_dynamic_supplementary": {
+      "file": "retrained_int8_ort_dynamic.onnx",
+      "size_mb": 2.438794,
+      "runs": true,
+      "max_abs_diff_vs_fp32_fixture": 0.00827130675315857
+    }
+  },
+  "onnx_accuracy": {
+    "onnx_fp32": {
+      "samples": 10000,
+      "pck@20": 0.9668200004577636,
+      "pck@50": 0.9915333324432373,
+      "mpjpe": 0.00936222568154335,
+      "wall_seconds": 22.34790802001953
+    },
+    "onnx_int8_ort_dynamic": {
+      "samples": 10000,
+      "pck@20": 0.965240001964569,
+      "pck@50": 0.9915466655731201,
+      "mpjpe": 0.01108054072111845,
+      "wall_seconds": 55.742953062057495
+    }
+  },
+  "latency_controlled_rerun": {
+    "note": "3 interleaved repetitions per variant, median ms/window; quiet box",
+    "fp32": {
+      "batch1_ms_per_window_median": 10.969150001983508,
+      "batch1_reps": [
+        10.969150001983508,
+        12.646450000829645,
+        10.49820000116597
+      ],
+      "batch64_ms_per_window_median": 2.2734187500077496,
+      "batch64_reps": [
+        2.377234374989712,
+        2.124126562478068,
+        2.2734187500077496
+      ]
+    },
+    "fp16": {
+      "batch1_ms_per_window_median": 24.313550000442774,
+      "batch1_reps": [
+        25.1078499986761,
+        21.856999999727122,
+        24.313550000442774
+      ],
+      "batch64_ms_per_window_median": 2.414695312495496,
+      "batch64_reps": [
+        2.5705156249955508,
+        1.7137437499741281,
+        2.414695312495496
+      ]
+    },
+    "int8_dynamic": {
+      "batch1_ms_per_window_median": 15.627150000000256,
+      "batch1_reps": [
+        17.67525000104797,
+        14.627999998992891,
+        15.627150000000256
+      ],
+      "batch64_ms_per_window_median": 2.0546906250160646,
+      "batch64_reps": [
+        2.0546906250160646,
+        2.03407343752815,
+        2.9325796875241394
+      ]
+    },
+    "onnx_fp32": {
+      "batch1_ms_per_window_median": 3.186650001225644,
+      "batch1_reps": [
+        2.7332500012562377,
+        3.1995500012271805,
+        3.186650001225644
+      ],
+      "batch64_ms_per_window_median": 1.9893374999924163,
+      "batch64_reps": [
+        1.5590843750032946,
+        1.9893374999924163,
+        2.2144343749914697
+      ]
+    },
+    "onnx_int8_ort_dynamic": {
+      "batch1_ms_per_window_median": 6.50984999811044,
+      "batch1_reps": [
+        6.50984999811044,
+        6.455249998907675,
+        6.789299999581999
+      ],
+      "batch64_ms_per_window_median": 5.770093750015803,
+      "batch64_reps": [
+        5.770093750015803,
+        3.912374999970325,
+        7.8067296875019565
+      ]
+    }
+  },
+  "onnx_static_ptq": {
+    "env": {
+      "onnxruntime": "1.26.0",
+      "torch": "2.12.0+cpu",
+      "platform": "Windows-11-10.0.26200-SP0",
+      "source_model": "retrained_fp32_dynamic.onnx",
+      "preprocessed_model": {
+        "file": "retrained_fp32_preproc.onnx",
+        "size_mb": 8.981529
+      }
+    },
+    "variants": {
+      "minmax_all": {
+        "file": "retrained_int8_static_minmax_all.onnx",
+        "size_bytes": 2604286,
+        "size_mb": 2.604286,
+        "calibration": {
+          "method": "minmax",
+          "windows": 1000,
+          "percentile": null,
+          "seconds": 5.052440166473389
+        },
+        "scope": "all",
+        "per_channel": true,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {
+          "Add": 9,
+          "AveragePool": 1,
+          "BatchNormalization": 12,
+          "Concat": 10,
+          "Conv": 43,
+          "DequantizeLinear": 283,
+          "Einsum": 4,
+          "Gather": 16,
+          "Mul": 39,
+          "QuantizeLinear": 181,
+          "Reshape": 14,
+          "Shape": 2,
+          "Sigmoid": 37,
+          "Slice": 8,
+          "Softmax": 2,
+          "Squeeze": 1,
+          "Transpose": 7,
+          "Unsqueeze": 11
+        },
+        "max_abs_diff_vs_fp32_fixture": 0.015945255756378174,
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9545266661643982,
+          "pck@50": 0.9913666645050049,
+          "mpjpe": 0.014860070134699345,
+          "wall_seconds": 43.455235958099365
+        }
+      },
+      "minmax_conv": {
+        "file": "retrained_int8_static_minmax_conv.onnx",
+        "size_bytes": 2527421,
+        "size_mb": 2.527421,
+        "calibration": {
+          "method": "minmax",
+          "windows": 1000,
+          "percentile": null,
+          "seconds": 4.380746126174927
+        },
+        "scope": "conv",
+        "per_channel": true,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {
+          "Add": 9,
+          "AveragePool": 1,
+          "BatchNormalization": 12,
+          "Concat": 10,
+          "Conv": 43,
+          "DequantizeLinear": 156,
+          "Einsum": 4,
+          "Gather": 16,
+          "Mul": 39,
+          "QuantizeLinear": 78,
+          "Reshape": 14,
+          "Shape": 2,
+          "Sigmoid": 37,
+          "Slice": 8,
+          "Softmax": 2,
+          "Squeeze": 1,
+          "Transpose": 7,
+          "Unsqueeze": 11
+        },
+        "max_abs_diff_vs_fp32_fixture": 0.010693132877349854,
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9663399996757507,
+          "pck@50": 0.9918666641235352,
+          "mpjpe": 0.01084446222037077,
+          "wall_seconds": 35.937947034835815
+        }
+      },
+      "entropy_all": {
+        "file": "retrained_int8_static_entropy_all.onnx",
+        "size_bytes": 2604268,
+        "size_mb": 2.604268,
+        "calibration": {
+          "method": "entropy",
+          "windows": 512,
+          "percentile": null,
+          "seconds": 23.835066318511963
+        },
+        "scope": "all",
+        "per_channel": true,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {
+          "Add": 9,
+          "AveragePool": 1,
+          "BatchNormalization": 12,
+          "Concat": 10,
+          "Conv": 43,
+          "DequantizeLinear": 283,
+          "Einsum": 4,
+          "Gather": 16,
+          "Mul": 39,
+          "QuantizeLinear": 181,
+          "Reshape": 14,
+          "Shape": 2,
+          "Sigmoid": 37,
+          "Slice": 8,
+          "Softmax": 2,
+          "Squeeze": 1,
+          "Transpose": 7,
+          "Unsqueeze": 11
+        },
+        "max_abs_diff_vs_fp32_fixture": 0.015280365943908691,
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9530466662406921,
+          "pck@50": 0.9912600006103516,
+          "mpjpe": 0.015098519864678382,
+          "wall_seconds": 51.514281034469604
+        }
+      },
+      "entropy_conv": {
+        "file": "retrained_int8_static_entropy_conv.onnx",
+        "size_bytes": 2527403,
+        "size_mb": 2.527403,
+        "calibration": {
+          "method": "entropy",
+          "windows": 512,
+          "percentile": null,
+          "seconds": 9.634419918060303
+        },
+        "scope": "conv",
+        "per_channel": true,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {
+          "Add": 9,
+          "AveragePool": 1,
+          "BatchNormalization": 12,
+          "Concat": 10,
+          "Conv": 43,
+          "DequantizeLinear": 156,
+          "Einsum": 4,
+          "Gather": 16,
+          "Mul": 39,
+          "QuantizeLinear": 78,
+          "Reshape": 14,
+          "Shape": 2,
+          "Sigmoid": 37,
+          "Slice": 8,
+          "Softmax": 2,
+          "Squeeze": 1,
+          "Transpose": 7,
+          "Unsqueeze": 11
+        },
+        "max_abs_diff_vs_fp32_fixture": 0.012535125017166138,
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9659599989891052,
+          "pck@50": 0.9918666648864746,
+          "mpjpe": 0.010778637571632861,
+          "wall_seconds": 41.01180171966553
+        }
+      },
+      "percentile_all": {
+        "file": "retrained_int8_static_percentile_all.onnx",
+        "size_bytes": 2604052,
+        "size_mb": 2.604052,
+        "calibration": {
+          "method": "percentile",
+          "windows": 512,
+          "percentile": 99.99,
+          "seconds": 20.221954584121704
+        },
+        "scope": "all",
+        "per_channel": true,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {
+          "Add": 9,
+          "AveragePool": 1,
+          "BatchNormalization": 12,
+          "Concat": 10,
+          "Conv": 43,
+          "DequantizeLinear": 283,
+          "Einsum": 4,
+          "Gather": 16,
+          "Mul": 39,
+          "QuantizeLinear": 181,
+          "Reshape": 14,
+          "Shape": 2,
+          "Sigmoid": 37,
+          "Slice": 8,
+          "Softmax": 2,
+          "Squeeze": 1,
+          "Transpose": 7,
+          "Unsqueeze": 11
+        },
+        "max_abs_diff_vs_fp32_fixture": 0.017689883708953857,
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9639333323478698,
+          "pck@50": 0.9916799991607667,
+          "mpjpe": 0.012176512064039708,
+          "wall_seconds": 49.365190744400024
+        }
+      },
+      "percentile_conv": {
+        "file": "retrained_int8_static_percentile_conv.onnx",
+        "size_bytes": 2527241,
+        "size_mb": 2.527241,
+        "calibration": {
+          "method": "percentile",
+          "windows": 512,
+          "percentile": 99.99,
+          "seconds": 8.223475694656372
+        },
+        "scope": "conv",
+        "per_channel": true,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {
+          "Add": 9,
+          "AveragePool": 1,
+          "BatchNormalization": 12,
+          "Concat": 10,
+          "Conv": 43,
+          "DequantizeLinear": 156,
+          "Einsum": 4,
+          "Gather": 16,
+          "Mul": 39,
+          "QuantizeLinear": 78,
+          "Reshape": 14,
+          "Shape": 2,
+          "Sigmoid": 37,
+          "Slice": 8,
+          "Softmax": 2,
+          "Squeeze": 1,
+          "Transpose": 7,
+          "Unsqueeze": 11
+        },
+        "max_abs_diff_vs_fp32_fixture": 0.014725983142852783,
+        "accuracy": {
+          "samples": 10000,
+          "pck@20": 0.9660599988937378,
+          "pck@50": 0.9916066654205322,
+          "mpjpe": 0.010310938355326652,
+          "wall_seconds": 36.89548587799072
+        }
+      }
+    },
+    "latency": {
+      "note": "3 interleaved repetitions per variant, median ms/window; onnx_fp32 / onnx_int8_ort_dynamic are same-session references",
+      "onnx_fp32": {
+        "batch1_reps": [
+          4.5327999996516155,
+          2.535649999117595,
+          2.167549997466267
+        ],
+        "batch64_reps": [
+          1.9354515624740998,
+          2.4948054687854437,
+          1.9334703125082342
+        ],
+        "batch1_ms_per_window_median": 2.535649999117595,
+        "batch64_ms_per_window_median": 1.9354515624740998
+      },
+      "onnx_int8_ort_dynamic": {
+        "batch1_reps": [
+          5.698599999959697,
+          5.721350000385428,
+          4.805099997611251
+        ],
+        "batch64_reps": [
+          4.096601562508795,
+          4.857628124995017,
+          4.583800000006022
+        ],
+        "batch1_ms_per_window_median": 5.698599999959697,
+        "batch64_ms_per_window_median": 4.583800000006022
+      },
+      "entropy_all": {
+        "batch1_reps": [
+          6.444149999879301,
+          5.038299999796436,
+          5.713200000172947
+        ],
+        "batch64_reps": [
+          4.149468750028973,
+          3.437125000004926,
+          4.410960937491382
+        ],
+        "batch1_ms_per_window_median": 5.713200000172947,
+        "batch64_ms_per_window_median": 4.149468750028973
+      },
+      "entropy_conv": {
+        "batch1_reps": [
+          4.874750000453787,
+          5.169099998965976,
+          5.236699998931726
+        ],
+        "batch64_reps": [
+          3.010160156236452,
+          3.1175546875203963,
+          3.516850781238645
+        ],
+        "batch1_ms_per_window_median": 5.169099998965976,
+        "batch64_ms_per_window_median": 3.1175546875203963
+      },
+      "percentile_all": {
+        "batch1_reps": [
+          5.184749999898486,
+          5.2898499998264015,
+          5.916899999647285
+        ],
+        "batch64_reps": [
+          4.305105468745296,
+          4.460741406262514,
+          4.184502343747454
+        ],
+        "batch1_ms_per_window_median": 5.2898499998264015,
+        "batch64_ms_per_window_median": 4.305105468745296
+      },
+      "percentile_conv": {
+        "batch1_reps": [
+          4.916449999655015,
+          7.150899999032845,
+          5.284949998895172
+        ],
+        "batch64_reps": [
+          3.855813281262499,
+          4.688969531230214,
+          5.220103124997877
+        ],
+        "batch1_ms_per_window_median": 5.284949998895172,
+        "batch64_ms_per_window_median": 4.688969531230214
+      },
+      "minmax_all": {
+        "batch1_reps": [
+          6.463300000177696,
+          7.149449998905766,
+          5.3209000016067876
+        ],
+        "batch64_reps": [
+          3.9251343750095202,
+          4.033442187505898,
+          3.428199218745931
+        ],
+        "batch1_ms_per_window_median": 6.463300000177696,
+        "batch64_ms_per_window_median": 3.9251343750095202
+      },
+      "minmax_conv": {
+        "batch1_reps": [
+          5.9961499991914025,
+          5.236549999608542,
+          4.854399998293957
+        ],
+        "batch64_reps": [
+          4.368359375007458,
+          3.249617187492504,
+          3.0238906249735464
+        ],
+        "batch1_ms_per_window_median": 5.236549999608542,
+        "batch64_ms_per_window_median": 3.249617187492504
+      }
+    },
+    "accuracy_subset": {
+      "description": "seed-42 file-level 70/15/15 test split, corrupted windows excluded, seed-42 random subset (same as quantize_bench/eval_ort_accuracy)",
+      "subset_size": 10000
+    }
+  },
+  "tiny_variant": {
+    "env": {
+      "torch": "2.12.0+cpu",
+      "onnxruntime": "1.26.0",
+      "platform": "Windows-11-10.0.26200-SP0",
+      "num_threads": 16,
+      "checkpoint": "results\\tiny_best.pth",
+      "checkpoint_size_bytes": 340555,
+      "params": 56290,
+      "variant_config": {
+        "tcn": [
+          68,
+          56,
+          44,
+          32
+        ],
+        "conv": [
+          2,
+          4,
+          8,
+          16
+        ],
+        "attn_groups": 2,
+        "groups_mode": "depthwise",
+        "input_pw_groups": 4
+      }
+    },
+    "export": {
+      "mode": "dynamic-batch",
+      "exporter": "torchscript",
+      "opset": 17,
+      "file": "tiny_fp32_dynamic.onnx",
+      "size_bytes": 295279,
+      "size_mb": 0.295279,
+      "verified_batches": [
+        1,
+        2,
+        64
+      ],
+      "note": "AdaptiveAvgPool2d((15,1)) replaced at export by an exact mean(-1) + constant averaging matmul (final_width 16 is not a multiple of 15, which the TorchScript exporter rejects); exactness proven by the parity check vs the original torch model"
+    },
+    "parity": {
+      "fixture": "results/parity_fixture.npz input (batch 2, seed 42); reference output recomputed with the tiny torch model",
+      "max_abs_diff_vs_torch": 1.4901161193847656e-07,
+      "pass_lt_1e-4": true
+    },
+    "int8_static_percentile_conv": {
+      "file": "tiny_int8_static_percentile_conv.onnx",
+      "size_bytes": 248278,
+      "size_mb": 0.248278,
+      "calibration": {
+        "method": "percentile",
+        "percentile": 99.99,
+        "windows": 512,
+        "scope": "conv-only TRAIN-split corruption-free",
+        "seconds": 1.5347836017608643
+      },
+      "per_channel": true,
+      "activation_type": "QInt8",
+      "weight_type": "QInt8",
+      "max_abs_diff_vs_fp32_fixture": 0.018491357564926147
+    },
+    "latency": {
+      "note": "3 interleaved repetitions per variant, median ms/window; full-model sessions are same-session references",
+      "tiny_onnx_fp32": {
+        "batch1_reps": [
+          0.6312500008789357,
+          0.6834500018157996,
+          0.6595999984710943
+        ],
+        "batch64_reps": [
+          0.37747578119251557,
+          0.24196640623586063,
+          0.2314671875183194
+        ],
+        "batch1_ms_per_window_median": 0.6595999984710943,
+        "batch64_ms_per_window_median": 0.24196640623586063
+      },
+      "tiny_onnx_int8_static_percentile_conv": {
+        "batch1_reps": [
+          0.7988500001374632,
+          0.9382499993080273,
+          0.8451000030618161
+        ],
+        "batch64_reps": [
+          0.9211476562995813,
+          1.3045390625165965,
+          1.026230468767153
+        ],
+        "batch1_ms_per_window_median": 0.8451000030618161,
+        "batch64_ms_per_window_median": 1.026230468767153
+      },
+      "full_onnx_fp32_reference": {
+        "batch1_reps": [
+          2.267249998112675,
+          2.80170000041835,
+          2.132149998942623
+        ],
+        "batch64_reps": [
+          1.3050578124875756,
+          1.4244992187855132,
+          1.8014164062947202
+        ],
+        "batch1_ms_per_window_median": 2.267249998112675,
+        "batch64_ms_per_window_median": 1.4244992187855132
+      },
+      "full_onnx_int8_static_percentile_conv_reference": {
+        "batch1_reps": [
+          5.529599999135826,
+          4.768399998283712,
+          6.215800000063609
+        ],
+        "batch64_reps": [
+          3.815724218725336,
+          3.1025562500417436,
+          4.333318749957016
+        ],
+        "batch1_ms_per_window_median": 5.529599999135826,
+        "batch64_ms_per_window_median": 3.815724218725336
+      }
+    },
+    "accuracy_subset": {
+      "description": "seed-42 file-level 70/15/15 test split, corrupted windows excluded, seed-42 random subset (same as quantize_bench/eval_ort_accuracy/static_ptq_bench)",
+      "subset_size": 10000
+    },
+    "accuracy": {
+      "tiny_onnx_fp32": {
+        "samples": 10000,
+        "pck@20": 0.941106667804718,
+        "pck@50": 0.99369333152771,
+        "mpjpe": 0.012527281279861927,
+        "wall_seconds": 10.927234888076782
+      },
+      "tiny_onnx_int8_static_percentile_conv": {
+        "samples": 10000,
+        "pck@20": 0.9268133331298828,
+        "pck@50": 0.9932933319091797,
+        "mpjpe": 0.014906252065300942,
+        "wall_seconds": 12.320892333984375
+      }
+    }
+  }
+}

benchmarks/wiflow-std/results/efficiency_sweep.jsonl

@@ -0,0 +1,3 @@
+{"variant": "half", "params": 843834, "tcn_channels": [270, 220, 170, 120], "conv_channels": [4, 8, 16, 32], "attn_groups": 4, "groups_mode": "gcd20", "input_pw_groups": 1, "tcn_groups_per_block": [[20, 10], [10, 20], [20, 10], [10, 20]], "conv_strides": [2, 2, 2, 1], "final_width": 15, "batch_size": 64, "max_epochs": 50, "patience": 5, "lr": 0.0001, "weight_decay": 5e-05, "seed": 42, "precision": "fp32", "epochs_run": 28, "best_epoch": 23, "best_val_mpjpe": 0.008576328293592842, "best_val_pck20": 0.9690593021534107, "train_seconds": 1346.4, "torch": "2.11.0+cu128", "error": null, "finished_utc": "2026-06-11T03:09:47Z", "checkpoint": "/home/ruvultra/wiflow-std-bench/sweep/half_best.pth", "test_full": {"samples": 54000, "mpjpe": 0.009419974447676428, "pck@10": 0.8740543655289544, "pck@20": 0.9610469643628156, "pck@30": 0.9813556064146537, "pck@40": 0.9896086878246731, "pck@50": 0.9934827546013726}, "test_clean": {"samples": 52560, "mpjpe": 0.008980081718602137, "pck@10": 0.8840944136840205, "pck@20": 0.9662253179869514, "pck@30": 0.9847971080282144, "pck@40": 0.9917795997050618, "pck@50": 0.9946956242600532}}
+{"variant": "quarter", "params": 338600, "tcn_channels": [135, 110, 85, 60], "conv_channels": [2, 4, 8, 16], "attn_groups": 2, "groups_mode": "gcd20", "input_pw_groups": 1, "tcn_groups_per_block": [[20, 5], [5, 10], [10, 5], [5, 20]], "conv_strides": [2, 2, 1, 1], "final_width": 15, "batch_size": 64, "max_epochs": 50, "patience": 5, "lr": 0.0001, "weight_decay": 5e-05, "seed": 42, "precision": "fp32", "epochs_run": 50, "best_epoch": 50, "best_val_mpjpe": 0.008780752391864856, "best_val_pck20": 0.9672531302240159, "train_seconds": 1754.4, "torch": "2.11.0+cu128", "error": null, "finished_utc": "2026-06-11T03:39:06Z", "checkpoint": "/home/ruvultra/wiflow-std-bench/sweep/quarter_best.pth", "test_full": {"samples": 54000, "mpjpe": 0.009705399298005634, "pck@10": 0.8646123917014511, "pck@20": 0.9553815319449813, "pck@30": 0.979827209190086, "pck@40": 0.9887037501511751, "pck@50": 0.9931309027671814}, "test_clean": {"samples": 52560, "mpjpe": 0.009279253277105465, "pck@10": 0.8742288637923323, "pck@20": 0.9605315079427745, "pck@30": 0.9833016723076865, "pck@40": 0.9908206971631566, "pck@50": 0.9942719799017071}}
+{"variant": "tiny", "params": 56290, "tcn_channels": [68, 56, 44, 32], "conv_channels": [2, 4, 8, 16], "attn_groups": 2, "groups_mode": "depthwise", "input_pw_groups": 4, "tcn_groups_per_block": [[540, 68], [68, 56], [56, 44], [44, 32]], "conv_strides": [2, 1, 1, 1], "final_width": 16, "batch_size": 64, "max_epochs": 50, "patience": 5, "lr": 0.0001, "weight_decay": 5e-05, "seed": 42, "precision": "fp32", "epochs_run": 50, "best_epoch": 47, "best_val_mpjpe": 0.012602971208592256, "best_val_pck20": 0.9397210340146666, "train_seconds": 1540.1, "torch": "2.11.0+cu128", "error": null, "finished_utc": "2026-06-11T04:04:50Z", "checkpoint": "/home/ruvultra/wiflow-std-bench/sweep/tiny_best.pth", "test_full": {"samples": 54000, "mpjpe": 0.012859782406853305, "pck@10": 0.7640358444319831, "pck@20": 0.9364815320968628, "pck@30": 0.9731568422317505, "pck@40": 0.9866444962642811, "pck@50": 0.992488939108672}, "test_clean": {"samples": 52560, "mpjpe": 0.012502924276904246, "pck@10": 0.770895526488985, "pck@20": 0.9411073559313967, "pck@30": 0.9764840687790962, "pck@40": 0.9886695077067278, "pck@50": 0.9936238432039409}}

benchmarks/wiflow-std/results/eval_retrained.json

@@ -0,0 +1,21 @@
+{
+  "checkpoint": "/home/ruvultra/wiflow-std-bench/upstream/test/best_pose_model.pth",
+  "test_full": {
+    "samples": 54000,
+    "mpjpe": 0.009834060806367133,
+    "pck@10": 0.8686346120127925,
+    "pck@20": 0.9608815324571398,
+    "pck@30": 0.9789111610695168,
+    "pck@40": 0.9857975759682832,
+    "pck@50": 0.9898827553325229
+  },
+  "test_clean": {
+    "samples": 52560,
+    "mpjpe": 0.009432755044379373,
+    "pck@10": 0.876996495807189,
+    "pck@20": 0.9661454100405608,
+    "pck@30": 0.9823453060205306,
+    "pck@40": 0.987909734176537,
+    "pck@50": 0.9911238361167036
+  }
+}

benchmarks/wiflow-std/results/repro_a.json

@@ -0,0 +1,32 @@
+{
+  "published": {
+    "pck@20": 0.9725,
+    "pck@30": 0.9863,
+    "pck@40": 0.9916,
+    "pck@50": 0.9948,
+    "mpjpe": 0.007
+  },
+  "params_millions": 2.225042,
+  "data_dir": "C:\\Users\\ruv\\.cache\\kagglehub\\datasets\\kaka2434\\wiflow-dataset\\versions\\1\\preprocessed_csi_data",
+  "device": "cpu",
+  "test_full": {
+    "samples": 54000,
+    "mpjpe": NaN,
+    "pck@10": 5.6790124349020145e-05,
+    "pck@20": 0.0007876543271596785,
+    "pck@30": 0.007780246982971827,
+    "pck@40": 0.05529259262923841,
+    "pck@50": 0.1542370371548114,
+    "wall_seconds": 118.03756999969482
+  },
+  "test_drop_last": {
+    "samples": 53952,
+    "mpjpe": NaN,
+    "pck@10": 5.6840649370682976e-05,
+    "pck@20": 0.0007883550872372227,
+    "pck@30": 0.007787168910892621,
+    "pck@40": 0.055318307667895535,
+    "pck@50": 0.15425316342412276,
+    "wall_seconds": 120.87458372116089
+  }
+}

benchmarks/wiflow-std/static_ptq_bench.py

@@ -0,0 +1,333 @@
+"""ADR-152 edge optimization follow-up: ONNX Runtime STATIC post-training
+quantization (calibration-based QDQ) of the retrained WiFlow-STD model, to
+improve on the dynamic-int8 result (2.44 MB, PCK@20 96.52%, 6.5 ms/win b1).
+
+Static PTQ pre-computes activation ranges from calibration data, so inference
+uses QLinearConv/QDQ kernels instead of dynamic ConvInteger -- typically both
+faster and (with good calibration) closer to fp32 accuracy.
+
+Method:
+  - Calibration set: corruption-free windows drawn ONLY from the seed-42
+    file-level TRAINING split (same split as eval_repro.py; corrupted windows
+    excluded via results/nan_windows_mask.npy | big_windows_mask.npy), chosen
+    with np.random.default_rng(42). Never test windows.
+  - quantize_static, QuantFormat.QDQ, per-channel int8 weights, int8
+    activations; calibration methods MinMax / Entropy / Percentile(99.99);
+    scopes "all" (ORT default op set) vs "conv" (op_types_to_quantize=
+    ["Conv"] -- leaves the attention path, which exports as Einsum/Softmax
+    and elementwise ops, in fp32).
+  - Model is pre-processed first (quant_pre_process: symbolic shape
+    inference + ORT graph optimization, folds BatchNormalization into Conv).
+  - Accuracy: identical protocol to eval_ort_accuracy.py -- the 10,000-window
+    seed-42 subset of the corruption-free test split (PCK@20/50, MPJPE).
+  - Latency: median ms/window at batch 1 (100 runs) and batch 64 (30 runs),
+    3 interleaved repetitions across all variants (fp32 and dynamic-int8
+    sessions included as same-session reference points).
+
+Usage:
+  PYTHONUTF8=1 .venv/Scripts/python.exe static_ptq_bench.py \
+      [--data-dir <preprocessed_csi_data>] [--subset 10000]
+      [--calib-minmax 1000] [--calib-hist 512] [--skip-accuracy]
+
+Writes/merges into results/edge_optimization.json under key "onnx_static_ptq".
+"""
+
+import argparse
+import collections
+import json
+import os
+import platform
+import statistics
+import sys
+import time
+
+import numpy as np
+import torch
+
+HERE = os.path.dirname(os.path.abspath(__file__))
+sys.path.insert(0, HERE)
+
+from _bench_common import RESULTS  # noqa: E402
+# quantize_bench sets up upstream imports + the np.load mmap patch
+# (both via _bench_common.import_upstream)
+from quantize_bench import build_test_subset  # noqa: E402
+import quantize_bench as qb  # noqa: E402
+from eval_ort_accuracy import evaluate_ort  # noqa: E402
+
+FP32_ONNX = os.path.join(RESULTS, "retrained_fp32_dynamic.onnx")
+DYN_INT8_ONNX = os.path.join(RESULTS, "retrained_int8_ort_dynamic.onnx")
+PREPROC_ONNX = os.path.join(RESULTS, "retrained_fp32_preproc.onnx")
+
+
+# ---------------------------------------------------------------------------
+# calibration data: corruption-free TRAINING-split windows only
+# ---------------------------------------------------------------------------
+
+def build_calibration_windows(data_dir, n_windows):
+    """Seed-42 file-level 70/15/15 TRAIN split (exactly as eval_repro.py),
+    minus corrupted windows, then a seed-42 random draw of n_windows."""
+    dataset = qb.PreprocessedCSIKeypointsDataset(
+        data_dir=data_dir, keypoint_scale=1000.0, enable_temporal_clean=True)
+    train_loader, _va, _te = qb.create_preprocessed_train_val_test_loaders(
+        dataset=dataset, batch_size=64, num_workers=0, random_seed=42)
+    train_indices = np.asarray(train_loader.dataset.indices)
+
+    corrupted = (np.load(os.path.join(RESULTS, "nan_windows_mask.npy"))
+                 | np.load(os.path.join(RESULTS, "big_windows_mask.npy")))
+    clean = train_indices[~corrupted[train_indices]]
+    print(f"train split: {len(train_indices)} windows, "
+          f"{len(train_indices) - len(clean)} corrupted excluded, "
+          f"{len(clean)} clean")
+
+    rng = np.random.default_rng(42)
+    sel = np.sort(rng.choice(clean, size=n_windows, replace=False))
+    xs = np.stack([dataset[int(i)][0].numpy() for i in sel]).astype(np.float32)
+    print(f"calibration tensor: {xs.shape} from {n_windows} clean TRAIN windows")
+    return xs
+
+
+def make_reader(windows, batch_size=64):
+    from onnxruntime.quantization import CalibrationDataReader
+
+    class WindowReader(CalibrationDataReader):
+        def __init__(self):
+            self._batches = [windows[i:i + batch_size]
+                             for i in range(0, len(windows), batch_size)]
+            self._it = iter(self._batches)
+
+        def get_next(self):
+            b = next(self._it, None)
+            return None if b is None else {"input": b}
+
+        def rewind(self):
+            self._it = iter(self._batches)
+
+        def __len__(self):
+            return len(self._batches)
+
+    return WindowReader()
+
+
+# ---------------------------------------------------------------------------
+# quantization variants
+# ---------------------------------------------------------------------------
+
+def preprocess_model():
+    from onnxruntime.quantization.shape_inference import quant_pre_process
+    quant_pre_process(FP32_ONNX, PREPROC_ONNX)
+    return PREPROC_ONNX
+
+
+def quantize_variant(src, dst, method, scope, calib_windows):
+    from onnxruntime.quantization import (CalibrationMethod, QuantFormat,
+                                          QuantType, quantize_static)
+    methods = {
+        "minmax": CalibrationMethod.MinMax,
+        "entropy": CalibrationMethod.Entropy,
+        "percentile": CalibrationMethod.Percentile,
+    }
+    # NB: do NOT pass CalibMaxIntermediateOutputs -- in ORT 1.26 the MinMax
+    # calibrater clears its buffer every N batches and then raises
+    # "No data is collected" if the batch count is divisible by N.
+    extra = {}
+    if method == "percentile":
+        extra["CalibPercentile"] = 99.99
+    op_types = ["Conv"] if scope == "conv" else None
+
+    t0 = time.time()
+    quantize_static(
+        src, dst, make_reader(calib_windows),
+        quant_format=QuantFormat.QDQ,
+        op_types_to_quantize=op_types,
+        per_channel=True,
+        activation_type=QuantType.QInt8,
+        weight_type=QuantType.QInt8,
+        calibrate_method=methods[method],
+        extra_options=extra,
+    )
+    secs = time.time() - t0
+
+    import onnx
+    ops = collections.Counter(n.op_type for n in onnx.load(dst).graph.node)
+    return {
+        "file": os.path.basename(dst),
+        "size_bytes": os.path.getsize(dst),
+        "size_mb": os.path.getsize(dst) / 1e6,
+        "calibration": {"method": method,
+                        "windows": int(len(calib_windows)),
+                        "percentile": extra.get("CalibPercentile"),
+                        "seconds": secs},
+        "scope": scope,
+        "per_channel": True,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+        "node_counts": {k: v for k, v in sorted(ops.items())},
+    }
+
+
+# ---------------------------------------------------------------------------
+# latency (3 interleaved reps, like the latency_controlled_rerun)
+# ---------------------------------------------------------------------------
+
+def ort_session(path):
+    import onnxruntime as ort
+    return ort.InferenceSession(path, providers=["CPUExecutionProvider"])
+
+
+def bench_ort(sess, batch, n_runs):
+    rng = np.random.default_rng(123)
+    x = rng.random((batch, 540, 20), dtype=np.float32)
+    inp = sess.get_inputs()[0].name
+    for _ in range(max(5, n_runs // 10)):
+        sess.run(None, {inp: x})
+    times = []
+    for _ in range(n_runs):
+        t0 = time.perf_counter()
+        sess.run(None, {inp: x})
+        times.append(time.perf_counter() - t0)
+    return statistics.median(times) * 1e3 / batch  # ms/window
+
+
+def interleaved_latency(sessions, reps=3, runs_b1=100, runs_b64=30):
+    lat = {name: {"batch1_reps": [], "batch64_reps": []} for name in sessions}
+    for rep in range(reps):
+        for name, sess in sessions.items():
+            lat[name]["batch1_reps"].append(bench_ort(sess, 1, runs_b1))
+            lat[name]["batch64_reps"].append(bench_ort(sess, 64, runs_b64))
+            print(f"  rep {rep + 1}/{reps} {name}: "
+                  f"b1={lat[name]['batch1_reps'][-1]:.2f} "
+                  f"b64={lat[name]['batch64_reps'][-1]:.3f} ms/win", flush=True)
+    for name in lat:
+        lat[name]["batch1_ms_per_window_median"] = statistics.median(
+            lat[name]["batch1_reps"])
+        lat[name]["batch64_ms_per_window_median"] = statistics.median(
+            lat[name]["batch64_reps"])
+    return lat
+
+
+# ---------------------------------------------------------------------------
+
+def main():
+    import onnxruntime
+    parser = argparse.ArgumentParser()
+    parser.add_argument("--data-dir", default=os.path.join(
+        os.path.expanduser("~"), ".cache", "kagglehub", "datasets", "kaka2434",
+        "wiflow-dataset", "versions", "1", "preprocessed_csi_data"))
+    parser.add_argument("--subset", type=int, default=10000)
+    parser.add_argument("--calib-minmax", type=int, default=1000)
+    parser.add_argument("--calib-hist", type=int, default=512,
+                        help="calibration windows for Entropy/Percentile "
+                             "(histogram calibraters hold all intermediate "
+                             "activations in RAM)")
+    parser.add_argument("--skip-accuracy", action="store_true")
+    parser.add_argument("--methods", default="minmax,entropy,percentile",
+                        help="comma list of calibration methods to (re)run; "
+                             "results merge into existing onnx_static_ptq")
+    parser.add_argument("--out", default=os.path.join(RESULTS, "edge_optimization.json"))
+    args = parser.parse_args()
+
+    results = {
+        "env": {
+            "onnxruntime": onnxruntime.__version__,
+            "torch": torch.__version__,
+            "platform": platform.platform(),
+            "source_model": os.path.basename(FP32_ONNX),
+        },
+        "variants": {},
+    }
+
+    # ---- calibration data (TRAIN split only) -------------------------------
+    calib_mm = build_calibration_windows(args.data_dir, args.calib_minmax)
+    calib_hist = calib_mm[:args.calib_hist]
+
+    # ---- preprocess + quantize ---------------------------------------------
+    print("\n=== quant_pre_process (shape inference + graph optimization) ===")
+    src = preprocess_model()
+    results["env"]["preprocessed_model"] = {
+        "file": os.path.basename(src),
+        "size_mb": os.path.getsize(src) / 1e6,
+    }
+
+    matrix = [(m, s) for m in args.methods.split(",")
+              for s in ("all", "conv")]
+    for method, scope in matrix:
+        name = f"{method}_{scope}"
+        dst = os.path.join(RESULTS, f"retrained_int8_static_{name}.onnx")
+        calib = calib_mm if method == "minmax" else calib_hist
+        print(f"\n=== quantize_static: {name} "
+              f"({len(calib)} calib windows) ===", flush=True)
+        try:
+            results["variants"][name] = quantize_variant(
+                src, dst, method, scope, calib)
+            print(f"  {results['variants'][name]['size_mb']:.3f} MB")
+        except Exception as e:  # noqa: BLE001
+            results["variants"][name] = {"error": f"{type(e).__name__}: {e}"}
+            print(f"  FAILED: {e}")
+
+    # ---- fixture parity (sanity, batch 2) ----------------------------------
+    fixture = np.load(os.path.join(RESULTS, "parity_fixture.npz"))
+    fx, fy = fixture["input"], fixture["output"]
+    sessions = {}
+    for name, info in results["variants"].items():
+        if "error" in info:
+            continue
+        path = os.path.join(RESULTS, info["file"])
+        try:
+            sess = ort_session(path)
+            yq = sess.run(None, {sess.get_inputs()[0].name: fx})[0]
+            info["max_abs_diff_vs_fp32_fixture"] = float(np.abs(yq - fy).max())
+            sessions[name] = sess
+        except Exception as e:  # noqa: BLE001
+            info["run_error"] = f"{type(e).__name__}: {e}"
+    print("\nfixture max-abs-diff vs fp32:",
+          {n: round(results["variants"][n].get("max_abs_diff_vs_fp32_fixture",
+                                               float("nan")), 5)
+           for n in results["variants"]})
+
+    # ---- latency: 3 interleaved reps incl. fp32 + dynamic-int8 reference ----
+    print("\n=== latency (3 interleaved reps) ===")
+    lat_sessions = {"onnx_fp32": ort_session(FP32_ONNX),
+                    "onnx_int8_ort_dynamic": ort_session(DYN_INT8_ONNX)}
+    lat_sessions.update(sessions)
+    results["latency"] = {
+        "note": "3 interleaved repetitions per variant, median ms/window; "
+                "onnx_fp32 / onnx_int8_ort_dynamic are same-session references",
+        **interleaved_latency(lat_sessions),
+    }
+
+    # ---- accuracy on the standard 10k corruption-free test subset ----------
+    if not args.skip_accuracy:
+        loader, n_clean = build_test_subset(args.data_dir, args.subset)
+        results["accuracy_subset"] = {
+            "description": "seed-42 file-level 70/15/15 test split, corrupted "
+                           "windows excluded, seed-42 random subset (same as "
+                           "quantize_bench/eval_ort_accuracy)",
+            "subset_size": min(args.subset, n_clean) if args.subset else n_clean,
+        }
+        for name, sess in sessions.items():
+            print(f"\n=== accuracy: {name} ===")
+            results["variants"][name]["accuracy"] = evaluate_ort(
+                sess, loader, name)
+            print(json.dumps(results["variants"][name]["accuracy"], indent=2))
+
+    # ---- merge into edge_optimization.json ----------------------------------
+    merged = {}
+    if os.path.exists(args.out):
+        with open(args.out) as f:
+            merged = json.load(f)
+    prev = merged.get("onnx_static_ptq")
+    if prev:  # nested merge so partial --methods reruns don't clobber
+        prev["env"] = results["env"]
+        prev["variants"].update(results["variants"])
+        prev.setdefault("latency", {}).update(results["latency"])
+        if "accuracy_subset" in results:
+            prev["accuracy_subset"] = results["accuracy_subset"]
+    else:
+        merged["onnx_static_ptq"] = results
+    with open(args.out, "w") as f:
+        json.dump(merged, f, indent=2)
+    print(f"\nwrote {args.out}")
+
+
+if __name__ == "__main__":
+    main()

benchmarks/wiflow-std/tiny_edge_bench.py

@@ -0,0 +1,313 @@
+"""ADR-152 efficiency-sweep follow-up: edge pipeline for the TINY compact
+WiFlow-STD variant (56,290 params, results/tiny_best.pth, trained overnight
+2026-06-10/11 -- see RESULTS.md "Efficiency sweep").
+
+Headline question: what does the smallest deployable WiFlow-class model look
+like (KB + ms + PCK)? Reuses the onnx_bench.py / static_ptq_bench.py
+machinery on the tiny checkpoint:
+
+  1. Load tiny_best.pth with remote/sweep/model_compact.py
+     (depthwise TCN groups, input_pw_groups=4, conv [2,4,8,16], attn groups 2).
+  2. Export ONNX: dynamic batch, opset 17, TorchScript exporter (dynamo=False)
+     -- same recipe that worked for the full model; verified at batch 1/2/64.
+     One forced deviation: tiny's stride schedule [2,1,1,1] leaves final_width
+     16, and the TorchScript exporter cannot export AdaptiveAvgPool2d((15,1))
+     when 15 is not a factor of the input height (the full model never hit
+     this -- its width was exactly 15). The adaptive pool over a fixed-size
+     feature map is a fixed linear map, so the export wrapper replaces it with
+     an exact matmul equivalent (PyTorch adaptive-pool bin semantics:
+     bin i averages rows floor(i*H/K)..ceil((i+1)*H/K)); the W axis (20->1,
+     a factor) becomes mean(-1). Exactness is proven by the parity check
+     below, which compares against the ORIGINAL torch model with the real
+     AdaptiveAvgPool2d.
+  3. Torch-vs-ORT parity on the stored fixture input
+     (results/parity_fixture.npz, batch 2, seed 42 -- same 540x20 input layout;
+     reference output recomputed with the tiny torch model). PASS < 1e-4.
+  4. Static QDQ conv-only int8 (quant_pre_process + quantize_static,
+     per-channel QInt8 weights+activations, Percentile(99.99) calibration on
+     512 corruption-free TRAIN-split windows -- the winning recipe and
+     calibration count from static_ptq_bench.py. 512, not "about 500":
+     ORT 1.26's histogram collector np.asarray()'s the per-batch maxima, so
+     the calibration count must be a multiple of the batch size 64 or the
+     ragged last batch crashes it).
+  5. Disk size + CPU latency b1/b64 (3 interleaved reps, median ms/window)
+     for tiny fp32 + tiny int8, with the full-model ONNX fp32 + static-int8
+     sessions interleaved as same-session references.
+  6. Accuracy (PCK@20/50 + MPJPE) on the identical 10k-window seed-42
+     corruption-free test subset for tiny fp32 + tiny int8.
+
+Usage:
+  PYTHONUTF8=1 .venv/Scripts/python.exe tiny_edge_bench.py \
+      [--data-dir <preprocessed_csi_data>] [--subset 10000] [--calib 512]
+  (--calib must be a multiple of 64; see step 4 above)
+
+Writes/merges into results/edge_optimization.json under key "tiny_variant".
+"""
+
+import argparse
+import json
+import os
+import platform
+import sys
+import time
+
+import numpy as np
+import torch
+
+HERE = os.path.dirname(os.path.abspath(__file__))
+RESULTS = os.path.join(HERE, "results")
+sys.path.insert(0, HERE)
+sys.path.insert(0, os.path.join(HERE, "remote", "sweep"))
+
+# quantize_bench sets up upstream imports + the np.load mmap patch
+from quantize_bench import build_test_subset  # noqa: E402
+from eval_ort_accuracy import evaluate_ort  # noqa: E402
+from static_ptq_bench import (  # noqa: E402
+    build_calibration_windows,
+    interleaved_latency,
+    make_reader,
+    ort_session,
+)
+from model_compact import CompactWiFlowPoseModel, describe  # noqa: E402
+
+TINY_CKPT = os.path.join(RESULTS, "tiny_best.pth")
+TINY_FP32_ONNX = os.path.join(RESULTS, "tiny_fp32_dynamic.onnx")
+TINY_PREPROC_ONNX = os.path.join(RESULTS, "tiny_fp32_preproc.onnx")
+TINY_INT8_ONNX = os.path.join(RESULTS, "tiny_int8_static_percentile_conv.onnx")
+FULL_FP32_ONNX = os.path.join(RESULTS, "retrained_fp32_dynamic.onnx")
+FULL_INT8_ONNX = os.path.join(RESULTS, "retrained_int8_static_percentile_conv.onnx")
+
+# Exact tiny config from remote/sweep/run_sweep.py VARIANTS (measured 56,290
+# params, clean-test PCK@20 94.11% -- results/efficiency_sweep.jsonl).
+TINY = dict(tcn=[68, 56, 44, 32], conv=[2, 4, 8, 16], attn_groups=2,
+            groups_mode="depthwise", input_pw_groups=4)
+
+
+def load_tiny_model():
+    model = CompactWiFlowPoseModel(
+        tcn_channels=TINY["tcn"], conv_channels=TINY["conv"],
+        attn_groups=TINY["attn_groups"], groups_mode=TINY["groups_mode"],
+        input_pw_groups=TINY["input_pw_groups"], dropout=0.5)
+    state = torch.load(TINY_CKPT, map_location="cpu", weights_only=True)
+    model.load_state_dict(state, strict=True)
+    model.eval()
+    return model
+
+
+def adaptive_pool_matrix(h_in, h_out):
+    """Exact AdaptiveAvgPool1d as a (h_out, h_in) averaging matrix, using
+    PyTorch's bin rule: bin i covers rows floor(i*h_in/h_out) ..
+    ceil((i+1)*h_in/h_out)."""
+    w = torch.zeros(h_out, h_in)
+    for i in range(h_out):
+        s = (i * h_in) // h_out
+        e = -((-(i + 1) * h_in) // h_out)  # ceil division
+        w[i, s:e] = 1.0 / (e - s)
+    return w
+
+
+class ExportWrapper(torch.nn.Module):
+    """CompactWiFlowPoseModel forward with the AdaptiveAvgPool2d((K,1))
+    replaced by an exact fixed linear map (mean over the factor W axis, then
+    a constant averaging matmul over the non-factor H axis) so the
+    TorchScript ONNX exporter accepts it. Bit-equivalent up to float
+    round-off; proven by the parity check against the original model."""
+
+    def __init__(self, m, num_keypoints=15):
+        super().__init__()
+        self.m = m
+        self.register_buffer(
+            "pool_w_t", adaptive_pool_matrix(m.final_width, num_keypoints).t())
+
+    def forward(self, x):
+        m = self.m
+        x = m.tcn(x)
+        x = x.transpose(1, 2).unsqueeze(1)
+        x = m.up(x)
+        for block in m.residual_blocks:
+            x = block(x)
+        x = x.permute(0, 1, 3, 2)
+        x = m.attention(x)
+        x = m.decoder(x)                  # [B, 2, H=final_width, T=20]
+        x = x.mean(-1)                    # W-axis pool (20 -> 1, a factor)
+        x = x.matmul(self.pool_w_t)       # exact adaptive H pool: [B, 2, K]
+        return x.transpose(1, 2)          # [B, K, 2]
+
+
+def export_onnx(model):
+    """Dynamic-batch TorchScript export (the recipe that worked for the full
+    model in onnx_bench.py), verified at batch 1/2/64. Uses ExportWrapper
+    (see docstring) because final_width 16 is not a multiple of 15."""
+    wrapper = ExportWrapper(model).eval()
+    x = torch.rand(2, 540, 20)
+    with torch.no_grad():
+        torch.onnx.export(
+            wrapper, (x,), TINY_FP32_ONNX, opset_version=17,
+            input_names=["input"], output_names=["output"], dynamo=False,
+            dynamic_axes={"input": {0: "batch"}, "output": {0: "batch"}})
+    sess = ort_session(TINY_FP32_ONNX)
+    inp = sess.get_inputs()[0].name
+    for b in (1, 2, 64):
+        y = sess.run(None, {inp: np.zeros((b, 540, 20), dtype=np.float32)})[0]
+        assert y.shape == (b, 15, 2), y.shape
+    return {
+        "mode": "dynamic-batch", "exporter": "torchscript", "opset": 17,
+        "file": os.path.basename(TINY_FP32_ONNX),
+        "size_bytes": os.path.getsize(TINY_FP32_ONNX),
+        "size_mb": os.path.getsize(TINY_FP32_ONNX) / 1e6,
+        "verified_batches": [1, 2, 64],
+        "note": "AdaptiveAvgPool2d((15,1)) replaced at export by an exact "
+                "mean(-1) + constant averaging matmul (final_width 16 is not "
+                "a multiple of 15, which the TorchScript exporter rejects); "
+                "exactness proven by the parity check vs the original torch "
+                "model",
+    }
+
+
+def quantize_tiny(calib_windows):
+    """quant_pre_process + static QDQ conv-only Percentile(99.99) int8 --
+    the winning recipe from static_ptq_bench.py."""
+    from onnxruntime.quantization import (CalibrationMethod, QuantFormat,
+                                          QuantType, quantize_static)
+    from onnxruntime.quantization.shape_inference import quant_pre_process
+
+    quant_pre_process(TINY_FP32_ONNX, TINY_PREPROC_ONNX)
+    t0 = time.time()
+    quantize_static(
+        TINY_PREPROC_ONNX, TINY_INT8_ONNX, make_reader(calib_windows),
+        quant_format=QuantFormat.QDQ,
+        op_types_to_quantize=["Conv"],
+        per_channel=True,
+        activation_type=QuantType.QInt8,
+        weight_type=QuantType.QInt8,
+        calibrate_method=CalibrationMethod.Percentile,
+        extra_options={"CalibPercentile": 99.99},
+    )
+    return {
+        "file": os.path.basename(TINY_INT8_ONNX),
+        "size_bytes": os.path.getsize(TINY_INT8_ONNX),
+        "size_mb": os.path.getsize(TINY_INT8_ONNX) / 1e6,
+        "calibration": {"method": "percentile", "percentile": 99.99,
+                        "windows": int(len(calib_windows)),
+                        "scope": "conv-only TRAIN-split corruption-free",
+                        "seconds": time.time() - t0},
+        "per_channel": True,
+        "activation_type": "QInt8",
+        "weight_type": "QInt8",
+    }
+
+
+def main():
+    import onnxruntime
+    parser = argparse.ArgumentParser()
+    parser.add_argument("--data-dir", default=os.path.join(
+        os.path.expanduser("~"), ".cache", "kagglehub", "datasets", "kaka2434",
+        "wiflow-dataset", "versions", "1", "preprocessed_csi_data"))
+    parser.add_argument("--subset", type=int, default=10000)
+    parser.add_argument("--calib", type=int, default=512,
+                        help="calibration windows; must be a multiple of the "
+                             "64-window calibration batch (ORT histogram "
+                             "collector rejects ragged batches)")
+    parser.add_argument("--skip-accuracy", action="store_true")
+    parser.add_argument("--out", default=os.path.join(RESULTS, "edge_optimization.json"))
+    args = parser.parse_args()
+
+    if args.calib % 64 != 0:
+        parser.error(
+            f"--calib must be a multiple of 64 (got {args.calib}): ORT 1.26's "
+            f"histogram calibration collector np.asarray()'s the per-batch "
+            f"maxima and crashes on a ragged final batch (calibration batch "
+            f"size is 64)")
+
+    model = load_tiny_model()
+    info = describe(model)
+    print(f"tiny model: {info['params']:,} params, tcn_groups={info['tcn_groups_per_block']}, "
+          f"strides={info['conv_strides']}, final_width={info['final_width']}")
+    assert info["params"] == 56290, info["params"]
+
+    results = {
+        "env": {
+            "torch": torch.__version__,
+            "onnxruntime": onnxruntime.__version__,
+            "platform": platform.platform(),
+            "num_threads": torch.get_num_threads(),
+            "checkpoint": os.path.relpath(TINY_CKPT, HERE),
+            "checkpoint_size_bytes": os.path.getsize(TINY_CKPT),
+            "params": info["params"],
+            "variant_config": TINY,
+        },
+    }
+
+    # ---- export + parity ----------------------------------------------------
+    print("\n=== ONNX export (dynamic batch, opset 17, torchscript) ===")
+    results["export"] = export_onnx(model)
+    print(f"  {results['export']['size_mb']:.3f} MB, batches {results['export']['verified_batches']} OK")
+
+    fixture = np.load(os.path.join(RESULTS, "parity_fixture.npz"))
+    fx = fixture["input"]  # (2, 540, 20), seed 42 -- same input layout as full model
+    sess_fp32 = ort_session(TINY_FP32_ONNX)
+    y_ort = sess_fp32.run(None, {sess_fp32.get_inputs()[0].name: fx})[0]
+    with torch.no_grad():
+        y_torch = model(torch.from_numpy(fx)).numpy()
+    results["parity"] = {
+        "fixture": "results/parity_fixture.npz input (batch 2, seed 42); "
+                   "reference output recomputed with the tiny torch model",
+        "max_abs_diff_vs_torch": float(np.abs(y_ort - y_torch).max()),
+        "pass_lt_1e-4": bool(np.abs(y_ort - y_torch).max() < 1e-4),
+    }
+    print("parity:", json.dumps(results["parity"], indent=2))
+    assert results["parity"]["pass_lt_1e-4"], "torch-vs-ORT parity FAILED"
+
+    # ---- static PTQ int8 ------------------------------------------------------
+    print(f"\n=== static QDQ int8 (Percentile conv-only, {args.calib} calib windows) ===")
+    calib = build_calibration_windows(args.data_dir, args.calib)
+    results["int8_static_percentile_conv"] = quantize_tiny(calib)
+    print(f"  {results['int8_static_percentile_conv']['size_mb']:.3f} MB")
+    sess_int8 = ort_session(TINY_INT8_ONNX)
+    yq = sess_int8.run(None, {sess_int8.get_inputs()[0].name: fx})[0]
+    results["int8_static_percentile_conv"]["max_abs_diff_vs_fp32_fixture"] = float(
+        np.abs(yq - y_torch).max())
+
+    # ---- latency (3 interleaved reps, full-model sessions as references) -----
+    print("\n=== latency (3 interleaved reps) ===")
+    lat_sessions = {
+        "tiny_onnx_fp32": sess_fp32,
+        "tiny_onnx_int8_static_percentile_conv": sess_int8,
+        "full_onnx_fp32_reference": ort_session(FULL_FP32_ONNX),
+        "full_onnx_int8_static_percentile_conv_reference": ort_session(FULL_INT8_ONNX),
+    }
+    results["latency"] = {
+        "note": "3 interleaved repetitions per variant, median ms/window; "
+                "full-model sessions are same-session references",
+        **interleaved_latency(lat_sessions),
+    }
+
+    # ---- accuracy on the standard 10k corruption-free test subset ------------
+    if not args.skip_accuracy:
+        loader, n_clean = build_test_subset(args.data_dir, args.subset)
+        results["accuracy_subset"] = {
+            "description": "seed-42 file-level 70/15/15 test split, corrupted "
+                           "windows excluded, seed-42 random subset (same as "
+                           "quantize_bench/eval_ort_accuracy/static_ptq_bench)",
+            "subset_size": min(args.subset, n_clean) if args.subset else n_clean,
+        }
+        results["accuracy"] = {}
+        for name, sess in (("tiny_onnx_fp32", sess_fp32),
+                           ("tiny_onnx_int8_static_percentile_conv", sess_int8)):
+            print(f"\n=== accuracy: {name} ===")
+            results["accuracy"][name] = evaluate_ort(sess, loader, name)
+            print(json.dumps(results["accuracy"][name], indent=2))
+
+    # ---- merge into edge_optimization.json -----------------------------------
+    merged = {}
+    if os.path.exists(args.out):
+        with open(args.out) as f:
+            merged = json.load(f)
+    merged["tiny_variant"] = results
+    with open(args.out, "w") as f:
+        json.dump(merged, f, indent=2)
+    print(f"\nwrote {args.out}")
+
+
+if __name__ == "__main__":
+    main()

docker/docker-compose.yml

@@ -24,10 +24,13 @@ services:
     environment:
       - RUST_LOG=info
       # CSI_SOURCE controls the data source for the sensing server.
-      # Options: auto (default) — probe for ESP32 UDP then fall back to simulation
+      # Options: auto (default) — probe for ESP32 UDP then host WiFi; **fail
+      #                           hard with exit 78 if neither is detected**.
+      #                           Synthetic data is no longer a silent fallback
+      #                           (issue #937 fix) — operators must opt in.
       #          esp32          — receive real CSI frames from an ESP32 on UDP port 5005
       #          wifi           — use host Wi-Fi RSSI/scan data (Windows netsh)
-      #          simulated      — generate synthetic CSI data (no hardware required)
+      #          simulated      — explicitly generate synthetic CSI for demo mode
       - CSI_SOURCE=${CSI_SOURCE:-auto}
       # MODELS_DIR controls where the server scans for .rvf model files.
       # Mount a host directory and set this to make models visible:

docker/docker-entrypoint.sh

@@ -11,10 +11,65 @@
 #      docker run ruvnet/wifi-densepose:latest --model /app/models/my.rvf
 #
 # Environment variables:
-#   CSI_SOURCE   — data source: auto (default), esp32, wifi, simulated
+#   CSI_SOURCE   — data source. Valid values:
+#                    auto       — try ESP32 then Windows WiFi, **fail-loud if no
+#                                 real hardware is detected** (issue #937 fix:
+#                                 the server no longer silently falls back to
+#                                 synthetic data — that's now opt-in only).
+#                    esp32      — listen for UDP CSI on the configured port.
+#                    wifi       — Windows-native WiFi capture.
+#                    simulated  — explicit demo mode with synthetic CSI.
+#                  Default is `auto`. Set CSI_SOURCE=simulated when you want
+#                  fake data tagged as such; never set it implicitly.
 #   MODELS_DIR   — directory to scan for .rvf model files (default: data/models)
 set -e
 
+# ── Issue #864: fail-closed on default posture ───────────────────────────────
+# The pre-fix default was: empty RUVIEW_API_TOKEN (auth off) + --bind-addr
+# 0.0.0.0 + docker-compose publishing :3000/:3001/:5005 → an unauthenticated
+# attacker on any reachable network segment could read /api/v1/sensing/latest
+# and the /ws/sensing live stream. That posture is unsafe on guest WiFi,
+# untrusted LANs, accidentally-port-forwarded hosts, or any reverse-proxied
+# deployment. Refuse to start with this combination.
+#
+# Escape hatches (operator must opt in explicitly):
+#   * Set RUVIEW_API_TOKEN to a strong secret → auth enabled on /api/v1/*.
+#   * Set RUVIEW_ALLOW_UNAUTHENTICATED=1 → preserves the pre-fix behaviour;
+#     only safe on an isolated trust boundary.
+#   * Set RUVIEW_BIND_ADDR to a loopback / private interface → unauth is fine
+#     when the socket isn't reachable. The auto-bind nudges toward 127.0.0.1.
+#
+# This check runs only for the default sensing-server path (no args + flag-only
+# args). The `cog-ha-matter` / `homecore` routes below are excluded because
+# they own their own auth lifecycle.
+case "${1:-}" in
+    cog-ha-matter|ha-matter|homecore|homecore-server) ;;
+    *)
+        if [ -z "${RUVIEW_API_TOKEN:-}" ] && [ "${RUVIEW_ALLOW_UNAUTHENTICATED:-}" != "1" ]; then
+            # If the operator hasn't overridden the bind, refuse outright on
+            # the default 0.0.0.0. If they've nailed it to loopback (or a
+            # specific private address they trust), let it run.
+            __bind_default="${RUVIEW_BIND_ADDR:-0.0.0.0}"
+            case "$__bind_default" in
+                127.*|localhost|::1)
+                    : ;;  # loopback bind is safe even without a token
+                *)
+                    echo "[entrypoint] ERROR: refusing to start sensing-server with default" >&2
+                    echo "[entrypoint]        posture: RUVIEW_API_TOKEN is unset AND bind is" >&2
+                    echo "[entrypoint]        ${__bind_default}. /ws/sensing streams live sensing" >&2
+                    echo "[entrypoint]        frames; that data would be readable by anyone who" >&2
+                    echo "[entrypoint]        can reach this host. Pick one:" >&2
+                    echo "[entrypoint]          docker run -e RUVIEW_API_TOKEN=\$(openssl rand -hex 32) ..." >&2
+                    echo "[entrypoint]          docker run -e RUVIEW_BIND_ADDR=127.0.0.1 ..." >&2
+                    echo "[entrypoint]          docker run -e RUVIEW_ALLOW_UNAUTHENTICATED=1 ...   # only on trusted network" >&2
+                    echo "[entrypoint]        See https://github.com/ruvnet/RuView/issues/864" >&2
+                    exit 64
+                    ;;
+            esac
+        fi
+        ;;
+esac
+
 # Route to cog-ha-matter (ADR-116) when invoked as:
 #   docker run <image> cog-ha-matter [--flags]
 # or via the short alias `ha-matter`. Strips the keyword and execs the
@@ -48,7 +103,7 @@ if [ "${1#-}" != "$1" ] || [ -z "$1" ]; then
         --ui-path /app/ui \
         --http-port 3000 \
         --ws-port 3001 \
-        --bind-addr 0.0.0.0 \
+        --bind-addr "${RUVIEW_BIND_ADDR:-0.0.0.0}" \
         "$@"
 fi
 

docs/WITNESS-LOG-110.md

@@ -57,7 +57,7 @@ This witness separates what was **empirically observed on real silicon today** f
 
 | # | Claim | Why it's not verified |
 |---|---|---|
-| **B1** | "Wi-Fi 6 HE-LTF: 242 subcarriers per HE20 frame" | The only AP in range (`ruv.net`) is 11n-only. Every captured frame is 128 bytes = 64 subcarriers (HT-LTF, `ppdu_type=0`). No HE-SU/HE-MU/HE-TB observed. Even if an 11ax AP were available, **whether ESP-IDF v5.4's CSI callback exposes HE-LTF subcarriers via `wifi_csi_info_t.buf` is an open question** — the public API was designed for HT-LTF, and the driver may quietly downconvert. **Validate by capturing CSI against an 11ax AP and comparing `info->len` between HT and HE frames.** |
+| **B1** | "Wi-Fi 6 HE-LTF: 242 subcarriers per HE20 frame" | The only AP in range (`ruv.net`) is 11n-only. Every captured frame is 128 bytes = 64 subcarriers (HT-LTF, `ppdu_type=0`). No HE-SU/HE-MU/HE-TB observed. Even if an 11ax AP were available, **whether ESP-IDF v5.4's CSI callback exposes HE-LTF subcarriers via `wifi_csi_info_t.buf` is an open question** — the public API was designed for HT-LTF, and the driver may quietly downconvert. **Validate by capturing CSI against an 11ax AP and comparing `info->len` between HT and HE frames.**<br><br>**RESOLVED WITH MEASUREMENT (2026-06-11, external — issue #1005, production deployment by @stuinfla):** the open question is answered in both directions. **IDF v5.4's driver blob downconverts** (148 B / 64-subcarrier HT frames, PPDU byte 0x00, on a confirmed-HE link); **IDF v5.5.2 delivers true HE-LTF** — 532 B frames = 256 bins (242 active HE20 tones), PPDU byte 0x01 (HE-SU), ~90% of frames, same board/AP/link. Setup: XIAO ESP32-C6 → hostapd on Intel AX210, 2.4 GHz ch 6, `ieee80211ax=1`. No firmware change required (`acquire_csi_su=1` was already set); the gate was purely the IDF driver version. Three C6 nodes ran this mode simultaneously with ADR-110 ESP-NOW sync. Requires the issue-#1005 version-guard fix in `c6_sync_espnow.c` to build on v5.5.x. |<br><br>**REPLICATED IN-HOUSE (2026-06-11):** same source + fix, fresh IDF v5.5.2 toolchain, original COM12 board (`20:6e:f1:17:00:84`), AP `ruv.net` (11ax 2.4 GHz): **84% of 1,525 captured frames at 532 B / PPDU 0x01 (HE-SU)**, HT minority 148 B / 0x00. Evidence grade: MEASURED (two independent rigs). |
 | **B2** | "TWT-bounded deterministic CSI cadence (10 ms wake)" | No 11ax AP in range. The TWT setup *call* was exercised live and the graceful fallback path is now correct (A9), but the agreement itself was never accepted. **Validate by associating with an 11ax AP that has TWT Responder=1, then capturing the timestamped CSI cadence vs the wall clock.** |
 | **B3** | "±100 µs cross-node alignment over 802.15.4" | 3 boards initialized their radios with correct EUIs (A4/A5), but **none stepped down from candidate-leader to follower** during repeated 35-second multi-board captures. <br><br>**Coex hypothesis REJECTED**: rebuilt + reflashed all 3 boards with `CONFIG_C6_TIMESYNC_CHANNEL=26` (2480 MHz, non-overlapping with WiFi ch 5 at 2432 MHz). Result identical: 3× candidate, 0× "stepping down". So 2.4 GHz radio coex was NOT the cause. <br><br>**Current leading hypothesis**: OpenThread (CONFIG_OPENTHREAD_ENABLED=y) owns the 802.15.4 radio when its stack is initialized — our weak-symbol overrides of `esp_ieee802154_receive_done` / `_transmit_done` may never be called because OpenThread registers strong handlers. Validation in progress: rebuilding with `CONFIG_OPENTHREAD_ENABLED=n` (raw 802.15.4 only, our beacon protocol is private — no need for the Thread stack). If leader election fires under raw-15.4-only, hypothesis confirmed. <br><br>If raw-only also fails, next move is to dump the actual PHY frame bytes via the IEEE 802.15.4 sniffer mode on a 4th board and diagnose at the frame level. |
 | **B4** | "~5 µA hibernation for battery seed nodes" | No INA / Joulescope current measurement available on this bench. The shipped code uses `esp_deep_sleep_enable_gpio_wakeup` (ext1 path, ESP-IDF default ~10 µA), not a true LP-core polling program. The 5 µA number is the C6 datasheet figure for ULP-level hibernation, not a measured value. **Validate by hooking an INA219/INA226 between the dev board's 3V3 rail and the regulator output, then averaging current over a 60-second cycle with the LP-core armed.** |

docs/adr/ADR-110-esp32-c6-firmware-extension.md

@@ -19,7 +19,7 @@ The production CSI node firmware (`firmware/esp32-csi-node`) was built around th
 
 | C6 capability | What it enables for sensing | Why we can't get it on S3 |
 |---|---|---|
-| **802.11ax (Wi-Fi 6) HE-LTF CSI** | 242 subcarriers per HE20 frame (vs 52 for HT-LTF), HE-MU/HE-TB PPDU types, OFDMA-aware channel sounding | S3 radio is HT-only (n) |
+| **802.11ax (Wi-Fi 6) HE-LTF CSI** | 242 subcarriers per HE20 frame (vs 52 for HT-LTF), HE-MU/HE-TB PPDU types, OFDMA-aware channel sounding. **Hardware-confirmed 2026-06-11** (issue #1005, external production deployment): requires **ESP-IDF ≥ 5.5** — the v5.4 driver blob silently downconverts to 64-subcarrier HT even on a confirmed-HE link; v5.5.2 delivers 532 B frames = 256 bins (242 active tones), PPDU 0x01 (HE-SU). See WITNESS-LOG-110 §B1 (resolved). | S3 radio is HT-only (n) |
 | **802.15.4 (Thread / Zigbee)** | Cross-node time-sync over a separate radio — frees Wi-Fi airtime for CSI, ±100 µs alignment possible without coordination traffic on the sensing channel | S3 has no 802.15.4 |
 | **TWT (Target Wake Time)** | Sensor negotiates a deterministic wake slot with the AP; CSI cadence becomes scheduler-bounded instead of opportunistic | Requires 802.11ax — S3 can't speak it |
 | **LP-core + hibernation (~5 µA)** | Always-on motion gate runs on a separate RISC-V LP core in deep sleep; HP core stays off until a real event | S3 ULP is FSM-only, ~10 µA floor |

docs/adr/ADR-151-room-calibration-specialist-training.md

@@ -0,0 +1,260 @@
+# ADR-151: RuView Per-Room Calibration & Specialized Model Training System
+
+| Field | Value |
+|-------|-------|
+| **Status** | Accepted — Stages 1–5 implemented (statistical specialists); HF-backbone distillation pending |
+| **Date** | 2026-06-09 |
+| **Deciders** | ruv |
+| **Codebase target** | New `wifi-densepose-calibration` crate (orchestration); `wifi-densepose-train` (`rapid_adapt.rs`, `signal_features.rs`, `trainer.rs`); `wifi-densepose-ruvector` (RVF specialist storage); `wifi-densepose-signal/ruvsense/*` (feature extractors); `wifi-densepose-cli` (`enroll`, `train-room`, `room-status` subcommands) |
+| **Relates to** | ADR-135 (Empty-Room Baseline Calibration), ADR-030 (Persistent Field Model), ADR-134 (CIR), ADR-024 (Contrastive CSI Embedding / AETHER), ADR-027 (Cross-Environment Domain Generalization / MERIDIAN), ADR-070 (Self-Supervised Pretraining), ADR-105 (Federated CSI Training), ADR-149 (AetherArena / Hugging Face), ADR-150 (RF Foundation Encoder) |
+
+---
+
+## 1. Context
+
+### 1.1 The thesis — teach the room before you teach the model
+
+RuView's deployment frontier is not a better generic model. ADR-150 documents the wall directly: an MM-Fi pose head scores **81.63% torso-PCK@20 in-domain but ~11.6% leakage-free cross-subject**, and bigger capacity *hurts* cross-subject (transformer 24.8% < conv 27.3%). A single oversized model that "understands the world" overfits the rooms and bodies it has seen. The lever is the opposite of scale: **a small model that understands *one* room and *one* person**, calibrated in minutes, run locally, and specialised per biological signal.
+
+This positions RuView between the two incumbents in ambient sensing:
+
+- **Wearables** — high fidelity, but people forget to wear them, and they only measure the wearer.
+- **Cameras** — powerful, but invasive, store identifiable video, and fail in the dark / under covers.
+
+RuView sits in the middle: it learns the *space*, learns the *person*, and tracks biological rhythm (breathing, heartbeat, restlessness, posture, presence) without seeing skin or storing video. Heartbeat and breathing are not visual problems — they are tiny, repeating disturbances in the RF field. Capturing them well is a *calibration* problem, not a *model-size* problem.
+
+### 1.2 What already exists (and what is missing)
+
+The pieces of a calibration→training pipeline exist as disconnected modules. There is no system that runs them end to end and emits a per-room model bank.
+
+| Capability | Status today | Gap |
+|------------|--------------|-----|
+| Empty-room baseline (environmental fingerprint) | ADR-135 `BaselineCalibration` (Proposed): per-subcarrier amplitude + circular-phase stats, `ruvcal` NVS namespace | Captures the *room*, but there is no step that captures *guided human anchors* on top of it |
+| Field eigenstructure | ADR-030 `field_model.rs` (SVD room eigenmodes) | Consumes calibration; not wired to a training trigger |
+| Shared invariant backbone | ADR-150 RF Foundation Encoder (pose-preserving, subject/room/device-invariant) | Defined as a *foundation* embedding; nothing distills it into per-room specialists |
+| Few-shot adaptation | `train/src/rapid_adapt.rs` — test-time training → LoRA weight deltas (MERIDIAN P5) | Produces a *single* pose-adaptation delta, not a bank of per-modality specialists |
+| Feature extractors | `ruvsense/{bvp,longitudinal,intention,gesture,pose_tracker,adversarial}.rs`, `train/src/signal_features.rs` | Each emits a signal; none is packaged as a labelled training source for enrollment |
+| Small-model storage | `wifi-densepose-ruvector` (RVF cognitive containers, HNSW, sketch) | No schema for "a bank of specialist models scoped to a room_id" |
+| HF publishing | ADR-149 AetherArena (Hugging Face Space + signed scorer), `sensing-server` `from_pretrained` path | Publishes/評価s a *global* model; no notion of a published *base* + private *local* heads |
+
+**The missing system is the connective tissue**: a guided enrollment protocol, a feature-extraction-to-label bridge, a specialist-bank trainer that reuses the frozen HF backbone, and a runtime that fuses the specialists with confidence gating. This ADR defines that system.
+
+### 1.3 The four-step user model (and where each step lands)
+
+The system is deliberately presented to operators as four plain steps. Each maps to existing or new code:
+
+1. **Capture a quiet baseline** — no people, just room/router/reflections/noise/drift → the *environmental fingerprint*. → **Reuse ADR-135** `BaselineCalibration` + **ADR-030** field eigenmodes. No new capture code; the calibration crate calls it.
+2. **Capture guided samples** — stand, sit, lie down, slow vs normal breathing, small movement, sleep posture. Clean anchors, not hours of data. → **NEW** `EnrollmentProtocol` (Section 2.2).
+3. **Extract the useful signal** — CSI phase, amplitude, Doppler shift, micro-motion, periodicity, variance, timing. → **Reuse** `signal_features.rs` + ruvsense extractors, packaged as labelled `AnchorFeature` records (Section 2.3).
+4. **Compress patterns into small ruVector models** — *specialised* per signal: breathing, heartbeat, sleep restlessness, posture, presence, anomaly. → **NEW** `SpecialistBank` trained via `rapid_adapt` LoRA heads over the frozen ADR-150 backbone, stored as RVF (Section 2.4).
+
+---
+
+## 2. Decision
+
+**Build the RuView Per-Room Calibration & Specialized Model Training System: a four-stage, local-first pipeline (`baseline → enroll → extract → train`) that produces a versioned *bank of small specialised ruVector models* scoped to one `room_id`, each a lightweight head distilled/adapted from the frozen, Hugging-Face-published RF Foundation Encoder (ADR-150).** Big model understands the world; small ruVector models understand *your room*.
+
+Two invariants govern every design choice below:
+
+> **(A) Specialisation over scale.** One small model per biological signal, not one large model for all of them. Each specialist is faster, cheaper, more private, and — because it is calibrated to the room's actual fingerprint — often *more accurate* than a general model.
+>
+> **(B) Local-first, base-shared.** The frozen room/subject/device-invariant backbone is the only artifact published to Hugging Face. Per-room baselines and per-specialist heads never leave the device unless the operator opts into federation (ADR-105).
+
+### 2.1 System architecture
+
+```
+                       HUGGING FACE HUB (public, room-agnostic)
+                       ┌───────────────────────────────────────┐
+                       │  RF Foundation Encoder (ADR-150)       │
+                       │  pose-preserving · subject/room/device │
+                       │  -invariant · frozen · safetensors     │
+                       └───────────────┬───────────────────────┘
+                                       │  from_pretrained() once, cached on device
+                                       ▼
+  STAGE 1 baseline        STAGE 2 enroll        STAGE 3 extract         STAGE 4 train (per room_id)
+  ┌──────────────┐        ┌──────────────┐      ┌────────────────┐      ┌─────────────────────────┐
+  │ ADR-135      │        │ Enrollment   │      │ signal_features│      │ SpecialistBank          │
+  │ Baseline-    │──fp──► │ Protocol     │─clip►│ + ruvsense     │─AF──►│  frozen backbone        │
+  │ Calibration  │        │ guided       │      │ extractors     │      │   │  ┌────────────────┐  │
+  │ (env finger- │        │ anchors:     │      │ → AnchorFeature│      │   ├─►│ breathing head │  │
+  │  print)      │        │ stand/sit/   │      │ (phase, amp,   │      │   ├─►│ heartbeat head │  │
+  │ ADR-030      │        │ lie/breathe/ │      │  doppler,      │      │   ├─►│ restless head  │  │
+  │ field eigen  │        │ move/sleep   │      │  micromotion,  │      │   ├─►│ posture head   │  │
+  └──────────────┘        └──────────────┘      │  periodicity,  │      │   ├─►│ presence head  │  │
+        │                                        │  variance,     │      │   └─►│ anomaly head   │  │
+        │  baseline drift > τ → invalidate bank  │  timing)       │      │     (LoRA / ruVector    │
+        └───────────────────────────────────────┴────────────────┴──────┤      small models)      │
+                                                                          └───────────┬─────────────┘
+                                                                                      │ RVF container
+                                                                                      ▼
+                                                              RUNTIME: Mixture-of-Specialists
+                                                              each head emits {value, confidence};
+                                                              coherence_gate (ADR-135) + anomaly
+                                                              head veto → fused RoomState
+```
+
+The shared backbone is loaded **once per device** and frozen. Every specialist is a small head over its embedding — so the marginal cost of a sixth specialist is kilobytes of LoRA weights, not another full model.
+
+### 2.2 Stage 2 — the guided enrollment protocol (NEW)
+
+`EnrollmentProtocol` is a CLI-driven state machine that walks the operator through a fixed sequence of labelled **anchors**. The design rule from the user vision is explicit: *clean anchors, not hours of data.* Each anchor is a short (default 20 s @ 20 Hz = 400 frames) labelled clip captured against the already-recorded baseline.
+
+| Anchor | Label | Duration | Primary signal taught | Feature emphasis |
+|--------|-------|----------|-----------------------|------------------|
+| `empty` | presence=0 | (reuse ADR-135 baseline) | absence reference | amplitude variance floor |
+| `stand_still` | posture=standing, presence=1 | 20 s | static human load | amplitude mean shift, eigenmode delta |
+| `sit` | posture=sitting | 20 s | lower static load | amplitude profile |
+| `lie_down` | posture=lying | 20 s | sleep-position load | amplitude profile, low Doppler |
+| `breathe_slow` | resp≈0.1–0.15 Hz | 30 s | slow respiration | periodicity, micro-Doppler |
+| `breathe_normal` | resp≈0.2–0.3 Hz | 30 s | normal respiration | periodicity, BVP phase |
+| `small_move` | motion=1 | 20 s | limb micro-motion | Doppler spread, variance |
+| `sleep_posture` | posture=lying, restless=0 | 30 s | quiescent sleep baseline | long-window variance, timing |
+
+The protocol is **adaptive**: an anchor is only accepted when its captured features pass a quality gate (coherence ≥ threshold from `coherence_gate.rs`, sufficient SNR vs baseline, no saturation). A failed anchor is re-prompted rather than silently kept — bad anchors poison small models far more than large ones. Total guided enrollment is ~4 minutes of wall-clock, producing 8 clean anchors. This is intentionally far below the "hours of data" that a from-scratch model needs, because the backbone already carries world knowledge; enrollment only teaches *this* room's offsets.
+
+Anchors are persisted as an append-only `EnrollmentSession` (event-sourced, per CLAUDE.md state rules) under `room_id`, so re-enrollment is incremental and auditable.
+
+### 2.3 Stage 3 — feature extraction to labelled records (REUSE + bridge)
+
+Each accepted anchor clip is run through the existing extractor stack, baseline-subtracted per ADR-135, and packaged into an `AnchorFeature` record. No new DSP is invented — this stage is a *bridge*, not a new algorithm.
+
+| Feature group | Source module | Used by specialists |
+|---------------|---------------|---------------------|
+| CSI amplitude mean/variance | ADR-135 baseline subtraction + `signal_features.rs` | presence, posture |
+| CSI phase (sanitised, LO-aligned) | `phase_sanitizer` → `phase_align` | posture, heartbeat |
+| Doppler shift / micro-Doppler | `ruvsense/bvp.rs`, `breathing` path | breathing, small-move |
+| Micro-motion / intention lead | `ruvsense/intention.rs` | restlessness, anomaly |
+| Periodicity / spectral peaks | `bvp.rs` autocorrelation + FFT | breathing, heartbeat |
+| Long-window variance / drift | `ruvsense/longitudinal.rs` (Welford) | restlessness, presence |
+| Timing / inter-frame epoch | `c6_timesync` epoch, frame Δt | all (rhythm alignment) |
+| Field eigenmode coefficients | ADR-030 `field_model.rs` | posture, presence |
+
+`AnchorFeature` = `{ room_id, anchor_label, t_epoch_us, embedding: [f32; D] (backbone output), aux: { resp_hz?, doppler_spread, variance, periodicity_score, eigen_coeffs } }`. The backbone embedding is the *shared* representation; `aux` carries the cheap hand-features that let small heads specialise without re-learning DSP.
+
+### 2.4 Stage 4 — the specialist bank (NEW, the core contribution)
+
+A **`SpecialistBank`** is a versioned collection of small models scoped to one `room_id`, persisted as a single RVF cognitive container (`wifi-densepose-ruvector`). Each specialist is a *head* over the frozen backbone embedding, trained from the labelled `AnchorFeature` records via the existing `rapid_adapt.rs` LoRA machinery (test-time/few-shot training, contrastive + entropy losses), **not** a from-scratch network.
+
+| Specialist | Model type | Params (typ.) | Label source | Output |
+|------------|-----------|---------------|--------------|--------|
+| **breathing** | 1-D temporal head + periodicity regressor | ~8 KB LoRA + aux | `breathe_slow`/`breathe_normal` | resp rate (Hz) + confidence |
+| **heartbeat** | narrowband phase head (harmonic-aware) | ~12 KB | quiescent anchors + periodicity | HR (bpm) + confidence |
+| **sleep restlessness** | variance/drift classifier | ~4 KB | `sleep_posture` vs `small_move` | restlessness score [0,1] |
+| **posture** | k-way prototype classifier (HNSW NN) | prototypes only | `stand/sit/lie` anchors | posture class + margin |
+| **presence** | binary energy/eigenmode gate | ~2 KB | `empty` vs occupied anchors | presence prob |
+| **anomaly** | one-class / physically-impossible detector (`adversarial.rs`) | ~6 KB | baseline + all anchors (novelty) | anomaly score + veto flag |
+
+Design properties that follow from invariant (A):
+
+- **Independently versioned & swappable.** Re-enrolling breathing does not retrain posture. A specialist carries its own `{trained_at, anchor_set_hash, baseline_hash, backbone_rev}`.
+- **HNSW prototype storage for the classifiers.** Posture and presence are nearest-prototype lookups in the RVF index — no inference engine, microsecond latency, and new postures are added by inserting a prototype, not retraining.
+- **SONA online adaptation.** Each specialist may carry a SONA/MicroLoRA online-adaptation slot (`ruvllm_sona_*` / `microlora` primitives) so it tracks slow drift (furniture moved, seasonal RF change) between full re-enrollments, gated by ADR-135 baseline drift.
+- **Teacher–student distillation (optional, offline).** Where a labelled public corpus exists (MM-Fi, Wi-Pose), the ADR-150 backbone acts as teacher to pre-shape a head before per-room fine-tuning, improving cold-start. The *teacher* is global/HF; the *student head* is local.
+
+**Invalidation contract.** The bank stores the `baseline_id` (the baseline UUID) it was trained against. **As implemented**, the runtime marks the bank `STALE` whenever the *current* baseline id differs from the trained one — a conservative trigger that catches re-calibration (room rearranged, AP moved, band changed) because any of those produces a new baseline. A finer **drift-threshold** trigger (mark STALE when ADR-135's per-subcarrier deviation exceeds τ *without* a full re-baseline) is a planned refinement (P6). Either way the runtime prompts re-enrollment rather than emitting silently wrong vitals — the calibration analogue of the #954 `DEGRADED` honesty rule: never report confident numbers from an invalid model.
+
+### 2.5 Runtime — mixture of specialists with confidence gating
+
+At inference, the frozen backbone embeds each CSI window once; every specialist consumes that shared embedding and emits `{value, confidence}`. Fusion rules:
+
+- The **anomaly** specialist holds a **veto**: a high anomaly score (physically-impossible signal per `adversarial.rs`, or a coherence-gate `Reject`) suppresses positive vitals/posture output and raises a flag, rather than propagating a hallucinated reading.
+- **presence=0** short-circuits breathing/heartbeat/posture to `null` (you cannot have a respiration rate in an empty room).
+- Each emitted reading is tagged with the specialist's confidence and the `baseline_hash`/`backbone_rev` provenance, so downstream consumers (sensing-server, MQTT, Home Assistant) can gate on quality — consistent with ADR-135 coherence-gate semantics.
+
+### 2.6 Crate & module layout
+
+New bounded-context crate `wifi-densepose-calibration` (orchestration only; files < 500 lines, typed public APIs, event-sourced sessions — per CLAUDE.md):
+
+```
+wifi-densepose-calibration/
+  src/
+    lib.rs                 # public API: CalibrationSystem facade
+    enrollment.rs          # EnrollmentProtocol state machine (Stage 2)
+    anchor.rs              # Anchor, EnrollmentSession (event-sourced)
+    extract.rs             # AnchorFeature bridge over signal_features + ruvsense (Stage 3)
+    specialist.rs          # Specialist trait, SpecialistKind enum
+    bank.rs                # SpecialistBank (RVF container, versioning, invalidation)
+    runtime.rs             # MixtureOfSpecialists fusion + veto (Stage 5)
+    backbone.rs            # frozen ADR-150 encoder loader (hf_hub from_pretrained, cached)
+    error.rs
+```
+
+Dependencies (no duplication — orchestrates existing crates): `wifi-densepose-signal` (ruvsense extractors, ADR-135 baseline), `wifi-densepose-train` (`rapid_adapt`, `signal_features`, `trainer`), `wifi-densepose-ruvector` (RVF, HNSW), `wifi-densepose-nn` (backbone inference). The `wifi-densepose-cli` gains `enroll`, `train-room`, and `room-status` subcommands, sequenced after the existing ADR-135 `calibrate`.
+
+### 2.7 CLI flow (operator-facing)
+
+```bash
+# Stage 1 — environmental fingerprint (ADR-135, existing)
+wifi-densepose calibrate --room living-room --duration 60s     # empty room
+
+# Stage 2+3 — guided enrollment (NEW); prompts through 8 anchors, ~4 min
+wifi-densepose enroll --room living-room
+#   → "Stand still in view of the sensor…"  [✓ anchor accepted: coherence 0.91]
+#   → "Sit down…"                            [✗ low SNR, retrying]
+#   ...
+
+# Stage 4 — train the specialist bank (NEW); reuses cached HF backbone
+wifi-densepose train-room --room living-room \
+    --specialists breathing,heartbeat,restlessness,posture,presence,anomaly
+
+# Status / invalidation
+wifi-densepose room-status --room living-room
+#   baseline: fresh (drift 0.04 < 0.20) · backbone: rf-foundation@1.2.0
+#   breathing  ✓ trained 2026-06-09  conf p50 0.88
+#   heartbeat  ✓ trained 2026-06-09  conf p50 0.71
+#   posture    ✓ 3 prototypes (stand/sit/lie)
+#   anomaly    ✓  · presence ✓  · restlessness ✓
+```
+
+---
+
+## 3. Consequences
+
+### 3.1 Positive
+
+- **Fidelity through specialisation.** Six small calibrated heads beat one oversized general model on the cross-room/cross-subject frontier that ADR-150 quantified — and each runs in microseconds-to-milliseconds, on-device.
+- **Privacy by construction.** Only the room-agnostic backbone is public (HF). The environmental fingerprint and the person-specific heads stay local; no video, no skin, no cloud round-trip. This is the core differentiator vs cameras and the convenience differentiator vs wearables.
+- **Minutes, not hours.** Because the backbone carries world knowledge, ~4 minutes of clean anchors calibrates a room. Re-enrollment is incremental.
+- **Honest degradation.** The `baseline_hash` invalidation + anomaly veto mean an out-of-calibration room reports `STALE`/flagged rather than confidently wrong — the same honesty principle as the firmware `DEGRADED` flag.
+- **Composable & cheap to extend.** A new biological signal = a new small head over the same embedding, not a new model.
+
+### 3.2 Negative / risks
+
+- **Backbone dependency.** Every specialist rides on ADR-150's encoder; its quality and revision compatibility (`backbone_rev`) are a single point of leverage. Mitigation: pin `backbone_rev` in each specialist; distillation cold-start reduces sensitivity.
+- **Enrollment burden.** 4 minutes is small but non-zero, and anchor quality depends on the operator following prompts. Mitigation: adaptive re-prompting + quality gates; ship sane defaults so a partial bank (presence+posture) works after just the static anchors.
+- **Heartbeat is hard.** Sub-mm chest displacement at HR frequencies is near the ESP32-S3 noise floor; the heartbeat specialist will have lower and more variable confidence than breathing. The confidence-gated runtime surfaces this rather than faking it.
+- **Per-room storage proliferation.** A bank per room per person; needs a clear RVF lifecycle (list/prune/export) — handled by `bank.rs` versioning and the `room-status` CLI.
+
+### 3.3 Alternatives considered
+
+| Alternative | Verdict | Reason |
+|-------------|---------|--------|
+| One large general model for all signals | **Rejected** | The ADR-150 evidence: scale overfits rooms/subjects and collapses cross-domain; also slower, costlier, less private. Directly contradicts invariant (A). |
+| Cloud training of per-room models | **Rejected** | Violates invariant (B): would ship raw CSI of a person's home/sleep to a server. Local-first is the privacy promise. Federation (ADR-105) is the *opt-in* path for shared improvement, exchanging gradients/deltas, never raw CSI. |
+| Skip the backbone; train each specialist from scratch | **Rejected** | Reintroduces the "hours of data" requirement the user vision explicitly rejects, and loses cross-room priors. |
+| Fold this into ADR-135 | **Rejected** | ADR-135 is *room* calibration (no humans). This ADR is *human-anchor* enrollment + model training on top of it. Distinct lifecycles, distinct invalidation; kept as separate bounded contexts. |
+
+---
+
+## 4. Implementation phases
+
+| Phase | Scope | Exit criterion | Status |
+|-------|-------|----------------|--------|
+| **P1** | Scaffold `wifi-densepose-calibration` crate; `AnchorFeature` schema; (backbone via `hf_hub` deferred) | Crate + schema; unit tests | ✅ Done (crate + Stage-1 baseline via `calibrate`/`calibrate-serve`; HF backbone deferred) |
+| **P2** | `EnrollmentProtocol` + `anchor.rs` (event-sourced sessions) + CLI `enroll` with quality gates | 8-anchor enrollment; bad anchors re-prompt | ✅ Done (`anchor.rs`, `enrollment.rs`, CLI `enroll`) |
+| **P3** | `extract.rs` bridge → labelled records; baseline subtraction (ADR-135) | `AnchorFeature` records persisted per `room_id` | ✅ Done (`extract.rs`; autocorr periodicity + variance/motion) |
+| **P4** | `SpecialistBank` + presence/posture (prototype) + breathing (periodicity); persistence + versioning | `train-room` produces a bank; `room-status` reads it back | ✅ Done (`specialist.rs`, `bank.rs`, CLI `train-room`/`room-status`; JSON persistence — RVF/HNSW = future) |
+| **P5** | heartbeat + restlessness + anomaly specialists; `runtime.rs` mixture + veto + confidence gating | End-to-end RoomState on hardware; anomaly veto verified | ✅ Done (`runtime.rs`, CLI `room-watch`; breathing read live on COM8 ESP32) |
+| **P6** | Baseline-drift `STALE` invalidation; SONA online adaptation; optional ADR-105 federation; HF teacher–student distillation | Drift marks bank STALE; AetherArena entry | ◐ Partial (STALE done; SONA/federation/HF-backbone = follow-ups) |
+
+**Current status (2026-06-10):** Stages 1–5 implemented with *statistical* specialists (threshold/prototype/autocorrelation). 55 tests (35 unit incl. multistatic + 1 full-loop integration + 19 CLI), all passing under qemu-aarch64. **Validation scope is precise:** baseline capture + HTTP API + auth are proven on real CSI (Pi-5 nexmon, 6,813 frames; and an ESP32-S3). The complete `baseline → enroll → train-room → infer` loop is now **proven in-process** on deterministic synthetic CSI (`tests/full_loop.rs`: clean baseline with zero motion flags, 8/8 anchors through the quality gate, 6 specialists trained, JSON bank round-trip, trained-bank inference 18±2 BPM positive / absent negative / foreign-baseline STALE; seed-robust). The one live runtime signal (breathing ~16–31 BPM via `room-watch`) used the *stateless* breathing head, **not** a trained bank; the clean empty-room loop has **not** yet run on-target — the remaining gap is strictly the hardware session (empty room + operator anchors). The four behavioral findings from the full-loop test (z-band squeeze, variance-only presence, ungated hz embedding, heart-band lag-floor leakage) are FIXED and regression-guarded — see the integration doc §7. SOTA-intake decisions affecting this system (geometry conditioning, checkerboard alignment) are recorded in ADR-152. Open refinements: `--source-format adr018v6` (drive from the Pi's own nexmon), phase-based breathing carrier, RVF/HNSW storage, and the ADR-150 frozen HF backbone the specialists would distill from.
+
+Validation per CLAUDE.md: `cargo test --workspace --no-default-features` green; hardware verification on the ESP32-S3 (currently COM8) before any release; witness bundle regenerated if the proof surface changes.
+
+---
+
+## 5. Summary
+
+> Big models understand the world. Small ruVector models understand *your room*.
+
+ADR-151 makes that operational: a local-first `baseline → enroll → extract → train` pipeline that turns ~4 minutes of clean human anchors — layered on ADR-135's empty-room fingerprint and ADR-150's Hugging-Face-published invariant backbone — into a versioned bank of tiny, specialised, privacy-preserving models for breathing, heartbeat, restlessness, posture, presence, and anomaly. Specialisation over scale; local heads over a shared base; honest `STALE` degradation over confident error.

docs/adr/ADR-152-wifi-pose-sota-2026-intake.md

@@ -0,0 +1,125 @@
+# ADR-152: WiFi-Pose SOTA 2026 Intake — Geometry-Conditioned Calibration, External Benchmarks, and the Foundation-Encoder Training Recipe
+
+| Field | Value |
+|-------|-------|
+| **Status** | Proposed |
+| **Date** | 2026-06-10 |
+| **Deciders** | ruv |
+| **Codebase target** | `wifi-densepose-calibration` (geometry conditioning, ADR-151 Stage 2), `wifi-densepose-train` (camera-supervised path, MAE recipe), `wifi-densepose-cli` (benchmark harness), docs |
+| **Relates to** | ADR-151 (Per-Room Calibration), ADR-150 (RF Foundation Encoder), ADR-135 (Empty-Room Baseline), ADR-079 (Camera-Supervised Pose), ADR-027 (MERIDIAN), ADR-024 (AETHER), ADR-149 (AetherArena), ADR-029 (Multistatic) |
+| **Research provenance** | Deep-research run 2026-06-10: 22 sources fetched, 110 claims extracted, 25 adversarially verified (3-vote), 24 confirmed / 1 refuted. Evidence grades per source below. |
+
+---
+
+## 1. Context
+
+A structured survey of the 2025–2026 WiFi human-sensing state of the art was run on 2026-06-10 to answer: *what should RuView integrate next, and does anything published invalidate our current direction?* Every claim below was verified against the primary source by independent adversarial reviewers; **evidence grades distinguish what the papers measured from what they merely claim**. Almost all performance numbers are author-self-reported preprint results — treated here as CLAIMED until reproduced on our hardware.
+
+### 1.1 The five verified findings
+
+**(F1) "Coordinate overfitting" is a named, diagnosed failure mode of camera-supervised WiFi pose — and our ADR-079 pipeline has the exact shape of it.**
+PerceptAlign (arXiv [2601.12252](https://arxiv.org/abs/2601.12252), accepted ACM MobiCom 2026) shows that models regressing CSI directly to camera-frame coordinates memorize the deployment-specific transceiver layout; SOTA baselines degrade to >600 mm MPJPE in unseen scenes. Their fix is cheap: a <5-minute calibration using two checkerboards and a few photos to align WiFi and vision in one shared 3D frame, plus **fusing transceiver-position embeddings with CSI features**. Claimed: −12.3% in-domain error, −60%+ cross-domain error. They release the claimed-largest cross-domain 3D WiFi pose dataset (21 subjects, 5 scenes, 18 actions, **7 device layouts**). *Evidence: improvements CLAIMED (preprint w/ MobiCom acceptance); the failure mode itself is corroborated across the cross-domain literature — and independently by our own ADR-150 data (81.63% in-domain vs ~11.6% leakage-free cross-subject torso-PCK).*
+
+**(F2) An external model named "WiFlow" claims 97.25% PCK@20 with 2.23M params and ships everything.**
+arXiv [2602.08661](https://arxiv.org/abs/2602.08661) (Apr 2026) — spatio-temporal-decoupled CSI pose, 97.25% PCK@20 / 99.48% PCK@50 / 0.007 m MPJPE, 2.23M parameters (~2.2 MB int8). Code, pretrained weights, and a 360k-sample CSI-pose dataset are public under Apache-2.0 ([repo](https://github.com/DY2434/WiFlow-WiFi-Pose-Estimation-with-Spatio-Temporal-Decoupling), Kaggle dataset). *Evidence: artifact availability MEASURED (verified by direct repo inspection); PCK numbers CLAIMED (5-subject, in-domain, self-collected dataset; hardware unspecified; 15 keypoints vs our 17).* ⚠️ **Name collision:** this is unrelated to RuView's internal WiFlow model. In all RuView docs the external model is referred to as **WiFlow-STD (DY2434)**.
+
+**(F3) For CSI foundation encoders, data scale — not model capacity — is the bottleneck, and the tokenization recipe is now known.**
+UNSW's MAE pretraining study (arXiv [2511.18792](https://arxiv.org/abs/2511.18792), Nov 2025) — the largest heterogeneous CSI pretraining run to date (1,320,892 samples, 14 public datasets incl. MM-Fi, Widar 3.0, Person-in-WiFi 3D; 4 devices; 2.4/5/6 GHz; 20–160 MHz) — reports zero-shot cross-domain gains of 2.2–15.7% over supervised baselines, with unseen-domain performance scaling **log-linearly with pretraining data, unsaturated at 1.3M samples**, while ViT-Base adds only 0.4–0.9% over ViT-Small. Optimal recipe: **80% masking ratio, small (30,3) patches** (+4.7% over (40,5) by preserving fine temporal dynamics). *Evidence: MEASURED within-study (ablations verified in body text) but preprint; downstream tasks are classification, NOT pose — pose transfer is a hypothesis. Independently corroborates ADR-150's finding that capacity hurts cross-subject.*
+
+**(F4) Hardware/standards: 802.11bf is finished; Espressif ships official sensing; Wi-Fi 6 AP CSI is reachable.**
+- **IEEE 802.11bf-2025** published **2025-09-26** (verified against the IEEE SA record) — sensing standardization is complete for both sub-7 GHz and >45 GHz, with formal sensing setup/feedback procedures. No ESP32 silicon implements it yet. *Evidence: MEASURED (standards-body record).*
+- **Espressif `esp_wifi_sensing`** (Apache-2.0, v0.1.x, ESP Component Registry): official CSI presence/motion FSM; esp-csi actively maintained (commit 2026-04-22, verified), CSI confirmed across ESP32/S2/C3/S3/C5/C6/C61. *Evidence: MEASURED (vendor pages + commit log).* ⚠️ A stronger "drop-in compatible with RuView nodes" claim was **REFUTED 0-3** — WiFi-6 parts use a different CSI acquisition config struct.
+- **ZTECSITool** (arXiv [2506.16957](https://arxiv.org/abs/2506.16957), [code](https://github.com/WiFiZTE2025/ZTE_WiFi_Sensing)): CSI from commercial Wi-Fi 6 APs at up to 160 MHz / 512 subcarriers (~5–10× ESP32 subcarrier count; the gain is aperture, not per-Hz granularity). Firmware is gated behind a ZTE serial-number approval. *Evidence: capability CLAIMED by the vendor-authored tool paper; code artifact MEASURED.*
+
+**(F5) Nothing in 2025–2026 does full DensePose UV regression from commodity WiFi.** Keypoint pose remains the field's frontier. Three "wireless foundation model" papers were screened out by full-text inspection (HeterCSI = simulated cellular channels only; the NeurIPS-2025 FMCW pilot = mmWave radar, presence-only; arXiv 2509.15258 = survey, no artifacts). *Evidence: MEASURED (absence verified by full-text inspection of the candidates that surfaced; absence of evidence across the whole literature is necessarily weaker).*
+
+### 1.2 What this means for the ADR-151 calibration system
+
+ADR-151's enrollment protocol captures guided human anchors but does **not** record or condition on transceiver geometry. F1 says that omission is precisely the thing that makes camera-supervised (and, plausibly, anchor-supervised) heads layout-brittle. ADR-151's per-room thesis ("teach the room before you teach the model") is *strengthened* by F1 — PerceptAlign is independent evidence that layout must be modeled explicitly — and the fix composes naturally with our Stage-2 enrollment.
+
+ADR-150's masked-CSI-encoder design is *validated* by F3, which also hands us the hyperparameters and the priority call: **collect/aggregate more heterogeneous CSI before scaling the encoder.**
+
+## 2. Decision
+
+Adopt four changes, ordered by effort-vs-gain:
+
+### 2.1 Geometry-condition the calibration system (extends ADR-151 Stage 2) — ACCEPTED
+
+1. **Record transceiver geometry at enrollment.** `EnrollmentProtocol` gains an optional `NodeGeometry` record per node (position estimate, antenna orientation, inter-node distances where known). Stored alongside the room baseline in the bank; schema-versioned so existing banks remain readable.
+2. **Fuse geometry embeddings into specialist training.** Where a specialist head consumes the (future, ADR-150) backbone embedding, concatenate a small learned embedding of `NodeGeometry` — the PerceptAlign mechanism, transplanted to our per-room banks. Statistical specialists (current) ignore it; LoRA heads (ADR-151 P6) consume it.
+3. **Adopt the two-checkerboard alignment for the camera-supervised path (ADR-079).** When MediaPipe supervision is used, calibrate camera↔WiFi into one shared 3D frame before regression (<5 min, two checkerboards, a few photos). This is the direct defense against F1 for our camera-supervised pipeline. ~~92.9%-PCK@20~~ — *that figure was retracted during measurement (b) (2026-06-10): the surviving holdout shows a constant-output model under an absolute (non-torso) threshold on 69 near-static frames; mean predictor scores 100% under the same protocol. The §2.2 no-citation rule now applies to it.*
+4. **Evaluate on the PerceptAlign cross-domain dataset** (21 subjects / 7 layouts) as the MERIDIAN cross-layout benchmark — *gated on confirming its license and downloadability* (open question; repo per paper: github.com/Trymore-lab/PerceptAlign).
+   > **Gate resolved (2026-06-10, MEASURED by repo inspection):** repo exists, **MIT license**, dataset downloadable from HuggingFace (5 per-scene repos, raw CSI + separate vision keypoints; Intel 5300, 1TX×3RX×3 ant, 57 subcarriers — same order as ESP32 subcarrier counts; Scene3 ships 3 distinct layouts). Code present, no pretrained weights. Benchmark adoption unblocked; dataset-side license terms inherit HF dataset terms (not separately stated — check at download time).
+
+### 2.2 Benchmark against WiFlow-STD (DY2434) — ACCEPTED
+
+Pull the Apache-2.0 weights + 360k-sample dataset; run three measurements: (a) their model on their data (reproduce 97.25% claim), (b) their model fine-tuned on our ESP32 17-keypoint eval set, (c) our internal WiFlow on their dataset (15-keypoint subset mapping). Until (a)–(c) are measured, **no RuView doc may cite 97.25% as a comparable number** — different dataset, subjects, keypoints.
+
+> **Status (2026-06-10, measurement (a) complete — `benchmarks/wiflow-std/RESULTS.md`):** shipped checkpoint REFUTED (0.08% PCK@20 — wrong keypoint normalization, predates published code); released code does not run as published (6 defects, incl. broken package import and an unreachable test phase); released dataset's last 13 files are corrupted (9,072 windows: NaN + float32-max garbage, diverges fp16 training via BatchNorm poisoning). After repairing both, retraining with upstream defaults reproduced **96.09% PCK@20 full-test / 96.61% corruption-free / MPJPE 0.0094–0.0098** (published: 97.25% / 0.007) on an RTX 5080. Accuracy claims graded MEASURED-EQUIVALENT; params (2.23M) and FLOPs (~0.055G) verified. (b)/(c) remain open.
+
+### 2.3 Apply the UNSW recipe to the ADR-150 encoder — ACCEPTED (amends ADR-150 §2.3)
+
+- Pretraining corpus: start from the same 14 public datasets (1.3M samples) + our home/MM-Fi frames; data aggregation takes priority over architecture work.
+- Tokenization: 80% masking, (30,3)-class small patches; encoder stays ViT-Small-class (~15M params) — F3 and our own DANN/transformer results agree that capacity does not pay.
+- The published log-linear scaling (unsaturated) sets the expectation: more heterogeneous CSI in, better zero-shot out.
+
+### 2.4 Hardware watch items — ACCEPTED (no code now)
+
+- **802.11bf**: track silicon/certification; OTA binding remains deferred until commodity chipsets expose standardized sensing measurements. **Amended by ADR-153** (2026-06-10): implement a pure Rust forward-compatibility protocol layer now — typed procedure models, a deterministic session FSM, a transport abstraction, simulation tests, and an `OpportunisticCsiBridge` that maps today's ESP32 CSI batches into standardized sensing-report shape.
+- **esp_wifi_sensing**: benchmark our presence pipeline against the vendor FSM (one afternoon; useful external baseline). Do **not** treat as drop-in (refuted claim).
+- **ZTECSITool AP**: optional high-resolution anchor node for the ADR-029 multistatic mesh — procurement-gated; only pursue if a 160 MHz anchor materially helps tomography.
+
+### 2.5 Explicitly NOT adopted
+
+- No pivot toward "wireless foundation model" papers that don't ship WiFi-CSI artifacts (HeterCSI, FMCW pilot, surveys).
+- No DensePose-UV work item: the field has not demonstrated UV regression from commodity WiFi; keypoints remain our supervised target (F5).
+
+### 2.6 RuVector vendor sync + integration opportunities (added 2026-06-10)
+
+**Vendor sync record.** `vendor/ruvector` moved from pin `e38347601` (2026-05-07) to `a083bd77f` (origin/main, 3 commits past tag `ruvector-v0.2.28`; vendored workspace version 2.2.3). 111 commits in the range, roughly half NAPI-binary/lint chores. Substantive: graph condensation + differentiable min-cut (#547), core HNSW correctness fixes v2.2.3 (#502), RUSTSEC/clippy hardening (#504), ONNX embedder API-contract fix (#523/#525 — npm/TypeScript package only), dead parallel-worker import removal (#532). *Evidence: MEASURED (git range + commit-stat inspection).*
+
+**Opportunity table.** Workspace policy is crates.io versions only, so unpublished crates are WATCH by definition regardless of fit.
+
+| Crate | What it offers | wifi-densepose target | crates.io | Verdict |
+|---|---|---|---|---|
+| `ruvector-graph-condense` (new, #547) | Training-free min-cut graph condensation + **differentiable normalized-cut loss** (`DiffCutCondenser`, analytic MinCutPool-style gradients, gradient-checked tests; provenance-retaining super-nodes) | `subcarrier_selection.rs` (condense 114 subcarriers into cut-preserving regions instead of raw min-cut); auxiliary clustering regularizer for `wifi-densepose-train`; `DynamicPersonMatcher` region structure | **Not published** | **WATCH** — strongest technical fit in the sync; adopt when published. README's "no published method uses graph-cut condensation" is CLAIMED; the diffcut implementation + tests are MEASURED |
+| `ruvector-attention` 2.1.0 | #304 SOTA modules: MLA, KV-cache, SSM, sparse/MoE, hybrid search, Graph RAG (publish date 2026-03-27 matches the #304 commit — MEASURED) | Supersedes pinned 2.0.4 used by `model.rs` spatial attention + `bvp.rs`; SSM/MLA are candidate pure-Rust edge-inference primitives for the ADR-150 encoder | 2.1.0 (pinned **2.0.4**) | **ADOPT** (minor bump; API-compat check first) |
+| `ruvector-gnn` 2.2.0 | panic→`Result` constructors, gradient clipping, MSE/CE/BCE losses, seeded-RNG layer init (#495 is post-2.2.0) | `wifi-densepose-train` GNN path (pinned 2.0.5, `default-features = false`) | 2.2.0 (pinned **2.0.5**) | **ADOPT** (bump) |
+| `ruvector-mincut` / `ruvector-solver` 2.0.6 | Patch-level fixes (workspace republish 2026-03-25) | `metrics.rs` DynamicPersonMatcher, subcarrier interpolation, triangulation | 2.0.6 (pinned **2.0.4** each) | **ADOPT** (routine patch bump) |
+| `ruvector-core` 2.2.3 (vendor) | HNSW correctness: k=0 guard, sorted results, flat-index fixes, cross-integration helpers (#502 — MEASURED, `index/hnsw.rs` + new integration tests) | `homecore-recorder` `RuvectorSemanticIndex` (real HNSW consumer); `sketch.rs` quantization unaffected | **2.2.0 = latest published**; 2.2.3 unpublished | **WATCH** — bump the moment 2.2.3 publishes |
+| `ruvector-cnn` 2.0.6 | Pure-Rust SIMD conv kernels (AVX2/NEON/WASM), MobileNetV3, INT8 quantization, contrastive losses (InfoNCE/triplet, #252) | **Not** the WiFlow-STD training port — `wiflow_std/model.rs` is tch/libtorch (MEASURED). Relevant to the *edge inference* path of the trained ~2.2 MB int8 model, and InfoNCE/triplet overlaps AETHER (ADR-024) | 2.0.6 | **EVALUATE** — only if/when we commit to a no-libtorch edge runtime for WiFlow-STD-class models |
+| `ruvector-acorn` (new-ish) | ACORN predicate-agnostic filtered HNSW (SIGMOD'24 algorithm; γ·M denser graphs for low-selectivity filters) | Metadata-filtered pattern search over ADR-151 calibration banks — speculative; bank sizes are far below where filtered-ANN recall collapse matters | **Not published** | **WATCH** |
+| `ruvector-cluster` 2.0.6 | Distributed sharding, gossip discovery, DAG consensus | No current need; ADR-029 mesh coordination is ESP32-side, not vector-DB-side | 2.0.6 | **WATCH** |
+| ONNX embedder fix (#523/#525) | API-contract + packaging fixes in `npm/packages/ruvector` (TypeScript) | None — `wifi-densepose-nn`'s ONNX backend is Rust (ort/tract), untouched by this change (MEASURED: commit touches npm/ only) | n/a | No action |
+| `ruvector-perception` (new, #547) | "Physical perception substrate" (hypothesis/topology/witness modules) — agent-perception oriented, not RF | None identified | Not published | WATCH (name-overlap only) |
+
+**Security note (RUSTSEC #504).** The substantive fixes target `ruvllm`, `ruvector-dag`, `prime-radiant`, `rvagent-*`, and the `ruvector-server` HTTP endpoint (NaN-safe `partial_cmp`, input-validation guards, env-allowlisted exec) — **none of which we pin**. The commit states `cargo audit` returns clean across the workspace. *Evidence: MEASURED (commit message + file list). Conclusion: no pinned version has an outstanding advisory; no urgent bump required.* The NaN-sort hardening is panic-robustness hygiene our pinned 2.0.4-era crates predate, which is one more reason for the routine bumps below.
+
+**Version-bump recommendations (follow-up PR — no Cargo.toml change in this ADR):** `ruvector-mincut` 2.0.4→2.0.6, `ruvector-solver` 2.0.4→2.0.6, `ruvector-attention` 2.0.4→2.1.0, `ruvector-gnn` 2.0.5→2.2.0. Current: `ruvector-core` 2.2.0, `ruvector-attn-mincut` 2.0.4, `ruvector-temporal-tensor` 2.0.6, `ruvector-crv` 0.1.1 — all at latest published. Nothing in the sync changes §2.1.2 geometry conditioning (our `viewpoint/attention.rs` `GeometricBias` already implements the fusion mechanism) or the ADR-150 MAE recipe (training stays in tch).
+
+## 3. Consequences
+
+**Positive:** the calibration system gains the one mechanism (geometry conditioning) the 2026 literature identifies as the difference between layout-brittle and layout-robust supervised WiFi pose; ADR-150 gets a measured training recipe instead of a guessed one; we acquire two external benchmarks (WiFlow-STD, PerceptAlign dataset) to keep our claims honest.
+
+**Negative / risks:** geometry records add schema surface to banks (mitigated: optional + versioned); every adopted number is preprint-grade until our own benchmark runs land (mitigated by §2.2's no-citation rule); PerceptAlign dataset license is unconfirmed (gated); name collision risk in docs (mitigated: "WiFlow-STD (DY2434)" naming rule).
+
+**Re-check by 2026-12:** 802.11bf silicon, esp_wifi_sensing maturity (v0.1.x today), and the preprint field (newest source Apr 2026).
+
+## 4. Open questions (carried from the research run)
+
+1. Does WiFlow-STD retain accuracy when fine-tuned on ESP32-S3/C6 CSI (fewer subcarriers, lower SNR), scored on our 17-keypoint set? (§2.2 answers this.)
+   > **Partial answer (MEASURED 2026-06-11, measurement (b) on 2,046 single-room windows — `benchmarks/wiflow-std/RESULTS.md`):** pretrained init shows strong *optimization* transfer (65% PCK@20 vs scratch's 0% collapse under the same budget) but **no feature transfer** (frozen-trunk + linear adapter ≈ 0%). And no run beat the mean-pose baseline (95.9% PCK@20 — single subject, near-static normalized coords), so no CSI→pose capability is citable from this data. A definitive answer needs multi-subject/multi-position data where the mean pose is weak.
+2. Is the PerceptAlign dataset downloadable under a usable license, and does the two-checkerboard procedure work with ESP32 transceiver geometry? (§2.1.4 gate.)
+3. Will esp_wifi_sensing evolve toward 802.11bf compliance, replacing opportunistic CSI extraction?
+
+## 5. Source register (evidence-graded)
+
+| Source | Type | Used for | Grade |
+|---|---|---|---|
+| arXiv 2601.12252 (PerceptAlign, MobiCom'26) | preprint+acceptance | F1, §2.1 | CLAIMED numbers; failure mode corroborated |
+| arXiv 2602.08661 + DY2434 repo (WiFlow-STD) | preprint + code | F2, §2.2 | numbers CLAIMED; artifacts MEASURED |
+| arXiv 2511.18792 (UNSW MAE) | preprint | F3, §2.3 | ablations MEASURED in-study; pose transfer hypothesis |
+| IEEE SA 802.11bf-2025 record | standards body | F4, §2.4 | MEASURED |
+| Espressif component registry + esp-csi repo | vendor | F4, §2.4 | MEASURED; "drop-in" REFUTED 0-3 |
+| arXiv 2506.16957 + ZTE repo (ZTECSITool) | vendor preprint + code | F4, §2.4 | capability CLAIMED; code MEASURED |
+| arXiv 2601.18200 (HeterCSI), OpenReview LMufK3vzE5 (FMCW pilot), arXiv 2509.15258 (survey) | preprints | F5, §2.5 (screened out) | MEASURED (full-text inspection) |

docs/adr/ADR-153-ieee-802-11bf-sensing-protocol-layer.md

@@ -0,0 +1,168 @@
+# ADR-153: IEEE 802.11bf-2025 Forward-Compatibility Protocol Model for wifi-densepose-hardware
+
+- **Status**: accepted
+- **Date**: 2026-06-10
+- **Deciders**: ruv
+- **Tags**: hardware, protocol, sensing, 802.11bf, forward-compatibility
+
+## Context
+
+IEEE 802.11bf-2025 (WLAN Sensing) is an **Active Standard**: board approval
+2025-05-28, published 2025-09-26 (verified against the IEEE SA record,
+<https://standards.ieee.org/ieee/802.11bf/11574/>). Its scope modifies the
+MAC, HE and EHT PHY service interfaces, plus DMG and EDMG PHYs, for WLAN
+sensing in **1–7.125 GHz** and **above 45 GHz** bands, with formal sensing
+measurement setup, measurement instance, feedback/reporting, and
+sensing-by-proxy (SBP) procedures (ADR-152 F4, evidence grade MEASURED).
+
+No commodity silicon implements the standard yet — ESP32 parts included.
+ADR-152 §2.4 therefore decided "track silicon; no code now", with RuView's
+opportunistic CSI extraction remaining the mechanism. That left a gap: when
+silicon does land, RuView would have no typed model of the standard's
+procedures to bind to, and the integration would start from zero.
+
+ADR-152 §2.4 originally classified 802.11bf as a hardware watch item with no
+implementation work until commodity silicon exposes standardized sensing
+measurements. This ADR amends that clause: OTA binding remains deferred, but
+a pure Rust protocol model, session FSM, transport seam, and opportunistic
+CSI bridge will be implemented now so RuView consumers can target a stable
+standardized sensing interface before silicon arrives.
+
+The user directed (2026-06-10) that this **forward-compatibility protocol
+model** — a protocol surface, not a conformance implementation — be built
+now.
+
+## Decision
+
+Implement an `ieee80211bf` **forward-compatibility protocol model** in
+`wifi-densepose-hardware` (pure Rust, no internal deps, simulation-testable,
+no OTA path):
+
+> This module is not a certified 802.11bf implementation. It models the
+> public procedure shape needed by RuView and RuvSense, while intentionally
+> avoiding OTA frame binding until chipset support and vendor APIs exist.
+
+1. **`types.rs`** — typed structures for the standard's sensing procedures
+   (sub-7 GHz focus; DMG stubbed): Sensing Measurement Setup (setup ID,
+   initiator/responder and transmitter/receiver roles, bandwidth,
+   periodicity, threshold-based reporting parameters), Sensing Measurement
+   Instance, Sensing Measurement Report (CSI-variant payload), SBP
+   request/response, termination. Two future-proofing requirements:
+
+   - **Version gates** — every negotiated surface is tagged with a spec
+     profile, because vendors will expose partial or renamed capabilities
+     first:
+
+     ```rust
+     pub enum SpecProfile {
+         DraftCompatible,
+         Ieee80211Bf2025,
+         VendorExtension(String),
+     }
+     ```
+
+   - **Capability negotiation** — no hardcoded ESP32 assumptions in the
+     future-silicon path:
+
+     ```rust
+     pub struct SensingCapabilities {
+         pub sub_7_ghz: bool,
+         pub dmg: bool,
+         pub edmg: bool,
+         pub csi_report: bool,
+         pub threshold_reporting: bool,
+         pub sensing_by_proxy: bool,
+         pub max_bandwidth_mhz: u16,
+         pub max_period_ms: u32,
+         pub max_active_setups: u16,
+     }
+     ```
+
+   - **Privacy and governance fields** — sensing is presence inference, not
+     just radio telemetry. Every `SensingMeasurementSetup` carries policy
+     metadata (required, not optional), for enterprise, elderly-care,
+     retail, workplace, and municipal deployments:
+
+     ```rust
+     pub enum ConsentMode {
+         LabOnly,
+         ExplicitConsent,
+         ManagedEnterprisePolicy,
+         Disabled,
+     }
+     ```
+
+2. **`session.rs`** — deterministic event-driven session state machine:
+   `Idle → SetupNegotiating → Active → Terminating → Idle`, with explicit
+   rejection paths (unsupported parameters, setup-ID collision) and timeout
+   handling.
+3. **`transport.rs`** — a `SensingTransport` trait abstracting frame
+   exchange; a `SimTransport` test double; and an `OpportunisticCsiBridge`
+   adapter mapping today's ESP32 CSI extraction onto the report path
+   (measurement instances ≈ CSI frame batches), so current hardware sits
+   behind the standardized interface. **Replaceability benchmark
+   (acceptance test):** RuvSense must consume either ESP32 opportunistic CSI
+   or future 802.11bf chipset reports through the same `SensingTransport`
+   and `SensingMeasurementReport` path, with no consumer-side rewrite — a
+   future chipset adapter replaces `OpportunisticCsiBridge` without changing
+   consumers.
+
+Constraints: input validation at boundaries (typed errors, no panics on
+adversarial input), files under 500 lines, all protocol tests runnable
+without hardware.
+
+### Acceptance checklist
+
+| Area            | Acceptance test                                                      |
+| --------------- | -------------------------------------------------------------------- |
+| Types           | Serde round trip for setup, instance, report, SBP, termination       |
+| FSM             | Idle → setup → active → terminating → idle                           |
+| Rejection       | Unsupported bandwidth, invalid period, duplicate setup ID            |
+| Timeout         | Negotiation timeout returns typed error and resets to Idle           |
+| Threshold       | Report emitted only when threshold condition is crossed              |
+| SBP             | Proxy request maps to responder path without direct sensor coupling  |
+| Bridge          | ESP32 CSI batch becomes standardized measurement report              |
+| Safety          | No panics on malformed inputs                                        |
+| CI              | All protocol tests run without hardware                              |
+| Maintainability | Each file under 500 lines                                            |
+
+### Non-Goals
+
+This ADR does not claim IEEE 802.11bf conformance, certification, or OTA
+interoperability. It creates a typed protocol compatibility layer so RuView
+can consume standardized sensing reports when commodity silicon exposes
+them. Vendor-specific frame exchange, firmware hooks, trigger-frame
+sounding, and certification test vectors remain future ADRs.
+
+## Consequences
+
+### Positive
+- RuView can adopt standardized WLAN sensing the day any chipset exposes
+  802.11bf measurements — the data model, session FSM, and transport seam
+  already exist and are tested.
+- The `OpportunisticCsiBridge` gives current ESP32 nodes a standardized-shape
+  interface now, decoupling RuvSense consumers from the extraction mechanism.
+- Simulation transport enables protocol-level tests in CI without hardware.
+- `SpecProfile` + `SensingCapabilities` give a clean escape hatch for the
+  partial/renamed vendor capabilities that will certainly arrive first.
+- Consent/policy metadata is structural from day one, not retrofitted.
+
+### Negative
+- Code written against a standard with zero silicon risks drift: vendor
+  implementations may interpret parameters differently; the layer may need
+  rework at first real binding (drift risk scored 7/10 at acceptance).
+- Adds maintenance surface to wifi-densepose-hardware before any
+  user-visible benefit (maintenance cost scored 3/10 — small without OTA).
+
+### Neutral
+- ADR-152 §2.4's "watch item" remains: revisit when silicon/certification
+  appears (re-check by 2026-12). This ADR changes only the "no code now"
+  clause.
+
+## Links
+
+- ADR-152 — WiFi-Pose SOTA 2026 Intake (F4, §2.4 — amended by this ADR)
+- ADR-028 — ESP32 capability audit (opportunistic CSI extraction baseline)
+- ADR-029 — RuvSense multistatic sensing mode (consumer of sensing reports)
+- IEEE 802.11bf-2025 — Active Standard, board approval 2025-05-28, published
+  2025-09-26: <https://standards.ieee.org/ieee/802.11bf/11574/>

docs/adr/README.md

@@ -79,6 +79,10 @@ Statuses: **Proposed** (under discussion), **Accepted** (approved and/or impleme
 | [ADR-023](ADR-023-trained-densepose-model-ruvector-pipeline.md) | Trained DensePose Model with RuVector Pipeline | Proposed |
 | [ADR-024](ADR-024-contrastive-csi-embedding-model.md) | Project AETHER: Contrastive CSI Embeddings | Required |
 | [ADR-027](ADR-027-cross-environment-domain-generalization.md) | Project MERIDIAN: Cross-Environment Generalization | Proposed |
+| [ADR-149](ADR-149-public-community-leaderboard-huggingface.md) | AetherArena: public spatial-intelligence benchmark on Hugging Face | Proposed |
+| [ADR-150](ADR-150-rf-foundation-encoder.md) | RF Foundation Encoder: pose-preserving, subject/room/device-invariant CSI embedding | Proposed |
+| [ADR-151](ADR-151-room-calibration-specialist-training.md) | Per-Room Calibration & Specialized Model Training (room-first → bank of small ruVector specialists) | Proposed |
+| [ADR-152](ADR-152-wifi-pose-sota-2026-intake.md) | WiFi-Pose SOTA 2026 Intake: geometry-conditioned calibration, external benchmarks, foundation-encoder recipe | Proposed |
 
 ### Platform and UI
 
@@ -93,6 +97,8 @@ Statuses: **Proposed** (under discussion), **Accepted** (approved and/or impleme
 | [ADR-036](ADR-036-rvf-training-pipeline-ui.md) | Training Pipeline UI Integration | Proposed |
 | [ADR-043](ADR-043-sensing-server-ui-api-completion.md) | Sensing Server UI API Completion (14 endpoints) | Accepted |
 | [ADR-115](ADR-115-home-assistant-integration.md) | Home Assistant integration via MQTT auto-discovery + Matter bridge (HA-DISCO + HA-FABRIC + HA-MIND) | Accepted (MQTT track) / Proposed (Matter SDK P8b) |
+| [ADR-147](ADR-147-adam-mode-light-theme.md) | adam-mode — light theme toggle for the three.js realtime demo | Proposed |
+| [ADR-148](ADR-148-yoga-mode-pose-system.md) | yoga-mode — yoga pose detection, classification, and scoring for the three.js realtime demo | Proposed |
 
 ### Architecture and infrastructure
 

docs/integration/calibration-appliance-integration.md

@@ -0,0 +1,234 @@
+# Per-Room Calibration — Integration Overview (for `cognitum-one/v0-appliance`)
+
+**Audience:** integrators wiring the RuView per-room calibration system (ADR-151) into the
+Cognitum V0 appliance (`cognitum-v0`, Pi 5 + Hailo). This document is the contract +
+deployment spec: data formats, API surface, crate API, and the appliance integration plan.
+
+**Source of truth:** crate `v2/crates/wifi-densepose-calibration` + CLI `v2/crates/wifi-densepose-cli`
+(`calibrate`, `calibrate-serve`, `enroll`, `train-room`, `room-status`, `room-watch`) on this PR's branch.
+
+---
+
+## 1. What it is
+
+"Teach the room before you teach the model." A local-first pipeline that turns a few minutes of
+clean human anchors — layered on an empty-room baseline — into a versioned **bank of small,
+room-calibrated specialists** for presence, posture, breathing, heartbeat, restlessness, and anomaly.
+
+```
+baseline (ADR-135)  →  enroll (anchors + quality gate)  →  extract (features)  →  train (specialist bank)  →  runtime (mixture + veto)
+   environmental         stand/sit/lie/breathe/move        periodicity/variance     6 small models             RoomState per window
+   fingerprint           (re-prompts bad captures)                                  + STALE invalidation       (+ multistatic fusion)
+```
+
+**Design invariants (carry these into the appliance):**
+- **Specialisation over scale** — six tiny models (threshold / nearest-prototype / autocorrelation), not one big model. They run in microseconds on a Pi CPU; **they do not need the Hailo HAT**.
+- **Local-first** — baselines + per-room banks stay on the device. Cross-room sharing is *model deltas* (federation, ADR-105), **never raw CSI**.
+- **Honest degradation** — baseline drift marks a bank `STALE`; a physically-implausible window is vetoed rather than emitting a hallucinated reading.
+
+---
+
+## 2. Tiering on the Pi 5 + Hailo (what runs where)
+
+| Tier | Runs on | What | Status |
+|------|---------|------|--------|
+| **CSI source** | ESP32-S3/C6 nodes (`edge_tier=0` raw CSI) | `0xC5110001` frames over UDP | shipping (v0.7.1-esp32) |
+| **Calibration service** | **Pi 5 CPU** (aarch64) | this crate: baseline/enroll/train/runtime + HTTP API | **this PR** |
+| **Shared backbone (optional)** | **Hailo HAT (HAILO10H)** | ADR-150 RF Foundation Encoder + neural pose head as HEF | future (ADR-150) |
+
+> The appliance's WiFi (`wlan0`) is `managed` with no nexmon — **the Pi is a CSI *processor*, not a CSI radio.** CSI arrives from the ESP32 nodes (the existing `ruview-vitals-worker:50054` already receives it). Calibration *consumes* that stream; it does not sense directly.
+
+---
+
+## 3. Data contracts (the integration surface)
+
+### 3.1 CSI ingest — ESP32 `0xC5110001` (UDP, little-endian)
+
+```
+Offset  Size  Field
+ 0      4     magic = 0xC511_0001 (LE u32)
+ 4      1     node_id (u8)            ← group multistatic nodes by this
+ 5      1     n_antennas (u8)
+ 6      1     n_subcarriers (u8)      ← 52/64 (HT20), 114 (HT40), 242 (HE20)
+ 7      1     reserved
+ 8      2     freq_mhz (LE u16)
+10      4     sequence (LE u32)
+14      1     rssi (i8)
+15      1     noise_floor (i8)
+16      4     reserved
+20      2·n_antennas·n_subcarriers   IQ pairs: i (i8), q (i8)
+```
+Parser reference: `wifi-densepose-cli/src/calibrate.rs::parse_csi_packet`. The appliance can reuse the
+ESP32 stream the vitals worker already receives, or tee it to the calibration UDP port.
+
+### 3.2 Baseline (ADR-135) — binary, magic `0xCA1B_0001`
+
+```
+Header (16 B LE): magic(4)=0xCA1B0001, version(1)=1, tier(1) {0=HT20,1=HT40,2=HE20,3=HE40},
+                  reserved(2), captured_at_unix_s(8, i64)
+Body:             frame_count(8,u64), num_subcarriers(4,u32),
+                  per subcarrier: amp_mean(f32), amp_variance(f32), phase_mean(f32), phase_dispersion(f32)
+```
+Produced by `calibrate` / `calibrate-serve`; `BaselineCalibration::{to_bytes,from_bytes}`. A baseline's
+UUID (`calibration_uuid()`) is the `baseline_id` referenced by enrollments and banks for STALE checks.
+
+### 3.3 Enrollment output — JSON (`enroll` → `train-room`)
+
+```jsonc
+{
+  "room_id": "living-room",
+  "baseline_id": "<uuid>",
+  "fs_hz": 15.0,
+  "anchors": [
+    { "room_id": "living-room", "label": "stand_still",
+      "features": { "mean": f32, "variance": f32, "motion": f32,
+                    "breathing_score": f32, "breathing_hz": f32,
+                    "heart_score": f32, "heart_hz": f32 } }
+  ],
+  "session": { "room_id": "...", "baseline_id": "...", "events": [ /* event-sourced audit log */ ] }
+}
+```
+Anchor labels (fixed sequence, **JSON wire = snake_case**, test-enforced): `empty, stand_still, sit, lie_down, breathe_slow, breathe_normal, small_move, sleep_posture`.
+
+### 3.4 Specialist bank — JSON (`train-room` → `room-watch` / runtime)
+
+```jsonc
+{
+  "room_id": "living-room",
+  "baseline_id": "<uuid>",            // drift vs current → STALE
+  "trained_at_unix_s": 0,
+  "anchor_count": 6,
+  "presence":     { "threshold": f32, "occupied_var": f32 } | null,
+  "posture":      { "prototypes": [ ["Standing", [f32;5]], ... ] } | null,
+  "breathing":    { "min_score": f32 },
+  "heartbeat":    { "min_score": f32 },
+  "restlessness": { "calm_motion": f32, "active_motion": f32 } | null,
+  "anomaly":      { "prototypes": [ [f32;5], ... ], "scale": f32 } | null
+}
+```
+`SpecialistBank::{to_json,from_json}`. A *partial* bank is valid (missing-anchor specialists are `null`).
+
+### 3.5 Runtime output — `RoomState` JSON (per window)
+
+```jsonc
+{
+  "presence":     { "kind":"Presence", "value":0|1, "confidence":f32, "label":"present|absent" } | null,
+  "posture":      { "kind":"Posture", "value":f32, "confidence":f32, "label":"standing|sitting|lying" } | null,
+  "breathing":    { "kind":"Breathing", "value": <BPM>, "confidence":f32, "label":null } | null,
+  "heartbeat":    { "kind":"Heartbeat", "value": <BPM>, "confidence":f32, "label":null } | null,
+  "restlessness": { "kind":"Restlessness", "value": 0.0..1.0, "confidence":f32 } | null,
+  "anomaly":      { "kind":"Anomaly", "value": 0.0..1.0, "confidence":f32, "label":"normal|anomalous" } | null,
+  "vetoed": bool,   // anomaly veto fired → vitals/posture suppressed
+  "stale":  bool    // bank trained against a different baseline
+}
+```
+
+---
+
+## 4. HTTP API — `calibrate-serve` (CORS-enabled; this is what a UI/appliance drives)
+
+| Method | Path | Body / returns |
+|--------|------|----------------|
+| GET | `/api/v1/calibration/health` | `{ udp_port, frames_seen, last_frame_age_ms, streaming, default_tier, output_dir, session_active }` |
+| POST | `/api/v1/calibration/start` | `{ tier?, duration_s?, room_id?, min_frames? }` → `202` session snapshot |
+| GET | `/api/v1/calibration/status` | live `{ state, frames_recorded, target_frames, progress, z_median, eta_s, ... }` |
+| POST | `/api/v1/calibration/stop` | finalize early → result summary |
+| GET | `/api/v1/calibration/result` | last finalized baseline summary |
+| GET | `/api/v1/calibration/baselines` | list persisted `.bin` baselines |
+| GET | `/api/v1/room/state?bank=<name>` | **live RoomState** (mixture-of-specialists over the CSI window; bank resolved as a sanitized name under `output_dir`) |
+| POST | `/api/v1/room/train` | `{ room_id, baseline_id, anchors[]? }` → train + persist a specialist bank as `<output_dir>/<room_id>.json` (anchors[] optional if enrolled via `/enroll/anchor`; read back via `/room/state?bank=<room_id>`) |
+| POST | `/api/v1/enroll/anchor` | `{ room_id, baseline, label, duration_s? }` → capture one guided anchor against a baseline (blocks for the capture); returns the gate verdict + progress |
+| GET | `/api/v1/enroll/status?room=<id>` | enrollment progress (accepted anchors, next, complete) |
+
+A single background task owns the UDP socket + recorder (handlers talk to it over an mpsc channel +
+shared status snapshot), so the API is non-blocking. **The full pipeline is now drivable over HTTP** — baseline (`start`/`stop`) → `enroll/anchor` (×8) → `room/train` → `room/state` — so the appliance UI needs no CLI. (The CLI `enroll`/`train-room`/`room-watch` remain for scripted/headless use.)
+
+---
+
+## 5. Public crate API (`wifi-densepose-calibration`)
+
+```rust
+// Stage 2 — enrollment
+anchor::{AnchorLabel, Anchor, AnchorQuality, EnrollmentEvent, EnrollmentSession, Posture}
+enrollment::{AnchorQualityGate, AnchorRecorder}
+// Stage 3 — features
+extract::{Features, AnchorFeature, autocorr_dominant}
+// Stage 4 — specialists + bank
+specialist::{Specialist, SpecialistKind, SpecialistReading,
+             PresenceSpecialist, PostureSpecialist, BreathingSpecialist,
+             HeartbeatSpecialist, RestlessnessSpecialist, AnomalySpecialist}
+bank::SpecialistBank
+// Stage 5 — runtime
+runtime::{MixtureOfSpecialists, RoomState}
+multistatic::MultiNodeMixture            // fuse co-located nodes (ADR-029)
+```
+Pure Rust; deps are `wifi-densepose-core` + `wifi-densepose-signal` (default-features off) + serde/uuid.
+**No GPU / no system BLAS** in the calibration path → builds cleanly on aarch64.
+
+---
+
+## 6. Appliance integration plan (`cognitum-one/v0-appliance`)
+
+Verified on `cognitum-v0`: aarch64, `cargo 1.96.0`, Hailo `HAILO10H`, `ruview-vitals-worker:50054`.
+
+**Step 1 — vendor / depend on the crate.** Add `wifi-densepose-calibration` (path or published crate)
+to the appliance workspace. It builds natively on aarch64 — no BLAS/GPU, **and no ONNX/OpenSSL**:
+the CLI's `mat`→`nn`→`ort`(ONNX)→`openssl-sys` chain is now feature-gated out of the calibration build.
+
+```bash
+# Pi/appliance calibration binary — cross-compiles clean (no ort/openssl):
+cargo build -p wifi-densepose-cli --no-default-features --release
+#   (omit `--no-default-features` only if you also need the MAT subcommands)
+```
+Verified: `cargo tree -p wifi-densepose-cli --no-default-features` shows **0** `ort`/`openssl-sys` deps;
+`cross test --target aarch64-unknown-linux-gnu` passes the calibration suite under qemu.
+
+**Step 2 — wire the CSI source.** Two options:
+  - (a) Tee the ESP32 UDP stream the vitals worker already receives into the calibration ingest, or
+  - (b) point ESP32 nodes (`edge_tier=0`) at the appliance's calibration UDP port directly.
+  Reuse `parse_csi_packet` (or the rvCSI `CsiFrame` schema if you normalise upstream).
+
+**Step 3 — run the calibration service.** Either embed the crate (call `CalibrationRecorder` /
+`MixtureOfSpecialists` in-process from a worker like `ruview-vitals-worker`), or run the
+`calibrate-serve` binary as a sidecar (systemd unit, bind `127.0.0.1` + reverse-proxy through the
+appliance gateway on `:9000`). Persist baselines/banks under the appliance data dir, keyed by `room_id`.
+
+**Step 4 — expose to the dashboard.** Surface the `/api/v1/calibration/*` endpoints (and add
+`enroll`/`train`/`room-state` endpoints — small additive work) behind the appliance's bearer-token
+auth + the existing `Seeds`/`Edge` nav. `RoomState` (§3.5) is the live readout payload.
+
+**Step 5 — (optional) Hailo backbone tier.** Compile the ADR-150 RF Foundation Encoder + neural pose
+head to Hailo HEF, serve via `ruvector-hailo-worker:50051`; the small specialists become heads over its
+embedding. This is the ADR-150 follow-on — *not required* for the calibration service to run.
+
+**Privacy / security:** keep baselines + banks local; if federating across appliances (ADR-105),
+exchange bank/model deltas, never raw CSI. Hardening already in place:
+- **`--token <T>`** (or `CALIBRATE_TOKEN` env) requires `Authorization: Bearer <T>` on every route; the
+  server warns loudly if bound to a non-loopback address without a token.
+- **`room_id` is sanitized** to `[A-Za-z0-9_-]` (≤64 chars) before it touches the baseline write path —
+  no `../` / absolute-path traversal.
+- CORS is permissive for dev — in production bind to loopback and reverse-proxy through the appliance
+  gateway (which already enforces bearer auth).
+
+---
+
+## 7. Status & validation
+
+- **Implemented:** all 5 stages + multistatic fusion; CLI + Stage-1 HTTP API (auth + path-traversal hardened). **55 tests** (35 calibration unit + 1 full-loop integration + 19 CLI), all passing under qemu-aarch64.
+
+**Precise validation matrix (don't overstate this — no clean full calibration has run on-target yet):**
+
+| Stage | Pi-5 (real nexmon→`0xC5110001`, 6,813 frames) | ESP32-S3 (COM8, `edge_tier=0`) | qemu / unit / integration |
+|---|---|---|---|
+| baseline capture + HTTP API + **auth gate** | ✅ | ✅ (120-frame) | full-loop ✅ |
+| **clean** empty-room baseline | ❌ `motion_flagged` (artifact) | ❌ (occupied) | full-loop ✅ (synthetic, zero motion flags) |
+| enroll → train-room | ❌ | ❌ (needs operator poses) | full-loop ✅ (8/8 anchors, 6 specialists, JSON round-trip) |
+| runtime infer | ❌ on-target | ◐ single-node breathing ~16–31 BPM via the **stateless** head (not a trained bank) + node-id fusion | full-loop ✅ (trained bank: 18±2 BPM positive, absent negative, foreign-baseline STALE) |
+
+The complete `baseline → enroll → train-room → infer` loop is now **proven in-process** on deterministic synthetic CSI (`wifi-densepose-calibration/tests/full_loop.rs` — drives the CLI's exact stage order through the public API, seed-robust across 5 seeds, runs with and without default features). Capture + API + auth are proven on real CSI (both boxes). What remains is strictly the **on-target** run: real CSI, a physically empty room for baseline, and an operator performing the 8 guided anchors — that hardware session is the last open item.
+
+- **Known follow-ups (appliance backlog):** `--source-format adr018v6` to drive calibration from the Pi's own nexmon (no ESP32/transcoder); the on-target clean-room enroll→train→infer session (above); phase-based (vs mean-amplitude) breathing carrier; RVF/HNSW persistence (currently JSON); enroll/train HTTP endpoints (live `/room/state` already added); ADR-150 Hailo backbone; true 2-node multistatic; ADR-105 federation.
+- **Behavioral findings from the full-loop test — all four FIXED pre-hardware-session:** (1) *z-band squeeze* — anchor motion is now measured from frame-to-frame deltas of the deviation series (`|Δz| > 0.5 ∨ |Δφ| > π/6`), not from the absolute `motion_flagged` (which conflated presence strength with motion); a strongly-reflecting still person (z = 3.0, every frame flagged by the old heuristic) now enrolls — regression-guarded in the full-loop test's `StandStill` anchor and `enrollment::tests`. (2) *Variance-only presence* — `PresenceSpecialist` gained a mean-shift channel (|mean − empty mean| vs a trained threshold); a motionless person is detected via the mean even at empty-level variance — regression-guarded in the full-loop motionless-person case; old persisted banks deserialize with the channel inert (variance-only behavior preserved). (3) *Ungated hz embedding* — `Features::embedding()` zeroes `breathing_hz`/`heart_hz` below `EMBED_MIN_SCORE` (0.25), keeping noise-window random frequencies out of the prototype space. (4) *Heart-band leakage* (found while fixing 3): a strong breathing rhythm's autocorrelation leaks into the HR band as a high-score lag-floor edge value (e.g. score 0.67 at 3.33 Hz from a pure 0.30 Hz breath); `autocorr_dominant` now requires the winning lag to be an interior local maximum, rejecting band-edge leakage while preserving true in-band peaks.
+
+**Reference:** ADR-151 (`docs/adr/ADR-151-room-calibration-specialist-training.md`), ADR-135 (baseline),
+ADR-029 (multistatic), ADR-150 (RF Foundation Encoder), ADR-105 (federation), ADR-147 (OccWorld/Hailo).

docs/readme-details.md

@@ -50,7 +50,7 @@ See [PR #405](https://github.com/ruvnet/RuView/pull/405) for full details.
 ### What's New in v0.7.0
 
 <details>
-<summary><strong>Camera Ground-Truth Training — 92.9% PCK@20</strong></summary>
+<summary><strong>Camera Ground-Truth Training</strong></summary>
 
 **v0.7.0 adds camera-supervised pose training** using MediaPipe + real ESP32 CSI data:
 
@@ -76,15 +76,20 @@ node scripts/train-wiflow-supervised.js --data data/paired/*.jsonl --scale lite
 node scripts/eval-wiflow.js --model models/wiflow-real/wiflow-v1.json --data data/paired/*.jsonl
 ```
 
-**Result: 92.9% PCK@20** from a 5-minute data collection session with one ESP32-S3 and one webcam.
+> **Accuracy retraction (2026-06-10):** the "92.9% PCK@20" figure previously
+> shown here is retracted. A forensic recheck of the surviving eval holdout
+> (69 samples) found a constant-output model scored with an absolute
+> (non-torso-normalized) threshold on nearly-static frames — a protocol under
+> which a trivial mean-pose predictor scores 100%. Torso-normalized PCK@20 on
+> the same holdout is ~19% (from that degenerate predictor). No measured
+> camera-supervised PCK@20 is currently published (CHANGELOG, PR #535).
 
-| Metric | Before (proxy) | After (camera-supervised) |
-|--------|----------------|--------------------------|
-| PCK@20 | 0% | **92.9%** |
-| Eval loss | 0.700 | **0.082** |
-| Bone constraint | N/A | **0.008** |
-| Training time | N/A | **19 minutes** |
-| Model size | N/A | **974 KB** |
+| Metric | Camera-supervised run (protocol retracted) |
+|--------|--------------------------------------------|
+| Eval loss | 0.082 |
+| Bone constraint | 0.008 |
+| Training time | 19 minutes |
+| Model size | 974 KB |
 
 Pre-trained model: [HuggingFace ruv/ruview/wiflow-v1](https://huggingface.co/ruv/ruview)
 
@@ -868,7 +873,7 @@ Download a pre-built binary — no build toolchain needed:
 
 | Release | What's included | Tag |
 |---------|-----------------|-----|
-| [v0.7.0](https://github.com/ruvnet/RuView/releases/tag/v0.7.0) | **Latest** — Camera-supervised WiFlow model (92.9% PCK@20), ground-truth training pipeline, ruvector optimizations | `v0.7.0` |
+| [v0.7.0](https://github.com/ruvnet/RuView/releases/tag/v0.7.0) | **Latest** — Camera-supervised WiFlow model (accuracy figure retracted 2026-06-10, see above), ground-truth training pipeline, ruvector optimizations | `v0.7.0` |
 | [v0.6.0](https://github.com/ruvnet/RuView/releases/tag/v0.6.0-esp32) | [Pre-trained models on HuggingFace](https://huggingface.co/ruv/ruview), 17 sensing apps, 51.6% contrastive improvement, 0.008ms inference | `v0.6.0-esp32` |
 | [v0.5.5](https://github.com/ruvnet/RuView/releases/tag/v0.5.5-esp32) | SNN + MinCut (#348 fix) + CNN spectrogram + WiFlow + multi-freq mesh + graph transformer | `v0.5.5-esp32` |
 | [v0.5.4](https://github.com/ruvnet/RuView/releases/tag/v0.5.4-esp32) | Cognitum Seed integration ([ADR-069](docs/adr/ADR-069-cognitum-seed-csi-pipeline.md)), 8-dim feature vectors, RVF store, witness chain, security hardening | `v0.5.4-esp32` |

docs/research/ruview-beyond-sota/00-system-review.md

@@ -0,0 +1,165 @@
+# RuView System Review — Capability Audit (Beyond-SOTA Series, Doc 00)
+
+**Date:** 2026-06-09
+**Scope:** The RuView product surface (ADR-031) and the 38-crate Rust workspace under `v2/crates/` that implements it, plus the ADR corpus (`docs/adr/`, 150 numbered ADRs) and the prior research corpus (`docs/research/sota-2026-05-22/`).
+**Method:** Direct reads of `lib.rs`/`mod.rs` and key ADRs; static test counts via `grep -r '#[test]'` / `#[tokio::test]` per crate (counts are *static occurrences in source*, not CI pass counts). No metrics in this document are estimated — everything cited was read or measured in the working tree.
+
+---
+
+## 1. Executive Summary — What RuView IS Today
+
+RuView is **not a crate**. Per ADR-136 §2.1 (`docs/adr/ADR-136-ruview-streaming-engine-frame-contracts.md`), RuView is the sensing-first *product surface and brand* (ADR-031, status: Proposed) layered on the existing `wifi-densepose-*` / `homecore*` / `cog-*` workspace. ADR-136 explicitly **rejects** a `ruview_*` crate rename and pins a normative ten-role mapping (ingest / signal / fusion / world / models / privacy / store / api / eval / observe) onto the existing crates.
+
+What concretely exists:
+
+1. **A deep, heavily-tested signal-processing layer.** `wifi-densepose-signal` contains 473 static `#[test]` occurrences, including a 22-file `ruvsense/` bounded context (`v2/crates/wifi-densepose-signal/src/ruvsense/`) implementing the ADR-029 six-stage multistatic pipeline plus ADR-030/032a/134/135/137/138/142/143 extensions (~14,000 lines, 330 in-module tests measured by per-file grep).
+2. **A trust-traceable composition root.** `wifi-densepose-engine` (`src/lib.rs`, 752 lines, 11 tests) wires fusion quality (ADR-137), array coordination (ADR-138), evolution change-points (ADR-142), RF-SLAM anchors (ADR-143), the WorldGraph (ADR-139), and the BFLD privacy control plane (ADR-141) into one `StreamingEngine::process_cycle` (`lib.rs:285`) that emits a `TrustedOutput` (`lib.rs:80`) carrying evidence + model version + calibration version + privacy decision + a BLAKE3 witness (`lib.rs:437`).
+3. **A privacy layer with structural invariants.** `wifi-densepose-bfld` (20 modules, 369 tests) implements ADR-118–123/141: raw BFI never exits the node (I1), identity embeddings are RAM-only (I2), cross-site identity correlation is cryptographically impossible (I3) — stated at `wifi-densepose-bfld/src/lib.rs:7-11`.
+4. **A Home-Assistant-class world/state layer.** `homecore` + 9 sibling crates (state machine, event bus, plugins, automation, REST/WS API, recorder, HAP bridge, assist) — explicitly a "P1 scaffold" per `homecore/src/lib.rs:7` with deferred items listed at `lib.rs:24-31`.
+5. **A drone-swarm extension.** `ruview-swarm` (17 modules, ~9,000 lines in subdirectories, 115 + 19 async tests), ADR-148 self-reports ~98% complete with the remaining 15% of M3 gated on real ESP32-S3 hardware (`ADR-148:940-953`).
+6. **A large prior research corpus.** The 2026-05-22 autonomous SOTA loop: 41 ticks, 19 research threads (R1–R20), 22 numpy reference implementations, 7 ADRs, and a 6-tier production roadmap (`docs/research/sota-2026-05-22/00-summary.md`, `PRODUCTION-ROADMAP.md`).
+
+The critical caveat, stated by the project itself: the ADR-136–146 series is *"a skeleton and nervous system, not a shipping product… Most of the series is not yet wired into the live 20 Hz pipeline"* (ADR-136 §8). The engine crate's own docs confirm what is absent: *"the live 20 Hz I/O loop (sensing-server), UWB hardware (ADR-144), and model training (ADR-146)"* (`wifi-densepose-engine/src/lib.rs:27-29`).
+
+---
+
+## 2. Capability Matrix — Pipeline Role → Crates → Maturity
+
+Role mapping is normative per ADR-136 §2.1; maturity is this review's judgment from code + ADR status. Test counts: static `#[test]` + `#[tokio::test]` greps (2026-06-09).
+
+| Role | Crate(s) | Key modules | Tests (sync+async) | Maturity | Evidence |
+|---|---|---|---|---|---|
+| **ingest** | `wifi-densepose-sensing-server`, `wifi-densepose-hardware`, `wifi-densepose-wifiscan` | `csi.rs`, `multistatic_bridge.rs`, `tracker_bridge.rs`, ESP32 TDM | 557+14, 137, 150 | **Production** (hardware-validated per ADR-028/039) | `sensing-server/src/` has 30+ modules incl. MQTT, Matter, RVF pipeline |
+| **signal** | `wifi-densepose-signal` (incl. `ruvsense/`) | 6-stage pipeline (`ruvsense/mod.rs:9-23`), `cir.rs`, `calibration.rs`, `hampel.rs`, `fresnel.rs`, `phase_sanitizer.rs` | 473 | **Production** (unit level); live multistatic wiring **beta** | §3 below; ADR-014 Accepted, ADR-029 Proposed |
+| **fusion** | `ruvsense/multistatic.rs`, `ruvsense/fusion_quality.rs`, `wifi-densepose-ruvector/src/viewpoint/` | `MultistaticFuser`, `QualityScore`, `CrossViewpointAttention`, GDI/Cramér-Rao (`viewpoint/geometry.rs`) | 20 (multistatic.rs), 3 (fusion_quality.rs), 136 (ruvector crate) | **Beta** — tested building blocks, composed only in `wifi-densepose-engine` tests | `viewpoint/mod.rs:1-30`; engine `lib.rs:317-319` |
+| **world** | `homecore`, `wifi-densepose-worldgraph`, `wifi-densepose-geo`, `wifi-densepose-worldmodel` | `StateMachine`, `EventBus`, `WorldGraph` (rooms/sensors/person-tracks/semantic states), ENU geo registration | 9+11, 7, 16+1, 12+1 | **Beta** — homecore is explicit "P1 scaffold"; persistence/service dispatch deferred to P2 | `homecore/src/lib.rs:7, 24-31`; ADR-127 Proposed |
+| **models** | `cog-pose-estimation`, `cog-person-count`, `wifi-densepose-nn`, `wifi-densepose-train`, `wifi-densepose-occworld-candle` | ONNX/Candle inference, training pipeline, OccWorld bridge | 7, 15, 30+1, 312, 12 | **Experimental** — no trained RF foundation encoder exists; ADR-147 benchmarked OccWorld with **random weights** | `ADR-147-benchmark-proof.md` ("random weights — pre-domain-fine-tuning baseline"); ADR-146/150 Proposed |
+| **privacy** | `wifi-densepose-bfld` | `privacy_gate.rs`, `privacy_mode.rs` (mode registry + hash-chained attestation), `identity_risk.rs`, `signature_hasher.rs`, `embedding_ring.rs` | 369 | **Beta** — strongest-tested layer, but lib header still says "Status: P1 in progress" (`lib.rs:12`, stale vs 20 implemented modules) | ADR-118–123, 141 all Proposed |
+| **store** | `homecore-recorder` | trajectory/event recording | 8+12 | **Experimental** | ADR-136 §2.1 |
+| **api** | `homecore-api`, `homecore-server`, `cog-ha-matter`, `homecore-hap` | REST/WS, HA discovery, Matter, HomeKit | 7+11, 0, 63+1, 15+2 | **Experimental→Beta** (`homecore-server` has zero tests) | ADR-130/125/115 Proposed |
+| **eval** | `wifi-densepose-train/src/ablation.rs`, `ruview-swarm/src/evals/` | ablation harness (ADR-145), swarm eval suite (ADR-149) | included in 312 / 115 | **Experimental** — ADR-145 self-labels "skeleton/scaffolding, mostly not yet on the live 20 Hz path" | `ablation.rs` exists; ADR-149 (swarm benchmarking) Accepted |
+| **observe** | `homecore-automation`, `homecore-assist` | automation engine, assistant/Ruflo bridge | 20+14, 3+20 | **Experimental** | ADR-129/133 Proposed |
+| **(integration root)** | `wifi-densepose-engine` | `StreamingEngine`, `TrustedOutput`, privacy demotion, witness | 11 | **Beta** — the only crate that proves cross-role composition; not on a live I/O path | `engine/src/lib.rs:1-29, 457-751` |
+| **(swarm)** | `ruview-swarm` | Raft/gossip topology, RRT-APF planning, Candle PPO MARL, CSI sensing payload, failsafe, Ruflo | 115+19 | **Experimental/simulation** — M3 needs real ESP32-S3 hardware | ADR-148:940-953 ("Overall ~98%", M3 85%) |
+| **(adjacent)** | `nvsim`, `nvsim-server`, `ruv-neural`, `wifi-densepose-wasm-edge`, `wifi-densepose-mat`, `wifi-densepose-vitals` | NV-diamond sim, neural lib, WASM edge, MAT disaster tool, vitals | 50, 0, 364, 643, 165+9, 52 | Mixed — `mat`/`vitals`/`wasm-edge` mature unit-wise | crate listing |
+
+**Workspace totals (measured):** 3,890 `#[test]` + 121 `#[tokio::test]` static occurrences across `v2/crates/`. (CLAUDE.md's "1,031+ tests" figure refers to an earlier `cargo test --workspace` run count; this review did not execute the suite.)
+
+External vendored runtimes also present: `vendor/rvcsi` (ADR-095/096 edge RF runtime, own repo), `vendor/ruvector`, `vendor/midstream`, `vendor/sublinear-time-solver`.
+
+---
+
+## 3. Signal-Processing Capability Inventory — `ruvsense/`
+
+Location: `v2/crates/wifi-densepose-signal/src/ruvsense/`. CLAUDE.md says "16 modules"; the directory now contains **22 `.rs` files** (21 modules + `mod.rs`) — the table below is the ground truth. Lines/tests measured per file (2026-06-09).
+
+| Module | Lines | Tests | ADR | What it does |
+|---|---:|---:|---|---|
+| `mod.rs` | 510 | 14 | 029 | Pipeline shell, COCO-17 keypoint constants, `RuvSensePipeline` (concrete fields + `tick()`), re-exports |
+| `multiband.rs` | 442 | 14 | 029 | Channel-hopping CSI → wideband virtual snapshot per node (`MultiBandCsiFrame`) |
+| `phase_align.rs` | 460 | 13 | 029 | LO phase-offset estimation via circular mean + `ruvector-solver::NeumannSolver` |
+| `multistatic.rs` | 957 | 20 | 029 | Attention-weighted N-node fusion → `FusedSensingFrame`; timestamp-spread guards |
+| `coherence.rs` | 474 | 19 | 029 | Per-subcarrier z-score coherence vs rolling template; `DriftProfile` |
+| `coherence_gate.rs` | 380 | 17 | 029 | Accept / PredictOnly / Reject / Recalibrate gate decisions |
+| `pose_tracker.rs` | 1,577 | 38 | 029/026/082 | 17-keypoint Kalman tracker, lifecycle state machine, AETHER re-ID embeddings, skeleton constraints, temporal keypoint attention |
+| `field_model.rs` | 1,417 | 22 | 030 | SVD room eigenstructure (persistent field model), perturbation extraction |
+| `tomography.rs` | 751 | 12 | 030 | RF tomography, ISTA L1 voxel solver |
+| `longitudinal.rs` | 1,020 | 20 | 030 | Welford long-horizon stats, biomechanics drift detection |
+| `intention.rs` | 511 | 12 | 030 | Pre-movement lead signals (200–500 ms) |
+| `cross_room.rs` | 626 | 13 | 030 | Environment fingerprinting + room-transition graph |
+| `gesture.rs` | 579 | 14 | 030 | DTW template-matching gesture classifier |
+| `adversarial.rs` | 586 | 13 | 030/032 | Physically-impossible-signal detection, multi-link consistency |
+| `attractor_drift.rs` | 566 | 15 | 032a | Midstream-enhanced attractor drift detection |
+| `temporal_gesture.rs` | 540 | 15 | 032a | Midstream temporal gesture stream |
+| `cir.rs` | 1,025 | 10 | 134 | CSI→CIR via ISTA L1 sparse recovery, NeumannSolver warm-start, `Complex32` sub-DFT Φ |
+| `calibration.rs` | 717 | 8 | 135 | Empty-room baseline (Welford amplitude + von Mises phase), drift-triggered recalibration |
+| `fusion_quality.rs` | 188 | 3 | 137 | `QualityScore` with `EvidenceRef`s, `ContradictionFlag`s, `CalibrationId`, privacy-demotion predicate |
+| `array_coordinator.rs` | 343 | 5 | 138 | Clock-quality gating + `DirectionalEvidence` (geometric admission) |
+| `evolution.rs` | 406 | 7 | 142 | Cross-link change-point detection, Bayesian `TemporalVoxelMap` (privacy-gated) |
+| `rf_slam.rs` | 301 | 6 | 143 | Persistent reflector discovery → static anchor learning (Wall/Furniture/Mobile classes) |
+
+Subtotal: ~14,400 lines, 310 tests inside `ruvsense/` alone. The non-ruvsense signal layer adds Hampel filtering, CSI-ratio, phase sanitisation, Fresnel modeling, BVP, spectrograms, subcarrier selection, and hardware normalisation (`signal/src/*.rs`).
+
+**Cross-viewpoint fusion** (`wifi-densepose-ruvector/src/viewpoint/`, 5 files): scaled dot-product attention with geometric bias (`attention.rs`), Geometric Diversity Index + Cramér-Rao bounds (`geometry.rs`), phase-phasor coherence with hysteresis + clock-quality gate (`coherence.rs`), and the `MultistaticArray` aggregate root (`fusion.rs`). 136 tests crate-wide.
+
+---
+
+## 4. The Trust Chain — What Actually Composes Today
+
+`wifi-densepose-engine/src/lib.rs` is the proof-of-composition. One `process_cycle` (`lib.rs:285-368`):
+
+1. ADR-138 array coordination (only if every node's geometry is registered, `lib.rs:372-389`)
+2. ADR-137 `fuse_scored_calibrated` with **per-node calibration epochs** — mismatching `CalibrationId`s raise a contradiction (`lib.rs:304-319`)
+3. ADR-142 change-point → WorldGraph `Event` node (`lib.rs:393-430`)
+4. ADR-141 monotonic privacy demotion on any contradiction (`demote_one`, `lib.rs:452-455`)
+5. ADR-139/140 `SemanticState` with mandatory provenance (evidence ‖ model ‖ calibration ‖ privacy decision) (`lib.rs:336-352`)
+6. BLAKE3 witness over the trust decision (`witness_of`, `lib.rs:437-448`)
+
+The 11 engine tests verify exactly the right invariants: full provenance flow (`cycle_carries_full_provenance`, `lib.rs:487`), contradiction→demotion (`lib.rs:517`), determinism (`lib.rs:535`), calibration-mismatch→Restricted+stable-witness (`lib.rs:648`), privacy-mode attestation chain (`lib.rs:741`), and persist→reload round-trip with **no raw RF in the snapshot** (`live_frame_to_reload_same_contents`, `lib.rs:696-736`).
+
+This is genuinely strong design. But all inputs are synthetic `MultiBandCsiFrame`s constructed in the test module; no ingest crate calls `StreamingEngine` yet.
+
+---
+
+## 5. Strengths
+
+1. **Deterministic witness chain, end to end in design.** ADR-028 proof (`archive/v1/data/proof/verify.py` + SHA-256), ADR-119 BLAKE3 frame witnesses (`bfld/src/signature_hasher.rs`), ADR-136 `CanonicalFrame`/`ComplexSample` LE contracts, and the engine's per-cycle trust witness form a coherent auditability story few sensing systems attempt.
+2. **Privacy as a control plane, not a feature.** BFLD's three structural invariants (`bfld/src/lib.rs:7-11`), hash-rotation (ADR-120), identity-risk scoring (ADR-121), mode registry with hash-chained attestations, and *monotonic* demotion wired to fusion contradictions (engine `lib.rs:327-328`) — uncertainty automatically reduces information release.
+3. **Multistatic fusion with physics-grounded quality.** Attention fusion + GDI + Cramér-Rao bounds + clock-quality gating means geometry and synchronisation deficits are first-class, measurable contradiction sources rather than silent failure modes.
+4. **Test density at the unit level.** 3,890 static test functions; the signal core (473), BFLD (369), and sensing-server (571) are the deepest. ruvsense files average ~14 tests/module.
+5. **Honest self-assessment culture.** ADR-136 §8's "skeleton, not a shipping product" framing, ADR-147's explicit "random weights" disclosure, and homecore's in-source TODO-P2 ledger (`homecore/src/lib.rs:24-31`) make the gap analysis below mostly a matter of reading what the project already admits.
+6. **A real prior research base with negative results.** The sota-2026-05-22 loop catalogued negatives by resolution path (missing-tool / architecture-error / physics-floor) and produced a ship-recipe (N=5 chest-centric placement, 100% coverage for 1–4 occupants) consolidated into ADR-113.
+7. **Hardware path exists and was audited.** ADR-028 (Accepted) and ADR-039 (Accepted, hardware-validated) anchor the ESP32-S3/C6 ingest tier; firmware release process includes real-CSI verification on COM ports.
+
+---
+
+## 6. Honest Gap Analysis — ADR vs Implemented vs Integrated
+
+| Capability | ADR status | Code status | Integrated on live path? |
+|---|---|---|---|
+| Six-stage ruvsense pipeline | ADR-029 **Proposed** | Implemented + tested (310 tests) | Partially — sensing-server has `multistatic_bridge.rs`/`tracker_bridge.rs`, but `RuvSensePipeline` still holds concrete fields with `tick()` only (`mod.rs`); no uniform `Stage<I,O>` chain runs live |
+| Frame contracts (`ComplexSample`, provenance fields, `Stage` traits) | ADR-136 Proposed | Built + 9 acceptance tests (per ADR-136 §8, commit `11f89727f`) | **No** — AC6 600-frame replay witness key and AC7 cross-arch CI matrix not done; provenance fields not populated by live calibration/model stages |
+| Fusion quality / contradictions | ADR-137 Proposed | `fusion_quality.rs` (188 lines, 3 tests) + engine wiring | Engine-tests only |
+| WorldGraph digital twin | ADR-139 Proposed | `wifi-densepose-worldgraph` (4 files, 7 tests) | Engine-tests only; no recorder-backed persistence loop |
+| Privacy control plane | ADR-141 Proposed | `privacy_mode.rs` registry + attestation chain, tested | Engine-tests only; MQTT/HA exposure exists in BFLD but the *engine→BFLD sink* live path is unwired |
+| UWB range fusion | ADR-144 Proposed | **No hardware, no crate** — acknowledged absent (`engine/src/lib.rs:28`) | No |
+| Ablation/leakage eval harness | ADR-145 Proposed | `wifi-densepose-train/src/ablation.rs` exists | Self-labelled "skeleton/scaffolding" (ADR-145 §status) |
+| RF encoder multi-task heads | ADR-146 Proposed | Not trained; `model_id`/`model_version` registry unowned | No — engine stamps `rfenc-v1` as a placeholder string (`lib.rs:338`) |
+| RF foundation encoder | ADR-150 **Proposed** | ADR only | No |
+| World-model forecasting (OccWorld) | ADR-147 (benchmark doc) | Runs on RTX 5080, 72.39M params — **random weights**, no domain checkpoint | No |
+| HomeCore HA port | ADR-125–133 all Proposed | P1 scaffold + siblings; `homecore-server` has **0 tests**; persistence, service mpsc dispatch, device registry, witness integration all deferred (`homecore/src/lib.rs:24-31`) | Partially (API surfaces exist) |
+| BFLD capture path (Nexmon/ESP32 BFI) | ADR-123 Proposed | rvCSI vendored runtime exists for nexmon `.pcap`; BFI-specific capture unverified in this review | Unclear |
+| Drone swarm | ADR-148 In Progress | 17 modules, sim + Candle PPO complete per milestones | **Simulation only** — M3's 15% requires physical ESP32-S3 CSI capture (ADR-148:946) |
+| Federation / DP-SGD / PQC | ADR-105–109 Proposed | `ruview-fed` crate **does not exist** (roadmap Tier 2 item) | No |
+| Antenna-placement CLI (`plan-antennas`) | ADR-113 Proposed; Roadmap Tier 1.1 HIGH | numpy references only; not found as a Rust CLI subcommand | No |
+
+**Pattern:** the unit layer is real and deep; the *integration* layer is one crate (`wifi-densepose-engine`) exercised solely by its own synthetic tests; the *model* layer (anything learned: RF encoder, pose model fine-tuned on CSI, OccWorld domain weights) is the emptiest tier. Nearly every ADR ≥118 carries status **Proposed** even where substantial tested code exists — ADR status hygiene lags implementation in both directions (BFLD code outruns its "P1 in progress" header; ADR-148's "98%" outruns its hardware evidence).
+
+---
+
+## 7. Risk Register
+
+| # | Risk | Likelihood | Impact | Evidence / Notes |
+|---|---|---|---|---|
+| R1 | **Integration gap**: trust chain proven only against synthetic in-test frames; live 20 Hz ingest→engine→BFLD-sink path unwired, so the headline guarantee (auditable provenance on every emission) is unverified in production conditions | High | Critical | `engine/src/lib.rs:27-29`; ADR-136 §8 |
+| R2 | **No trained model**: every learned component (RF encoder ADR-146/150, OccWorld ADR-147) is random-weight or absent; sensing claims beyond coherence/occupancy heuristics cannot ship | High | Critical | ADR-147 "random weights"; ADR-146/150 Proposed |
+| R3 | **Synthetic-validation bias**: ruvsense/engine/swarm tests and the sota-loop results (e.g., R3 "100% (synthetic)", ADR-113 placement numbers) are simulation-derived; real-room domain gap unquantified | High | High | `00-summary.md:45`; PRODUCTION-ROADMAP 2.3 ("turns synthetic numbers into validated numbers") |
+| R4 | **Witness chain incomplete at frame level**: `CsiFrame.data` is still `serde(skip)` (ADR-136 Gap 2); AC6 replay-witness key and AC7 cross-architecture matrix not landed — deterministic replay is a design, not a property | Medium | High | ADR-136 §1.1, §8 |
+| R5 | **Float nondeterminism in fusion** across thread counts could silently break the witness/replay contract once wired | Medium | High | ADR-136 §3.3 risk table (project's own assessment) |
+| R6 | **Privacy bypass via unwired paths**: BFLD invariants are enforced per-module, but until the engine is the *only* route from ingest to API, a sensing-server endpoint can emit ungated state (sensing-server already has 30+ modules incl. pose/vitals APIs predating the control plane) | Medium | Critical | `sensing-server/src/` module list vs engine isolation |
+| R7 | **Hardware dependence + scale**: multistatic TDMA/channel-hopping timing validated on small ESP32 sets; ADR-148 M3 explicitly blocked on real hardware; clock-quality model in engine uses a hardcoded `ClockQualityScore` (`engine/src/lib.rs:384`) | Medium | High | ADR-148:946; hardcoded 50 µs stdev |
+| R8 | **ADR/doc/status drift**: 150 ADRs with near-universal "Proposed" status, stale in-source status headers (`bfld/src/lib.rs:12`), CLAUDE.md "16 ruvsense modules" vs 22 on disk, duplicate ADR numbers (two ADR-050s, two ADR-147s, two ADR-149s, ADR-052 ×2) — institutional-memory value degrades | High | Medium | `ls docs/adr/`; this review §3 |
+| R9 | **Workspace breadth vs maintenance capacity**: 38 workspace crates + 4 vendored subtrees + Python archive + firmware; several crates have 0 tests (`homecore-server`, `nvsim-server`, `wifi-densepose-wasm`, `homecore-plugin-example`); bus factor appears to be ~1 | High | Medium | crate test-count table §2 |
+| R10 | **Eval debt**: no end-to-end accuracy benchmark on real CSI with ground truth exists in-repo (ADR-145 harness is scaffolding; ADR-079 camera ground truth not exercised here) — "beyond SOTA" claims are currently unfalsifiable | High | High | ADR-145 status note; absence of ground-truth datasets in tree |
+
+---
+
+## 8. Measurement Appendix
+
+- Test counts: `grep -r '#[test]'` / `#[tokio::test]` per crate directory, 2026-06-09. Workspace totals: 3,890 / 121. Top crates: `wasm-edge` 643, `sensing-server` 557+14, `signal` 473, `bfld` 369, `ruv-neural` 364, `train` 312, `mat` 165+9, `wifiscan` 150, `hardware` 137, `ruvector` 136, `ruview-swarm` 115+19.
+- ruvsense per-file lines/tests: `wc -l` + per-file `grep -c '#[test]'` (table in §3).
+- Crate inventory: `ls v2/crates/` → 38 directories.
+- ADR inventory: `ls docs/adr/` → 150 numbered files (with the duplicate numbers noted in R8); `docs/adr/README.md` self-reports "45 ADRs" (stale).
+- Caveats: static `#[test]` counts include `#[cfg(feature = ...)]`-gated and ignored tests; they are an upper bound on what `cargo test --workspace --no-default-features` runs. No cargo build/test was executed for this review.
+
+*Next in series: 01+ documents should target the R1/R2/R10 axis — wiring the live path, training the RF encoder, and standing up a falsifiable real-CSI benchmark — before any "beyond SOTA" claim is made.*

docs/research/ruview-beyond-sota/01-sota-landscape-2026.md

@@ -0,0 +1,191 @@
+# SOTA Landscape 2026 — The Bar a Beyond-SOTA RuView Must Clear
+
+**Series**: ruview-beyond-sota (01)
+**Date**: 2026-06-09
+**Status**: Research survey / target definition
+**Builds on (does not duplicate)**: `docs/research/sota-2026-05-22/00-summary.md` (physics floors, placement, privacy chain), `docs/research/BFLD/01-sota-survey.md` (beamforming-feedback leakage SOTA), `docs/research/neural-decoding/21-sota-neural-decoding-landscape.md` (sensor-fidelity framing), `docs/research/rf-topological-sensing/00-rf-topological-sensing-index.md` (mincut/topology resolution limits), ADR-150 (RF foundation encoder + measured MM-Fi campaign), ADR-147 (OccWorld benchmark proof).
+
+## 0. Evidence legend
+
+Every claim in this document carries one of three tags. **No RuView benchmark number in this document is invented**; all RuView numbers come from repo-internal measured artifacts.
+
+| Tag | Meaning |
+|-----|---------|
+| **[V]** | Verified in this session via web search (June 2026); source linked in §8 |
+| **[K]** | Training-knowledge claim (pre-2026 literature); plausible but **not re-verified** — treat as needing citation check before external publication |
+| **[I]** | Internal RuView measurement or artifact (ADR, issue, witness bundle) — measured, not literature |
+
+---
+
+## 1. SOTA reference table per capability axis
+
+### 1.1 Pose estimation (WiFi CSI)
+
+| Method | Year | Metric | Dataset / protocol | Tag |
+|--------|------|--------|--------------------|-----|
+| DensePose From WiFi (Geng, Huang, De la Torre) | 2023 | Dense-pose UV regions from CSI, "comparable to image-based approaches" (same-layout); commonly cited AP≈43.5 / AP@50≈87.2 | 3×3 antenna, single-layout lab | exact AP numbers **[K]**; paper existence **[V]** (arXiv 2301.00250) |
+| MetaFi++ (Zhou et al.) | 2023 | PCK@50 = **97.30%** same-domain real-world (MetaFi: 95.23%); drops to **81.7–86.5%** under stricter protocols | Own capture; protocol-sensitive | **[V]** |
+| Person-in-WiFi 3D (CVPR 2024) | 2024 | End-to-end multi-person 3D; 20.4 M params, **54 FPS**; MPJPE ≈ 90–100 mm on own dataset | Own multi-person dataset | FPS/params **[V]**; MPJPE range **[K]** |
+| GraphPose-Fi (arXiv 2511.19105) | 2025 | SOTA on MM-Fi random split: **MPJPE 160.6 mm**, best PCK at all thresholds | MM-Fi, random split (S1) | **[V]** |
+| CSDS (Electronics 14(4):756) | 2025 | Wi-Pose: PCK@5 = **0.6407**, PCK@50 = **0.8824** | Wi-Pose | **[V]** |
+| PerceptAlign (arXiv 2601.12252) | 2026 | Cross-layout 3D: MPJPE **222.4 mm** (Scene 4) / **317.1 mm** (Scene 5), >54% better than prior cross-layout SOTA; in easier settings MPJPE 181.5 mm, PCK@20/50 = 44.2/79.5 | Cross-layout protocol | **[V]** |
+| WiFlow (arXiv 2602.08661) | 2026 | Lightweight continuous HPE, spatio-temporal decoupling | — | **[V]** (existence; numbers not extracted) |
+| **RuView / AetherArena** | 2026 | **81.63% torso-PCK@20 in-domain (random split), beating MultiFormer's 72.25%** on metric/protocol-matched MM-Fi; **leakage-free cross-subject collapses to ~11.6% torso-PCK zero-shot**; official-split harness baseline ~63–65% PCK@20; **11 KB LoRA few-shot calibration → 72.5%** | MM-Fi (issue #876, ADR-150 §3) | **[I]** |
+
+**The honest reading of the pose axis**: same-domain WiFi pose is "solved-looking" (PCK@50 in the 90s) and meaningless for deployment. The 2025–2026 literature has shifted to cross-layout/cross-subject protocols, where numbers collapse (PerceptAlign PCK@20 = 44.2 cross-layout **[V]**; RuView cross-subject zero-shot 11.6% **[I]**). ADR-150's measured finding — that the cross-subject gap is **subject-distribution shift, not an algorithmic gap**, and that **few-shot in-room calibration (5–200 frames) closes it** — is ahead of where the published literature is: no published WiFi-pose paper we found ships a per-room ~11 KB adapter calibration mechanism. **[I]**
+
+### 1.2 Presence / person count
+
+| Method | Year | Metric | Tag |
+|--------|------|--------|-----|
+| Large-scale commodity router deployment (>10 M routers) | 2025 | **92.6% motion-detection accuracy** across diverse homes | **[V]** (ISAC survey, arXiv 2510.14358) |
+| LeakyBeam (NDSS 2025) | 2025 | Occupancy through walls at 20 m from **plaintext BFI alone**: TPR 82.7%, TNR 96.7% | **[V]** (also in BFLD survey §4.2) |
+| Time-Selective RNN multi-room presence (arXiv 2304.13107) | 2023 | Device-free multi-room presence from CSI | **[V]** (existence) |
+| Academic person counting (0–5 occupants, lab) | 2020–2024 | typically 90–97% exact-count accuracy, degrading sharply >5 people | **[K]** |
+| **RuView** | 2026 | `cog-person-count` ships with calibrated uncertainty (`count_p95_low/high`); multistatic placement recipe with **100% coverage for 1–4 occupants at N=5 nodes (synthetic physics)** | **[I]** (sota-2026-05-22 R6.2.5, ADR-113) |
+
+### 1.3 Vital signs (HR / BR)
+
+| Method | Year | Metric | Tag |
+|--------|------|--------|-----|
+| PhaseBeat (ACM Health) | 2020 | HR median error **1.19 bpm**; BR median error **0.25 breaths/min** | **[V]** |
+| MDPI Sensors 24(7):2111 non-contact HR | 2024 | HR accuracy 96.8%, **median error 0.8 bpm** | **[V]** |
+| PulseFi (arXiv 2510.24744) | 2025 | Low-cost ML cardiopulmonary + **apnea** monitoring from CSI | **[V]** (existence; numbers not extracted) |
+| mmWave FMCW vitals (60 GHz class) | 2023–2026 | HR MAE typically 1–3 bpm at 1–3 m, single subject; age-balanced reference dataset published (Sci Data 2026) | dataset **[V]**; MAE range **[K]** |
+| Contactless blood pressure (WiFi-band) | — | **NEGATIVE** — below classical physics floor; recoverable only via quantum magnetometry path | **[I]** (R13/R20 arc, ADR-114) |
+| **RuView** | 2026 | `wifi-densepose-vitals` (ADR-021) extracts HR/BR from ESP32 CSI; chest-centric placement gives **+27 pp coverage** for vitals cogs (synthetic) | **[I]** — **no accuracy-vs-ECG validation number exists in-repo yet; do not claim one** |
+
+**Bar**: published single-subject, line-of-sight, 1–3 m WiFi HR is ~0.8–1.2 bpm median error **[V]**. Nobody credibly publishes multi-person, through-wall, walking-subject HR at that accuracy — that is open territory.
+
+### 1.4 Localization (ToA / CRLB)
+
+| Method | Year | Metric | Tag |
+|--------|------|--------|-----|
+| 802.11mc FTM | shipped | 1–2 m typical accuracy | **[V]** (FTM survey, arXiv 2509.03901) |
+| 802.11az (+ 802.11bk) | released | **sub-1 m**, 160 MHz channels, secured ranging, HE-LTF repetitions | **[V]** |
+| AI single-link decimeter localization | 2025 | **0.63 m average error** single-link, beating Widar2.0 / Dynamic-MUSIC | **[V]** |
+| SpotFi / Chronos / Widar lineage | 2015–2021 | 0.4–1 m with multi-AP CSI AoA/ToF | **[K]** |
+| **RuView** | 2026 | CRLB / Fisher-information machinery in `ruvector/src/viewpoint/geometry.rs`; tomography ISTA voxel grid; **theoretical** limits derived internally: 30–60 cm at 16 nodes/1 m spacing, 8.8 cm information-theoretic dense limit | **[I]** (rf-topological-sensing doc 09 — synthetic derivations, no bench numbers) |
+
+### 1.5 Through-wall
+
+| Method | Year | Metric | Tag |
+|--------|------|--------|-----|
+| RF-Pose / RF-Pose3D (MIT, FMCW 5.4–7.2 GHz) | 2018 | Through-wall skeletal pose, ~specialized radar not commodity WiFi | **[K]** |
+| Commodity 2.4 GHz through-wall imaging (arXiv 1903.03895) | 2019 | Coarse imaging through walls with commodity WiFi | **[V]** (existence) |
+| Radio tomographic imaging (RTI) lineage | 2010–2013 | Through-wall tracking via RSS networks, ~0.5–1 m tracking error | **[V]** (papers) / error figure **[K]** |
+| LeakyBeam (NDSS 2025) | 2025 | Through-wall **occupancy** at 20 m, passive, commodity | **[V]** |
+| **RuView** | 2026 | RF tomography module (`tomography.rs`, ISTA L1 voxel solver) + CIR (ADR-134) exist as code; **PABS structure detection: 1,161× static / 9.36× dynamic intruder lift (synthetic)** | **[I]** |
+
+Notably, the 2025–2026 web literature shows through-wall *pose* (not just presence) on commodity WiFi remains essentially where it was in 2019 — no verified commodity-WiFi through-wall pose benchmark surfaced in our searches. The frontier moved to privacy attacks (BFI) instead.
+
+### 1.6 Identity / re-ID (capability and threat simultaneously)
+
+| Method | Year | Metric | Tag |
+|--------|------|--------|-----|
+| BFId (KIT, ACM CCS 2025) | 2025 | **~99.5% (near-100%) re-ID across 197 subjects** from beamforming feedback alone, ≥5 s of BFI | **[V]** (also BFLD survey §4.1) |
+| Transformer CSI identification | 2025 | **99.82%** on stationary subjects | **[V]** |
+| WhoFi (arXiv 2507.12869) | 2025 | Deep person re-ID via WiFi channel encoding, ~95% rank-1 class results | existence **[V]**; exact number **[K]** |
+| Wi-Gait | 2023 | 92.9% over 10 subjects, robust to walking cofactors | **[V]** |
+| **RuView** | 2026 | AETHER contrastive re-ID embeddings (ADR-024) in pose tracker; **BFLD**: first *defensive* identity-leak detector (identity_risk_score) — the literature attacks, RuView audits | **[I]** |
+
+### 1.7 Adjacent modality: mmWave radar (the accuracy ceiling WiFi is chasing)
+
+| Method | Year | Metric | Tag |
+|--------|------|--------|-----|
+| mmChainPose | 2025 | **27.0 mm MPJPE** / 0.8706 OKS on MARS (mmWave point cloud) | **[V]** |
+| ProbRadarM3F (arXiv 2405.05164) | 2024–25 | SOTA AP across joints, probability-map fusion | **[V]** |
+| Seeed MR60BHA2-class 60 GHz FMCW | shipped | Commodity $15 HR/BR/presence module — already in RuView's hardware table | **[I]** |
+
+mmWave is ~6× better than the best WiFi MPJPE (27 mm vs 160 mm) **[V]**. The strategic implication: WiFi will not beat mmWave on raw geometry; it wins on ubiquity, cost, through-wall propagation, and standardized waveforms (§2). RuView already hedges with the ESP32-C6 + MR60BHA2 fusion node. **[I]**
+
+---
+
+## 2. IEEE 802.11bf — status and implications
+
+**Status (verified)**: IEEE **802.11bf-2025 is ratified and published** (IEEE SA lists the amendment; ratification late 2024 / publication 2025) **[V]**. It amends MAC/PHY of HE (Wi-Fi 6) and EHT (Wi-Fi 7) plus DMG/EDMG (60 GHz) to support WLAN sensing in 1–7.125 GHz and >45 GHz bands **[V]**. The Wi-Fi Alliance has Wi-Fi Sensing as an active certification work area built on 802.11bf (presence/proximity, gestures, vital signs) **[V]**. Market reports claim >47 chipset vendors with 802.11bf-compatible programs as of early 2026 — single weak source, treat as directional **[V, low confidence]**.
+
+**What it implies for RuView**:
+
+1. **Sounding-on-demand becomes standard.** 802.11bf defines a sensing-measurement procedure (sensing initiator/responder, trigger-based sounding, threshold-based reporting). Today RuView relies on Espressif's vendor CSI API and Nexmon firmware patches; post-bf, commodity Wi-Fi 7 silicon will expose scheduled sensing measurements without firmware hacks. The rvCSI normalized `CsiFrame` schema is the right abstraction layer to absorb a future bf adapter (`rvcsi-adapter-*`). **[I]**
+2. **The moat moves up the stack.** When every router can sense, raw CSI access stops being differentiating. Differentiators become: multistatic fusion, coherence gating / anti-hallucination, calibration mechanisms, witness-grade verification, and privacy auditing — exactly RuView's existing bets (ADR-029/135/150/028, BFLD). **[I]**
+3. **Privacy pressure intensifies.** 802.11bf standardizes the capability that BFId/LeakyBeam exploit. BFLD's identity-leak detection and the ADR-105–109 privacy/PQC chain become regulatory assets, not nice-to-haves. **[V]+[I]**
+4. **Threshold-based reporting** in bf (report only when channel changes exceed threshold) is architecturally the same idea as RuView's coherence gate — validation that the gate belongs at the protocol layer. **[K]** (bf reporting detail from training knowledge)
+
+---
+
+## 3. RF foundation model landscape ("GPT for RF")
+
+Verified 2025–2026 attempts, all young, none dominant:
+
+| Model | Approach | Downstream tasks | Tag |
+|-------|----------|------------------|-----|
+| **LWM (Large Wireless Model)** | Pretrained on large-scale CSI → general channel embeddings | LoS/NLoS, beats raw features in low-data regimes | **[V]** |
+| **LatentWave** (arXiv 2606.06373) | JEPA pretraining on wireless spectrograms + CSI | RF classification, 5G NR positioning, beam prediction, LoS/NLoS | **[V]** |
+| **WirelessJEPA** (arXiv 2601.20190) | Multi-antenna spatio-temporal latent prediction | Cross-task transfer | **[V]** |
+| **IQFM** | Contrastive SSL on raw I/Q | Modulation classification, beam prediction, RF fingerprinting, few-shot | **[V]** |
+| **Multimodal Wireless FMs** (arXiv 2511.15162), **WMFM** (arXiv 2512.23897), **SoM** (arXiv 2506.07647) | Vision + RF multimodal for 6G ISAC | Sensing-communication integration | **[V]** |
+| **DeepSig OmniSIG** | Commercial AI-native RF sensing, 500 MHz/GPU spectrum | Signal ID (LTE/5G/Wi-Fi) | **[V]** |
+
+**Critical observation**: every verified RF foundation model targets *communication-side* tasks (beam prediction, LoS/NLoS, modulation, positioning). **None of them is a human-sensing foundation model** — none pretrains for pose/vitals/identity invariances. ADR-150's measured negative result is the sharpest data point in this space: pose-contrastive pretraining across subjects **failed on MM-Fi because the invariance is not in the data** (loss never left the ln(B) floor) **[I]**. The literature has not yet published this failure mode; the field's "GPT for RF sensing" narrative is ahead of its evidence. The defensible foundation-model objective (per ADR-150 §3.5–3.6) is **reduce few-shot calibration cost**, not zero-shot invariance. **[I]**
+
+---
+
+## 4. "Beyond SOTA" for RuView — precise definition
+
+Targets below are **bar definitions**, not claims. RuView numbers in the "current" column are measured [I]; targets must be proven via the AetherArena witness protocol (ADR-149) before being asserted anywhere.
+
+| Capability | Published SOTA (2026) | RuView measured today | RuView beyond-SOTA target | Key obstacle |
+|------------|----------------------|----------------------|---------------------------|--------------|
+| Pose, in-domain (MM-Fi) | GraphPose-Fi 160.6 mm MPJPE; MultiFormer 72.25% torso-PCK@20 **[V]** | **81.63% torso-PCK@20** (already > published) **[I]** | Hold #1 under leakage-free audit + per-joint tables published with witness rows | Protocol fragmentation; reviewers distrust WiFi-pose numbers |
+| Pose, cross-subject zero-shot | ~collapse everywhere; PerceptAlign PCK@20 44.2 cross-layout **[V]** | 11.6% torso zero-shot; 63–65% in-harness official split **[I]** | Stop chasing it (measured dead end); instead **few-shot frontier** below | Subject-distribution shift is in the data, not the model (ADR-150 §3.2) |
+| Pose, deployment calibration | **No published per-room adapter mechanism found** | **11 KB LoRA, 100–200 frames → 72.5%; cross-env K=5 → 60.1%** **[I]** | ≤20 frames → ≥70% PCK@20, adapter ≤11 KB, 30 s on-site; publish as the first calibration-service benchmark | Needs diverse-room capture fleet to validate beyond MM-Fi |
+| Presence/motion (commodity) | 92.6% across 10 M routers **[V]** | Synthetic placement recipe 100% coverage N=5 **[I]** | ≥99% presence with calibrated p95 bounds on $6–15 ESP32 mesh, bench-validated | All placement numbers are synthetic; Tier-2.3 bench validation outstanding |
+| Person count | ~90–97% lab, ≤5 people **[K]** | cog ships uncertainty intervals **[I]** | Exact count 1–6 people ≥95% with honest intervals, multistatic, real bench | Multi-person CSI superposition; no public multi-occupancy benchmark |
+| Vital signs HR | 0.8–1.2 bpm median, single subject, LoS, 1–3 m **[V]** | No in-repo ECG-validated number — **must not be claimed** | ≤1.5 bpm MAE vs ECG ground truth, *multi-person or through-wall*, witness-bundled | R13 physics floor: ~5 dB shortfall at distance; needs chest-centric placement + PABS |
+| Vital signs BP | NEGATIVE at WiFi band (matches internal R13) | nvsim quantum path only **[I]** | First validated quantum-classical fused bedside vitals (ADR-114) | NV-diamond hardware maturity, 2028+ |
+| Localization | 0.63 m single-link AI; sub-1 m 802.11az **[V]** | CRLB machinery, no bench number **[I]** | ≤30 cm multistatic on ESP32 mesh (internal theory says feasible at N=16) | ESP32 clock sync / phase offset (TDM protocol exists, unproven at this accuracy) |
+| Through-wall | Occupancy yes (LeakyBeam); commodity pose: nothing credible **[V]** | tomography + CIR code, PABS 9.36× lift (synthetic) **[I]** | First witnessed commodity-WiFi through-wall *person localization* (not pose) ≤1 m | Wall attenuation eats the R6.1 4.7 dB multi-scatterer budget |
+| Identity / re-ID | ~99.5% @ 197 subjects (attack) **[V]** | AETHER + **BFLD defensive auditing** (no published competitor) **[I]** | Ship the first identity-leak risk score with DP budget hook; keep re-ID opt-in only | Calibrating risk score at 802.11ax 4/2-bit quantization (BFLD open Q2) |
+| Verification | **Nothing comparable published** — no WiFi-sensing paper ships deterministic re-verification | ADR-028 witness bundles, SHA-256 proof, 7/7 self-verify, 1,031+ tests **[I]** | Make witness-grade reproduction the *expected* standard: every public claim = one-command verification | Community adoption, not technology |
+| Foundation encoder | Comms-task FMs only (LWM/JEPA family) **[V]** | Masked-CSI + coherence head planned; pose-contrastive refuted **[I]** | First *sensing* FM whose acceptance metric is calibration-sample reduction (frames-to-72% halved) | SSL must match production CSI pipeline (ADR-149 resampling risk) |
+
+---
+
+## 5. Where RuView already matches/exceeds published work
+
+1. **In-domain MM-Fi pose** — 81.63% torso-PCK@20 vs MultiFormer 72.25%, metric- and protocol-matched (issue #876). **[I]**
+2. **Deployment-calibration mechanism** — the 11 KB LoRA per-room adapter with measured frames-to-accuracy curves (§3.4–3.6 of ADR-150) has no published equivalent; the literature is still arguing about zero-shot generalization that ADR-150 measured to be a data property.
+3. **Deterministic witness verification** — ADR-028's SHA-256 pipeline proof + self-verifying bundles exceeds the reproducibility practice of every WiFi-sensing paper surveyed (none ship deterministic re-verification).
+4. **Multistatic cost point** — $6–15/node ESP32 mesh with TDM sync, channel hopping, placement recipes (ADR-113) vs literature setups using Intel 5300/AX210 laptops or USRPs; ~$30/bed vs $3,000 clinical monitor framing (R16).
+5. **Defensive identity auditing (BFLD)** — the field publishes attacks (BFId, LeakyBeam, WhoFi); RuView is building the only detector/auditor, plus a PQC-hardened federation privacy chain (ADR-105–109) with no published counterpart.
+6. **Anti-hallucination coherence gating** — confidence gated by RF integrity (ADR-135, ADR-150 §2.4); WiFi-pose papers uniformly lack a "the model knows when the channel is bad" signal.
+7. **Negative-result discipline** — physics floors (R13 BP, R6.1 4.7 dB), refuted pose-contrastive pretraining — published SOTA papers do not report these, which inflates the apparent literature bar.
+
+## 6. Where RuView lags
+
+1. **Bench validation** — nearly all multistatic/placement/tomography numbers are synthetic-physics; the 92.6%-on-10M-routers deployment **[V]** is real-world evidence at a scale RuView cannot approach.
+2. **Vital-sign ground truth** — no in-repo ECG/respiration-belt validated HR/BR error; published work has 0.8 bpm median **[V]**. This is the most urgent claim gap.
+3. **Raw geometric accuracy** — mmWave (27 mm MPJPE **[V]**) and even best-WiFi MPJPE (160.6 mm **[V]**) have no RuView MPJPE counterpart published; AetherArena reports PCK only.
+4. **802.11bf-native capture** — RuView is on vendor CSI APIs and Nexmon patches; no bf sensing-procedure adapter exists yet in rvCSI.
+5. **Multi-person pose** — Person-in-WiFi-3D does end-to-end multi-person at 54 FPS **[V]**; RuView's pose path is effectively single-person (multi-person exists only in count/placement work).
+6. **Dataset scale and diversity** — MM-Fi only; ADR-150 §3.3 shows the binding constraint is room/device/protocol diversity, which requires the capture fleet that doesn't exist yet.
+
+## 7. Strategic synthesis
+
+The 2026 bar is bimodal: **lab in-domain numbers are saturated** (PCK@50 > 95%, HR < 1 bpm) and **deployment numbers are collapsed** (cross-layout PCK@20 ≈ 44, zero-shot cross-subject ≈ 11%). 802.11bf-2025 commoditizes raw sensing; foundation models commoditize comms-side embeddings. "Beyond SOTA" for RuView is therefore *not* a leaderboard delta — it is owning the three layers the field hasn't built: **(a)** witnessed, deterministic, leakage-audited evaluation; **(b)** the few-shot calibration service (11 KB adapters) as the deployment answer the zero-shot literature lacks; **(c)** the privacy/integrity layer (BFLD + coherence gate) that 802.11bf-era regulation will demand. Each row in §4's target table is gated on the AetherArena witness protocol — a target becomes a claim only when it ships with a one-command reproduction.
+
+---
+
+## 8. Verified sources (accessed 2026-06-09 via web search)
+
+Pose: [GraphPose-Fi](https://arxiv.org/html/2511.19105v1) · [PerceptAlign / cross-layout](https://arxiv.org/html/2601.12252) · [CSDS](https://www.mdpi.com/2079-9292/14/4/756) · [Person-in-WiFi 3D](https://aiotgroup.github.io/Person-in-WiFi-3D/) · [DensePose From WiFi](https://arxiv.org/abs/2301.00250) · [MetaFi++](https://www.researchgate.net/publication/369644995_MetaFi_WiFi-Enabled_Transformer-based_Human_Pose_Estimation_for_Metaverse_Avatar_Simulation) · [WiFlow](https://arxiv.org/html/2602.08661v2)
+Vitals: [PhaseBeat](https://dl.acm.org/doi/abs/10.1145/3377165) · [Non-contact HR (Sensors 24:2111)](https://www.mdpi.com/1424-8220/24/7/2111) · [PulseFi](https://arxiv.org/pdf/2510.24744) · [mmWave vitals dataset (Sci Data)](https://www.nature.com/articles/s41597-026-07172-9)
+Localization: [FTM survey 802.11mc/az/bk](https://arxiv.org/abs/2509.03901) · [Decimeter single-link](https://www.ncbi.nlm.nih.gov/pmc/articles/PMC12846125/) · [SelfLoc 802.11az](https://www.mdpi.com/2079-9292/14/13/2675)
+802.11bf: [IEEE SA 802.11bf-2025](https://standards.ieee.org/ieee/802.11bf/11574/) · [TGbf](https://www.ieee802.org/11/Reports/tgbf_update.htm) · [NIST overview](https://www.nist.gov/publications/ieee-80211bf-enabling-widespread-adoption-wi-fi-sensing) · [Wi-Fi Alliance work areas](https://www.wi-fi.org/current-work-areas) · [ISAC survey (10M-router 92.6%)](https://arxiv.org/pdf/2510.14358)
+Identity: [BFId / KIT CCS 2025 coverage](https://www.gblock.app/articles/wifi-signal-person-identification-surveillance-study-may-2026) · [WhoFi](https://arxiv.org/html/2507.12869v1) · [Wi-Gait](https://www.sciencedirect.com/science/article/abs/pii/S1389128623001962) · [LeakyBeam NDSS 2025](https://www.ndss-symposium.org/ndss-paper/lend-me-your-beam-privacy-implications-of-plaintext-beamforming-feedback-in-wifi/)
+Through-wall: [RTI through-wall](https://ieeexplore.ieee.org/document/6214374/) · [Commodity 2.4 GHz imaging](https://arxiv.org/pdf/1903.03895) · [Multi-room presence](https://arxiv.org/pdf/2304.13107)
+Foundation models: [LatentWave](https://arxiv.org/html/2606.06373) · [WirelessJEPA](https://arxiv.org/pdf/2601.20190) · [Multimodal Wireless FMs](https://arxiv.org/pdf/2511.15162) · [WMFM](https://arxiv.org/html/2512.23897) · [SoM](https://arxiv.org/pdf/2506.07647) · [RF-native AI / LWM, IQFM, OmniSIG](https://aicompetence.org/rf-native-ai-models-for-the-invisible-spectrum/)
+mmWave: [mmChainPose](https://www.sciencedirect.com/science/article/abs/pii/S0925231225026918) · [ProbRadarM3F](https://arxiv.org/html/2405.05164v3)
+
+Internal [I] sources: ADR-150 (§1, §3.2–3.6), ADR-147, ADR-028, ADR-113/114, issue #876, `docs/research/sota-2026-05-22/00-summary.md`, `docs/research/BFLD/01-sota-survey.md`, `docs/research/rf-topological-sensing/`.

docs/research/ruview-beyond-sota/02-beyond-sota-architecture.md

@@ -0,0 +1,282 @@
+# RuView Beyond-SOTA Target Architecture
+
+**Series:** ruview-beyond-sota (02)
+**Date:** 2026-06-09
+**Status:** Research design — components marked **PROPOSED** do not exist yet; everything else cites real code.
+**Governing constraint:** ADR-136 §2.1 explicitly rejects renaming/rewriting the workspace. This document designs an **evolution** of the existing 38-crate `v2/` workspace (`v2/Cargo.toml`), not a new system. Every beyond-SOTA layer attaches to the ADR-136 `Stage<I,O>` / `FrameMeta` / `CanonicalFrame` contracts (`docs/adr/ADR-136-ruview-streaming-engine-frame-contracts.md` §2.2–2.5) and preserves the ADR-028 witness chain.
+
+---
+
+## 1. Where the system is today (grounding)
+
+The ADR-136 ten-role pipeline (ingest → signal → fusion → world → models → privacy → store → api → eval → observe) is already mapped 1:1 onto existing crates (ADR-136 §2.1, normative table). The composition root exists: `v2/crates/wifi-densepose-engine/src/lib.rs` wires ADR-135..146 blocks into one `StreamingEngine::process_cycle` that emits a `TrustedOutput` carrying fusion `QualityScore`, privacy class, `SemanticProvenance`, RF-SLAM (`RfSlam` field), and a BLAKE3 `witness: [u8; 32]`.
+
+Key existing substrate this design builds on:
+
+| Substrate | Path | What it gives us |
+|---|---|---|
+| Frame contracts + witness | `v2/crates/wifi-densepose-core/src/types.rs` (`CsiFrame`, `CsiMetadata` + `calibration_id`/`model_id`/`model_version`), ADR-136 `ComplexSample`/`CanonicalFrame` | Deterministic LE bytes, BLAKE3 witness, provenance-append-only boundary rule |
+| Six-stage signal pipeline | `v2/crates/wifi-densepose-signal/src/ruvsense/mod.rs` (+22 modules incl. `cir.rs`, `calibration.rs`, `tomography.rs`, `rf_slam.rs`, `fusion_quality.rs`, `array_coordinator.rs`) | CSI→CIR, baseline calibration, multistatic fusion, coherence gating |
+| Fusion quality + evidence | ADR-137; `ruvsense/multistatic.rs`, `ruvsense/fusion_quality.rs`, `wifi-densepose-ruvector/src/viewpoint/fusion.rs` | `QualityScore` with `EvidenceRef`/`ContradictionFlag`, privacy demotion on contradiction |
+| Digital twin | `v2/crates/wifi-densepose-worldgraph/src/lib.rs` (typed `StableDiGraph`, mandatory `SemanticProvenance`) | Persistent room/sensor/track/belief graph |
+| World model bridge | `v2/crates/wifi-densepose-worldmodel/src/lib.rs` (`OccWorldBridge`, `TrajectoryPrior`, ADR-147) | Occupancy prediction priors into the Kalman tracker |
+| NN + training | `v2/crates/wifi-densepose-train/src/{model.rs,rapid_adapt.rs,ablation.rs,proof.rs,eval.rs,ruview_metrics.rs}`, `wifi-densepose-nn` | Shared backbone + 2 heads, `AdaptationLoss::ContrastiveTTT`, ADR-145 ablation matrix, seeded proof harness |
+| Swarm | `v2/crates/ruview-swarm/src/` (`sensing/{multiview.rs,payload.rs,occworld_bridge.rs}`, `marl/`, `topology.rs`) | Raft/hierarchical-mesh drone coordination with CSI payload (ADR-148) |
+| Edge WASM | `v2/crates/wifi-densepose-wasm-edge/src/lib.rs` (WASM3 on ESP32-S3, `on_frame` host ABI), `wifi-densepose-wasm` | Hot-loadable on-device sensing modules |
+| Quantum-adjacent sim | `v2/crates/nvsim/src/lib.rs` (deterministic NV-magnetometry forward pipeline, SHA-256 witness, WASM-ready) | Honest classical-quantum hybrid substrate (ADR-089) |
+| Semantic record + agents | ADR-140 (`wifi-densepose-sensing-server/src/semantic/`), `homecore-assist` | Provenance-bearing semantic states, Ruflo agent bridge |
+
+---
+
+## 2. Target architecture diagram
+
+The beyond-SOTA layers (★ = new/PROPOSED, ☆ = exists-but-not-wired) wrap the ADR-136 pipeline; nothing replaces it.
+
+```
+                            ╔═══════════════════ BEYOND-SOTA CONTROL PLANE ═══════════════════╗
+                            ║  P6 Continual adaptation loop (TTT + EWC★)   P5 Swarm aperture   ║
+                            ║  rapid_adapt.rs → encoder LoRA deltas        planner★ (Raft)     ║
+                            ╚════════════▲══════════════════════▲══════════════▲══════════════╝
+                                         │ adaptation deltas    │ quality      │ tasking
+ [ingest]            [signal]            │      [fusion]        │  [world]     │        [models]
+ ESP32/Pi mesh ─► RuvSensePipeline ──────┴──► fuse_scored ──────┴─► WorldGraph ┴──► RF Foundation
+ + drone payload    multiband→phase_align     (ADR-137           (ADR-139      │    Encoder (P1)
+ (ruview-swarm      →calibration(135)         QualityScore,      twin) ◄───────┘    7 heads + UQ
+  sensing/payload)  →cir(134)→multistatic     EvidenceRef,         ▲  │             (ADR-146/150)
+      │             →coherence→gate           Contradiction)       │  ▼                  │
+      │                  │                        │            RF-SLAM(143)──OccWorld    │
+      ▼                  ▼                        │            rf_slam.rs    worldmodel  ▼
+ P7 WASM edge      P2 Differentiable RF           │            (P3 closed loop ☆)   P4 cross-modal
+ inference★        forward model★                 │                                 distilled student★
+ (wasm-edge,       (tomography.rs +               │                                 (camera-free deploy)
+  deterministic    cir.rs ISTA as seed)           │
+  replay)               │ residuals feed fusion as EvidenceRef★
+      │                 ▼
+      │            P8 NV-magnetometry fusion★ (nvsim forward model as a sensing node class)
+      ▼
+ ─────────────────────── ADR-136 CONTRACT SPINE (unchanged) ───────────────────────────────────
+  CsiFrame{ComplexSample, FrameMeta{calibration_id, model_id, model_version}} → Stage<I,O>
+  → CanonicalFrame::witness_hash() at EVERY stage boundary (BLAKE3, LE-deterministic)
+ ───────────────────────────────────────────────────────────────────────────────────────────────
+      │                    │                      │                  │
+   [privacy]            [store]                [api]              [eval]            [observe]
+   wifi-densepose-bfld  homecore-recorder     homecore-api       ADR-145 ablation   homecore-
+   gate + demotion      + replay corpus★      /HA/Matter/HAP     (train/ablation.rs automation,
+   (ADR-141)                                                      + P1-P8 variants)  Ruflo (ADR-140)
+```
+
+---
+
+## 3. The eight pillars
+
+Each pillar: what / why beyond-SOTA / builds-on / contract sketch / feasibility. All trait sketches are **PROPOSED** unless a path is cited.
+
+### P1 — RF Foundation Encoder with multitask uncertainty heads (ADR-146 + ADR-150)
+
+**What.** One shared, self-supervised RF encoder (`wifi-densepose-nn`) with seven typed heads (pose, presence, count, activity, vitals, gait, identity-embedding), each emitting calibrated uncertainty via the ADR-136 `QualityScored` trait, trained with the ADR-150 pose-contrastive objective (same-pose-across-subjects = positive) plus a coherence head that exposes channel instability.
+
+**Why beyond SOTA.** Published WiFi-pose systems (MultiFormer, GraphPose-Fi lineage) report in-domain accuracy and hallucinate under domain shift. ADR-150 documents the real measured frontier: 81.63% torso-PCK@20 in-domain on MM-Fi vs ~11.6% leakage-free cross-subject, and that DANN and bigger capacity both failed (ADR-150 §1). A foundation encoder whose loss stack explicitly separates pose / identity / room / device factors *and* emits an RF-integrity signal per prediction is not in the published literature as a deployed, auditable artifact. Target (not a claim): close the cross-subject gap materially while every head output carries `confidence_bounds()`.
+
+**Builds on.** `v2/crates/wifi-densepose-train/src/model.rs` (`WiFiDensePoseModel`, `kp_head`/`dp_head`); `v2/crates/wifi-densepose-sensing-server/src/embedding.rs` (`ProjectionHead` + LoRA + `info_nce_loss` — the existing seventh head, ADR-146 §1.1); `v2/crates/wifi-densepose-train/src/rapid_adapt.rs` (ContrastiveTTT precedent); ADR-146 §1.4 head fan-out; ADR-150 §2 loss stack.
+
+**Contract sketch** (lands in `wifi-densepose-nn`, per ADR-146 §1.3):
+```rust
+pub trait RfEncoder: Send + Sync {
+    fn encode(&self, window: &CsiWindowTensor) -> Embedding;        // z ∈ R^d_model
+    fn model_id(&self) -> u16;                                       // FrameMeta binding (ADR-136 §2.2)
+}
+pub trait TaskHead<O: QualityScored>: Send + Sync {
+    fn name(&self) -> &'static str;
+    fn forward(&self, z: &Embedding) -> O;                           // value + uncertainty bounds
+}
+pub struct MultiTaskOutput { /* per-head QualityScored outputs + coherence: f32 */ }
+```
+
+**Feasibility: HIGH for the architecture, MEDIUM for the headline result.** The pure-Rust f32 ABI is proven (`embedding.rs`), the head taxonomy is specified (ADR-146), and the ablation harness to measure it exists (`wifi-densepose-train/src/ablation.rs`). The risk is scientific, not engineering: ADR-150's own data shows naive approaches fail; the pose-contrastive objective is plausible but unproven at scale. Mitigation: ADR-150 §3's frozen-decoder three-variant experiment gates promotion.
+
+### P2 — Physics-informed differentiable RF forward model (PROPOSED)
+
+**What.** A differentiable forward model `render(scene, link_geometry) -> predicted CSI/CIR` used three ways: (1) as a regularizer in encoder training (predictions must be consistent with a Born-approximation scattering model), (2) as an analysis-by-synthesis residual at inference (`|observed − rendered|` becomes an ADR-137 `EvidenceRef`), (3) as a synthetic-data generator complementing MM-Fi (ADR-015).
+
+**Why beyond SOTA.** Published WiFi sensing is almost entirely discriminative; physics-informed neural fields exist for vision (NeRF) and acoustics but no deployed RF-human-sensing stack closes the loop *forward model → residual → fusion evidence → privacy decision*. Making physics disagreement a first-class, witnessed contradiction flag is novel system design, not just a model.
+
+**Builds on.** The codebase already contains the seed of the forward model: `v2/crates/wifi-densepose-signal/src/ruvsense/tomography.rs` (`RfTomographer`, `LinkGeometry`, `OccupancyVolume` — a linear shadowing forward model inverted by ISTA), `ruvsense/cir.rs` (sub-DFT sensing matrix Φ, ISTA L1 — ADR-134), ADR-143 §1.3 (bistatic excess-delay geometry, the exact ray equations), and `nvsim` as the in-repo precedent for a *deterministic, witness-hashed forward physics pipeline* (`v2/crates/nvsim/src/{propagation.rs,pipeline.rs,proof.rs}`).
+
+**Contract sketch** (new module `wifi-densepose-signal/src/ruvsense/forward_model.rs`, PROPOSED):
+```rust
+pub trait RfForwardModel: Versioned {
+    /// Predict per-link CSI given a voxel scene + body primitive set.
+    fn render(&self, scene: &OccupancyVolume, links: &[LinkGeometry]) -> Vec<PredictedCsi>;
+    /// Physics residual in [0,1]; 0 = perfectly Maxwell/Born-consistent.
+    fn residual(&self, observed: &CsiFrame, rendered: &PredictedCsi) -> PhysicsResidual; // → EvidenceRef
+}
+```
+
+**Feasibility: MEDIUM, with one honest line drawn.** A full Maxwell FDTD-in-the-loop solver is **infeasible** at 20 Hz on this hardware and is a non-goal (§6). What is feasible: a first-order Born / ray-tracing bistatic model (the ADR-143 spheroid geometry generalized), differentiable through finite differences or a small Candle graph, validated against recorded calibration captures (ADR-135 baselines give per-link empty-room ground truth for free). "Maxwell-consistent" should be read as "consistent with a stated first-order approximation, with the approximation order recorded in the witness metadata."
+
+### P3 — RF-SLAM × WorldGraph × OccWorld closed loop (exists in parts, wiring is the work)
+
+**What.** Close the loop: RF-SLAM discovers reflectors/anchors → WorldGraph persists them as `object_anchor` nodes → OccWorld consumes graph occupancy → `TrajectoryPrior`s feed the Kalman tracker → improved tracks refine SLAM association. The environment model becomes self-acquiring and self-correcting (furniture moved ⇒ `BaselineTopologyChange` ⇒ recalibration trigger, ADR-143 §1.4).
+
+**Why beyond SOTA.** Published RF-SLAM work maps *or* tracks; no published consumer system maintains a persistent, provenance-bearing, privacy-rolled-up environmental digital twin (`PrivacyRollup` in `wifi-densepose-worldgraph/src/graph.rs`) that is simultaneously the SLAM map, the automation substrate, and the audit record. The differentiator is the closed loop with evidence edges (`supports`/`contradicts`).
+
+**Builds on.** All three vertices exist: `v2/crates/wifi-densepose-signal/src/ruvsense/rf_slam.rs` (`RfSlam::observe`, line 176, already a field of `StreamingEngine` — `wifi-densepose-engine/src/lib.rs:116`); `v2/crates/wifi-densepose-worldgraph/src/lib.rs`; `v2/crates/wifi-densepose-worldmodel/src/{bridge.rs,occupancy.rs}` (`worldgraph_to_occupancy`, `OccWorldBridge::predict`). The engine already upserts SLAM output and person tracks into the graph. Missing: prior-injection back into `ruvsense/pose_tracker.rs`, and the topology-change → ADR-135 recalibration edge.
+
+**Contract sketch** (extends existing types):
+```rust
+impl StreamingEngine {
+    /// PROPOSED: inject OccWorld priors into the next tracker cycle.
+    pub fn apply_trajectory_priors(&mut self, priors: &[TrajectoryPrior]) -> Vec<WorldId>;
+}
+// WorldEdge gains (PROPOSED): PredictedBy { model_id: u16 }  — prior provenance edge
+```
+
+**Feasibility: HIGH.** This is mostly integration glue between tested crates. The two real risks are already named by ADR-143: no ground-truth oracle in a live home (mitigated by the v1-fixed / v2-flagged rollout, `#[cfg(feature = "rf-slam-v2")]`), and OccWorld's Python subprocess (ADR-147: 375 ms/inference) being off the deterministic path — priors must be treated as advisory, never witness-bearing (§5).
+
+### P4 — Cross-modal distillation: camera-teacher → RF-student, privacy-preserving deployment (PROPOSED)
+
+**What.** Train-time-only camera supervision: a vision pose teacher labels synchronized CSI (MM-Fi already provides paired modalities, ADR-015), distilling dense pose + uncertainty into the P1 encoder. Deployed systems ship **no camera and no camera-derived identity features**; the ADR-145 privacy-leakage metric (membership-inference score in `wifi-densepose-train/src/ablation.rs`) gates that the student does not retain identity.
+
+**Why beyond SOTA.** Camera-supervised WiFi pose is the original DensePose-WiFi recipe; what is *not* published is distillation with a measured, CI-enforced privacy-leakage budget and a witnessed claim that the deployed artifact is camera-free. The beyond-SOTA move is making "privacy-preserving" a *measured property of the release pipeline*, not a marketing adjective.
+
+**Builds on.** `v2/crates/wifi-densepose-train/src/{trainer.rs,losses.rs,dataset.rs}` (training substrate); ADR-015 paired datasets; ADR-145 `FeatureSet` matrix + privacy-leakage scalar; `v2/crates/wifi-densepose-bfld` (`privacy_gate.rs`, `signature_hasher.rs` — runtime identity controls, ADR-120 invariants I1–I3).
+
+**Contract sketch** (in `wifi-densepose-train`, PROPOSED):
+```rust
+pub struct DistillationLoss { pub teacher: TeacherSource, pub temperature: f32, pub uq_transfer: bool }
+pub enum TeacherSource { CachedPoseLabels(PathBuf), /* never a live camera in the serving graph */ }
+/// Release gate: leakage(student) ≤ budget, asserted by the ADR-145 harness per variant.
+pub struct PrivacyBudget { pub max_mia_score: f32 }
+```
+
+**Feasibility: HIGH.** All ingredients exist; the work is a loss term, a label cache format, and a CI gate. The honest caveat: MIA-based leakage scores are a lower bound on real leakage; the budget is a regression tripwire, not a formal guarantee.
+
+### P5 — Swarm-distributed multistatic sensing with Raft-coordinated apertures (ADR-148, partially built)
+
+**What.** Treat the drone swarm + fixed ESP32 mesh as one *reconfigurable multistatic aperture*: a Raft-elected cluster head plans node positions/channel assignments to maximize geometric diversity (GDI) for the current sensing task; per-node frames flow into the same `MultistaticFuser` path as fixed nodes.
+
+**Why beyond SOTA.** Published multistatic WiFi sensing assumes fixed geometry. Closed-loop aperture optimization — moving the sensors to where the Fisher information is — driven by the GDI/Cramér–Rao machinery that already exists in `v2/crates/wifi-densepose-ruvector/src/viewpoint/geometry.rs` (per CLAUDE.md module table: `GeometricDiversityIndex`, Cramér-Rao bounds) is a genuinely new system class for SAR/MAT scenarios.
+
+**Builds on.** `v2/crates/ruview-swarm/src/sensing/{multiview.rs,payload.rs,occworld_bridge.rs}`, `topology.rs`, `planning.rs`, `marl/` (MAPPO, `candle_ppo.rs`); `ruvsense/multistatic.rs` + `array_coordinator.rs` (ADR-138 clock-quality gating — moving nodes will stress exactly this); `wifi-densepose-mat` (the MAT use case).
+
+**Contract sketch** (in `ruview-swarm`, PROPOSED):
+```rust
+pub trait AperturePlanner: Send + Sync {
+    /// Given current twin + task, propose node placements maximizing expected GDI.
+    fn plan(&self, twin: &WorldGraphSnapshot, task: &SwarmTask) -> Vec<(NodeId, Position3D)>;
+}
+// Output flows through Raft (topology.rs) as a normal SwarmTask; frames return as ArrayNodeInput.
+```
+
+**Feasibility: MEDIUM.** Coordination, MARL, and fusion code exist and are tested; the hard physical problems are honest unknowns: airborne CSI phase stability (rotor vibration), clock sync across mobile nodes (ADR-138 gate will reject a lot initially), and ADR-148 §1.3's own regulatory scoping. Simulation-first via `ruview-swarm/src/evals.rs` + `bench_support.rs`; hardware validation is Phase 3.
+
+### P6 — Continual / test-time adaptation with EWC-style forgetting control (PROPOSED on existing TTT)
+
+**What.** Promote `rapid_adapt.rs` from a per-deployment trick to a managed continual-learning loop: TTT/entropy adaptation produces LoRA deltas on the P1 encoder; an EWC (elastic weight consolidation) penalty — **which does not exist in the workspace today** (no EWC match in `wifi-densepose-train/src/rapid_adapt.rs`) — anchors weights important to previously-validated environments; every adaptation step is versioned as a new `model_version` (u16, ADR-136 §2.2) and must re-pass the ADR-145 acceptance matrix before activation.
+
+**Why beyond SOTA.** TTT papers adapt and hope; nothing published couples adaptation to a *deterministic regression gate with witness hashes*, where an adapted model that regresses tier or leaks identity is automatically rejected and the `model_version` provenance lets any semantic state be traced to the exact adaptation step.
+
+**Builds on.** `v2/crates/wifi-densepose-train/src/rapid_adapt.rs` (`AdaptationLoss::ContrastiveTTT`, entropy-minimization variant — lines 8–16); LoRA adapters in `sensing-server/src/embedding.rs` (rank-4 `lora_1`/`lora_2`); ADR-027 MERIDIAN evaluator (`train/src/eval.rs`); ADR-146 §2 calibration-robustness loss.
+
+**Contract sketch** (in `wifi-densepose-train`, PROPOSED):
+```rust
+pub struct EwcPenalty { pub fisher_diag: Vec<f32>, pub anchor: Vec<f32>, pub lambda: f32 }
+pub struct AdaptationStep {
+    pub parent_model_version: u16, pub new_model_version: u16,
+    pub loss: AdaptationLoss, pub ewc: Option<EwcPenalty>,
+    pub acceptance: RuViewAcceptanceResult,           // must be ≥ parent tier
+    pub witness: [u8; 32],                            // hash of delta + acceptance
+}
+```
+
+**Feasibility: HIGH.** EWC over a small LoRA delta is cheap (Fisher diagonal over the replay corpus); the acceptance gate and proof seeds exist (`proof.rs`, `PROOF_SEED = 42`). Risk: online Fisher estimation from unlabeled home data is noisy — start with adaptation restricted to LoRA parameters only, backbone frozen.
+
+### P7 — On-device WASM edge inference with deterministic replay (extends existing Tier-3)
+
+**What.** Push P1 head subsets (presence, vitals, coarse activity) into hot-loadable WASM modules on ESP32-S3, and onto browsers/workers via `wifi-densepose-wasm`. Every edge module's output is replayable: the same `CanonicalFrame` input bytes through the same module hash produce the same output bytes, verified in CI on x86_64/aarch64/wasm32.
+
+**Why beyond SOTA.** Edge WiFi-sensing exists; *bit-deterministic, witness-hashed edge inference with hot-swap and replay parity against the server pipeline* does not appear in published systems. It turns the edge from a trust hole into a witness-chain extension.
+
+**Builds on.** `v2/crates/wifi-densepose-wasm-edge/src/lib.rs` (WASM3 host ABI: `csi_get_*`, `on_frame` at ~20 Hz, ADR-040 Tier 3); `nvsim` as the proof that a no-std-time, no-OS-entropy, seeded-PRNG crate runs identically on wasm32 (`nvsim/src/lib.rs` doc); ADR-136 AC7 cross-architecture byte-stability test.
+
+**Contract sketch** (PROPOSED additions to the wasm-edge host ABI):
+```rust
+// exports added to module lifecycle:
+//   on_replay_begin(seed: u64)              — pins any module-internal PRNG
+//   witness_digest(buf_ptr: i32) -> i32     — module returns BLAKE3 of its output stream
+pub trait EdgeStage: Stage<CsiFrameView, EdgeEvent> { fn module_hash(&self) -> [u8; 32]; }
+```
+
+**Feasibility: HIGH for presence/vitals heads, LOW for full pose on-ESP32.** WASM3 interpretation on Xtensa caps throughput; full 7-head inference stays on Pi/Hailo/browser. Float determinism across native vs WASM needs care (no fast-math, fixed reduction order — same obligation ADR-136 §3.2 already accepts).
+
+### P8 — NV-magnetometry fusion: an honest classical-quantum hybrid (PROPOSED, simulation-first)
+
+**What.** Add `nvsim`-modeled NV-magnetometer nodes as a *fourth sensing modality class* (after CSI, mmWave/ADR-021, BFLD) in the multistatic fusion: near-range (≤ tens of cm, per the physics review) cardiac/respiratory magnetic signatures fused with CSI/mmWave vitals under the ADR-137 evidence contract. Simulation-first: the modality lands end-to-end against `nvsim` before any hardware exists.
+
+**Why beyond SOTA.** Not range — the Ghost Murmur review (`docs/research/quantum-sensing/16-ghost-murmur-ruview-spec.md`) documents why multi-mile cardiac magnetometry contradicts published physics, and this design adopts that conclusion. The beyond-SOTA element is architectural honesty: a fusion engine that can ingest a quantum-sensor modality with explicit, witnessed physics bounds (`nvsim`'s forward model states its approximations and hashes its output, `nvsim/src/proof.rs`), so that when real NV hardware matures, the integration path and the anti-hype guardrails already exist. No published consumer sensing stack has this.
+
+**Builds on.** `v2/crates/nvsim/src/` (scene→source→attenuation→NV ensemble→digitiser, SHA-256 witness, ADR-089); `nvsim-server`; `wifi-densepose-vitals` (mmWave HR/BR — the modality NV would cross-validate); `ruvsense/multistatic.rs` fusion + ADR-137 `EvidenceRef`.
+
+**Contract sketch** (PROPOSED): a `SensorModality::NvMagnetometer` variant on the existing `wifi-densepose-worldgraph` `SensorModality` enum, plus an `ArrayNodeInput` adapter from `nvsim` frames; vitals agreement/disagreement between NV and mmWave becomes an `EvidenceRef`/`ContradictionFlag` pair.
+
+**Feasibility: HIGH in simulation, SPECULATIVE on hardware.** The sim path is days of glue; COTS NV magnetometers with the required sensitivity at consumer cost do not exist in 2026. This pillar's deliverable is the *contract and the simulated validation*, explicitly labeled as such.
+
+---
+
+## 4. Phased implementation plan
+
+Phases are gated by the Pre-Merge Checklist (CLAUDE.md) and the witness chain (§5). Crate names per the ADR-136 §2.1 normative map — no new `ruview_*` crates except where a crate already exists (`ruview-swarm`).
+
+**Phase 0 — Hardening (close the ADR-136 "integration glue" debt).**
+- `wifi-densepose-signal`: wire the full 600-frame `Stage`-chain replay (ADR-136 AC6) and register `streaming_engine_replay_v1` in `archive/v1/data/proof/expected_features.sha256`.
+- CI: cross-architecture witness matrix x86_64/aarch64 (AC7); add wasm32 lane for `nvsim` + `wifi-densepose-wasm`.
+- `wifi-densepose-engine`: populate `FrameMeta.calibration_id`/`model_id` from the live calibration and model-binding stages (currently defaulted — ADR-136 §8).
+- `homecore-recorder`: define the **replay corpus** format (canonical-bytes frame streams + witness manifest) that P4/P6 training and all ablations consume.
+
+**Phase 1 — Encoder + measurement (P1, P4 groundwork, P6 skeleton).**
+- `wifi-densepose-nn`: `RfEncoder`/`TaskHead` traits, seven-head fan-out, UQ layer (ADR-146); relocate `ProjectionHead` from `sensing-server/src/embedding.rs`.
+- `wifi-densepose-train`: `ContrastiveBatcher`, ADR-150 loss stack, distillation loss + cached-teacher format (P4), `EwcPenalty` + `AdaptationStep` (P6); extend `ablation.rs` `FeatureSet` with per-head and per-pillar variants; pin `expected_ablation_*.sha256`.
+- Run the ADR-150 three-variant frozen-decoder experiment; promotion gate on cross-subject delta.
+
+**Phase 2 — Closed loop + edge (P3, P7).**
+- `wifi-densepose-engine`: `apply_trajectory_priors` (OccWorld → `pose_tracker.rs`); `PredictedBy` provenance edge in `wifi-densepose-worldgraph`; topology-change → ADR-135 recalibration trigger.
+- `wifi-densepose-wasm-edge`: replay ABI (`on_replay_begin`, `witness_digest`), presence/vitals head modules; parity test vs server pipeline on identical canonical bytes.
+- Enable `rf-slam-v2` feature on the 7-day validation dataset (ADR-143 gate).
+
+**Phase 3 — Frontier (P2, P5, P8).**
+- `wifi-densepose-signal/src/ruvsense/forward_model.rs`: Born/ray forward model seeded from `tomography.rs`; `PhysicsResidual` → `EvidenceRef`; synthetic-data generator into `train/src/dataset.rs`.
+- `ruview-swarm`: `AperturePlanner` over GDI (`ruvector/src/viewpoint/geometry.rs`); simulation evals in `evals.rs`; airborne CSI stability study before any hardware claim.
+- `nvsim` ↔ `wifi-densepose-engine`: `SensorModality::NvMagnetometer` adapter, simulated NV+mmWave vitals cross-validation in the ablation matrix.
+
+---
+
+## 5. Determinism & witness-chain preservation
+
+The non-negotiable invariant (ADR-136 §2.5–2.6, ADR-028): replaying recorded canonical bytes through the pipeline twice yields byte-identical outputs and equal BLAKE3 witness hashes. Strategy per component class:
+
+1. **Everything on the trust path implements `CanonicalFrame`.** New frame types (`MultiTaskOutput`, `PhysicsResidual`, `AdaptationStep`, edge events, NV frames) get fixed-field-order LE encodings and `witness_hash()`; encoders are the only serializers (no ad-hoc serde on the witness path).
+2. **Inference is witnessed by (input hash, model hash, output hash).** `model_id`/`model_version` on `FrameMeta` already bind frames to models; P1 adds a weights digest so the triple is closed. Pure-Rust f32 inference (ADR-146 ABI) with fixed reduction order; no GPU nondeterminism on the witness path — GPU/libtorch is training-only, and training determinism is pinned by the existing seeds (`proof.rs`: `PROOF_SEED = 42`, `MODEL_SEED = 0`).
+3. **Advisory vs witnessed split.** Components that cannot be made deterministic — the OccWorld Python subprocess (ADR-147), live MARL exploration, any future LLM/agent output (ADR-140 Ruflo) — are **advisory**: their outputs may bias estimates but never enter `to_canonical_bytes()` directly; instead the *decision to use them* is recorded (prior id + content hash) so replay reproduces the decision even if the producer cannot be re-run. The Kalman tracker consumes priors as explicit inputs recorded in the replay corpus.
+4. **Adaptation is a chain of witnessed steps.** P6's `AdaptationStep.witness` hashes (parent version ‖ delta ‖ acceptance result); the active model at any timestamp is reconstructible from the step chain — the model-weights analogue of the frame witness chain.
+5. **Edge parity.** P7 modules must produce the same `witness_digest` as the server-side reference implementation on the AC6 fixture; the module hash joins the firmware `source-hashes.txt` in the ADR-028 witness bundle.
+6. **Witness bundle growth is mechanical.** Each pillar adds expected-hash keys (`forward_model_residual_v1`, `edge_presence_replay_v1`, `nvsim` already ships `proof.rs`) to the existing `verify.py` chain rather than inventing new verification mechanisms.
+
+---
+
+## 6. Explicit non-goals
+
+- **No workspace rename or rewrite.** Reaffirms ADR-136 §2.1/§4.1: no `ruview_*` crate prefix migration, no umbrella crate; pillars land inside the existing crates listed above.
+- **No full-wave Maxwell solver in the runtime loop.** P2 is first-order Born/ray, with the approximation order declared. "Physics-informed" never means FDTD at 20 Hz.
+- **No long-range cardiac magnetometry claims.** P8 is bounded by the physics review in `docs/research/quantum-sensing/16-ghost-murmur-ruview-spec.md`; ranges beyond published MCG physics are out of scope permanently, not just deferred.
+- **No camera in any deployed serving graph** (P4 teachers are train-time, cached-label only) and **no identity recognition as a product feature** — identity embeddings remain in-RAM, hash-rotated (ADR-120 invariants).
+- **No weaponization or LAWS capability in P5**, per ADR-148 §1.3; swarm work targets SAR/MAT and stays behind the ADR-148 regulatory gates.
+- **No fabricated benchmarks.** All pillar performance statements in this document are targets; promotion of any pillar requires the ADR-145 ablation matrix delta plus pinned determinism hashes, in CI, before any external claim.
+- **No new verification mechanisms.** The witness chain extends `verify.py` / BLAKE3 / `expected_*.sha256`; we do not introduce a second, parallel proof system.
+
+---
+
+## 7. Open questions for the next document in this series
+
+1. Airborne CSI phase stability (P5): what does the ADR-138 clock-quality gate measure on a real quadrotor payload?
+2. Forward-model fidelity floor (P2): what Born-residual magnitude on the ADR-135 empty-room captures is "good enough" to be a useful contradiction signal?
+3. Replay-corpus governance (Phase 0): retention, privacy class of recorded canonical bytes, and consent — the recorder stores signal evidence, which is itself sensitive.

docs/research/ruview-beyond-sota/03-benchmark-validation-methodology.md

@@ -0,0 +1,384 @@
+# Beyond-SOTA Validation, Test & Benchmark Methodology
+
+**Series:** `docs/research/ruview-beyond-sota/` · Document 03
+**Date:** 2026-06-09
+**Scope:** How RuView proves (and gates) beyond-SOTA claims using the verification
+infrastructure that already exists in this repository. Every number below is sourced
+from a cited file in this repo; nothing is invented.
+
+---
+
+## 1. The Layered Validation Pyramid
+
+Six layers, cheapest/most-deterministic at the bottom, most expensive/most-credible at
+the top. A beyond-SOTA claim must survive **every layer below it** before it may be
+published from the layer it lives at.
+
+| Layer | What it proves | Tooling | Frequency | Determinism |
+|-------|----------------|---------|-----------|-------------|
+| **L0** Unit/integration tests | Code correctness | `cargo test --workspace --no-default-features` + pytest | per commit | exact |
+| **L1** Deterministic proof + witness bundle | Pipeline is real, unchanged, reproducible | `archive/v1/data/proof/verify.py`, `scripts/generate-witness-bundle.sh` | per merge / release | exact (SHA-256) |
+| **L2** Criterion micro-benchmarks | Compute latency only — never quality (ADR-149 §2) | 15 bench targets across `v2/crates/*/benches/` | nightly / pre-release | statistical |
+| **L3** Dataset-level accuracy eval | Pose/presence/vitals quality vs published SOTA | MM-Fi / Wi-Pose (ADR-015), `ruview_metrics.rs` tiers, ADR-145 ablation harness | per model release | seeded |
+| **L4** Hardware-in-loop | Real CSI on real ESP32, no mocks | COM9 (S3) / COM12 (C6) protocol, witness firmware hashes | per firmware release | A/B controlled |
+| **L5** Field trials / live capture | End-to-end behavior in a real room | live-session captures (e.g. `benchmark_baseline.json`) | campaign | statistical |
+
+### 1.1 L0 — Workspace tests (current counts)
+
+- ADR-028 audit (2026-03-01): **1,031 passed, 0 failed, 8 ignored** for
+  `cargo test --workspace --no-default-features`
+  (`docs/adr/ADR-028-esp32-capability-audit.md` §2).
+- Current `CHANGELOG.md` (Unreleased, cross-platform fix entry): **2,682 workspace
+  tests pass / 0 fail on Windows** — the suite has more than doubled since the audit.
+- `CLAUDE.md` pre-merge gate still cites "1,031+ passed, 0 failed" as the floor.
+
+**Rule:** the post-change test count may never be lower than the pre-change count, and
+failures must be 0. The witness bundle records the full log
+(`test-results/rust-workspace-tests.log`) and an aggregated `summary.txt`
+(`scripts/generate-witness-bundle.sh` step 3).
+
+### 1.2 L1 — Deterministic proof ("Trust Kill Switch") + witness bundle
+
+`archive/v1/data/proof/verify.py` (header comment): feeds 1,000 synthetic CSI frames
+(seed=42, `sample_csi_data.json`) through the **production** `CSIProcessor`
+(`src/core/csi_processor.py`), hashes the first 100 frames' feature output
+(`VERIFICATION_FRAME_COUNT = 100`), and compares against
+`archive/v1/data/proof/expected_features.sha256`.
+
+- **Current published hash (file contents, verified during this investigation):**
+  `f8e76f21a0f9852b70b6d9dd5318239f6b20cbcb4cdd995863263cecdc446f7a`
+- The hash is **environment-coupled** and has been legitimately regenerated before:
+  ADR-028 §5.3 recorded `8c0680d7…` under numpy 2.4.2/scipy 1.17.1; `CHANGELOG.md`
+  (#560 fix) recorded `667eb054…` after 6-decimal quantization + single-thread BLAS
+  pinning (`OMP_NUM_THREADS=1` etc.). Each regeneration must follow the documented
+  procedure: `python verify.py --generate-hash` then `python verify.py` → `VERDICT: PASS`.
+
+`scripts/generate-witness-bundle.sh` packages: witness log + ADR-028, the Python proof
+(verify.py + expected hash + reference-signal metadata), full Rust test log + summary,
+the ADR-134 CIR proof, firmware source/binary SHA-256s, crate version manifest, npm
+tarball SHA-256, and a recipient-side `VERIFY.sh`.
+
+**Accuracy note on check counts:** `CLAUDE.md` describes the recipient verification as
+"7/7 PASS"; the current `VERIFY.sh` embedded in the script performs **10** `check()`
+assertions (witness log, ADR, proof-hash file, tests, firmware hashes, crate manifest,
+npm manifest, Python proof, CIR proof, CIR hash file) but prints a hardcoded
+`"ALL CHECKS PASSED (8/8)"` string (`generate-witness-bundle.sh` line 293). The
+hardcoded count is stale relative to the actual check list — fix it to print
+`${PASS_COUNT}/${PASS_COUNT+FAIL_COUNT}` so the verdict can never silently desynchronize
+from the check inventory.
+
+### 1.3 L2 — Criterion micro-benchmark inventory (all 15 targets)
+
+All bench sources read directly. Per ADR-149 §2 these are **latency regression gates
+only, never quality evidence**.
+
+| Bench target | Crate | Benchmark functions / groups | What it measures | Recorded value or in-source target (citation) |
+|---|---|---|---|---|
+| `engine_cycle.rs` | wifi-densepose-engine | `process_cycle_4nodes_56sc` | One full `StreamingEngine::process_cycle` (fuse + quality + calibration provenance + privacy gate + WorldGraph node), 4-node/56-subcarrier ESP32-S3 HT20 mesh | Budget: **50 ms** (20 Hz) — bench header |
+| `signal_bench.rs` | wifi-densepose-signal | `CSI Preprocessing`, `Phase Sanitization`, `Feature Extraction`, `Motion Detection`, `Full Pipeline` | SOTA signal stages (ADR-014) at varying frame sizes | no recorded baseline |
+| `cir_bench.rs` | wifi-densepose-signal | `cir_estimate` (HT20/HT40/HE20/HE40), `cir_estimate_12link`, `cir_estimator_new` | ADR-134 `CirEstimator::estimate()` per tier; 12-link multistatic amortization; cold-start | no recorded baseline |
+| `calibration_bench.rs` | wifi-densepose-signal | `bench_recorder_record`, `bench_recorder_finalize`, `bench_deviation`, `bench_record_600`, `bench_to_bytes` (K=52/114/242/484) | ADR-135 empty-room baseline recorder + deviation scoring | no recorded baseline |
+| `aether_prefilter_bench.rs` | wifi-densepose-signal | `aether_search_d…_n…_k…` (search vs prefilter) | ADR-084 Pass-2: `EmbeddingHistory::search_prefilter` vs brute force, prefilter_factor=8 | Pass: **≥4× at n=1024** — bench header |
+| `sketch_bench.rs` | wifi-densepose-ruvector | `compare_d128/256/512` × `float_l2`/`float_cosine`/`sketch_hamming` | ADR-084 sketch-vs-float per-pair compare cost (AETHER 128-d, spectrogram 256-d) | Pass: **sketch ≥8× faster** at every dim (ADR-084 threshold 8×–30×) — bench header |
+| `crv_bench.rs` | wifi-densepose-ruvector | `gestalt_classify_single/batch_100`, `sensory_encode_single`, `pipeline_full_session`, `convergence_two_sessions`, `crv_session_create`, `crv_embedding_dimension_scaling` (32/128/384), `crv_stage_vi_partition` | CRV integration throughput | no recorded baseline |
+| `inference_bench.rs` | wifi-densepose-nn | `tensor_ops` (relu/sigmoid/tanh), `densepose_inference`, `translator_inference`, `mock_inference`, `batch_inference` | NN forward-pass cost by input/batch size | no recorded baseline; **`mock_inference` group must never be quoted as a pipeline number** (§6) |
+| `training_bench.rs` | wifi-densepose-train | `interp_114_to_56_batch32`, `interp_scaling`, `compute_interp_weights_114_56`, `synthetic_dataset_get`, `synthetic_epoch`, `config_validate`, PCK over 100 samples | Training preprocessing + metrics hot paths; fixtures fully deterministic (no `rand`) — header | no recorded baseline |
+| `detection_bench.rs` | wifi-densepose-mat | `breathing_detection`, `heartbeat_detection`, `movement_classification`, `detection_pipeline`, localization (triangulation/depth), alert generation | MAT survivor-detection algorithms at varying signal lengths / noise | no recorded baseline |
+| `transport_bench.rs` | wifi-densepose-hardware | `beacon_serialize_16byte/28byte_auth/quic_framed`, `auth_beacon_verify`, `replay_window`, `framed_message` encode/decode, `secure_tdm_cycle` (manual vs QUIC) | TDM beacon crypto + transport | no recorded baseline |
+| `mqtt_throughput.rs` | wifi-densepose-sensing-server | `discovery::build_*`, `state::*`, `rate_limiter::allow_*`, `privacy::decide_*`, `semantic::bus_tick_all_10_primitives` | ADR-115 MQTT hot path | Targets (header): discovery **<5 µs**, state encode **<2 µs**, rate limit **<100 ns**, privacy **<50 ns**, bus tick **<10 µs** |
+| `swarm_bench.rs` | ruview-swarm | `marl_actor_inference`, `rrt_apf_100iter`, `multiview_fusion_3drones`, `demo_coverage_estimate`, `ppo_update_64transitions` | ADR-148 swarm control-loop compute | Measured: **3.3 µs / 43 µs / 54–58.5 ns / 100 ps / 248 µs** (ADR-149 §4.3; `CHANGELOG.md` Performance section) |
+| `pipeline_throughput.rs` | nvsim | `pipeline_run` (sample-count sweep), `witness::run` vs `run_with_witness` | NV-diamond sim throughput + witness overhead | Acceptance: **≥1 kHz** simulated samples/s on Cortex-A53-class CPU — bench header |
+| `state_machine.rs` | homecore | `set` first/warm/no-op, `get` hit/miss, `all_snapshot`, `all_by_domain_light_20_of_100`, `broadcast_fan_out` | HOMECORE state-machine hot paths | no recorded baseline |
+
+**Honest gap — `benchmark_baseline.json` is not a criterion baseline.** The repo-root
+`benchmark_baseline.json` (369.9 KB) contains **1,566 live-capture samples** from a
+2-node session (fields: `tick`, `n_nodes`, `variance`, `motion`, `presence`,
+`confidence`, `est_persons`, `n_persons_rendered`, `kp_spread`, `rssi`) plus a summary
+block — it records **field-trial telemetry (L5)**, not micro-benchmark latencies.
+No file in the repo references it (`grep -rn benchmark_baseline` → 0 hits outside the
+file itself); its producer must be identified and committed (§5.3). Summary values
+(all from the file's `summary` object):
+
+| Metric | Baseline value |
+|---|---:|
+| `total_frames` | 1,566 |
+| `presence_ratio` | 0.9336 (1,462/1,566 frames presence-true) |
+| `confidence_mean` | 0.6433 |
+| `variance_mean` / `variance_std` | 109.36 / 154.13 |
+| `kp_spread_mean` / `kp_spread_std` | 86.73 / 4.52 |
+| `person_count_changes` | 10 |
+
+Criterion latencies that *have* been recorded live in ADR documents instead
+(ADR-147-benchmark-proof.md, ADR-149 §4.3, CHANGELOG Performance) — §5 below defines
+how to consolidate them into a real machine-readable criterion baseline.
+
+### 1.4 L3 — Dataset-level accuracy evaluation
+
+- **Datasets (ADR-015):** primary **MM-Fi** (40 subjects × 27 actions × ~320K frames,
+  1TX×3RX, 114 subcarriers @100 Hz, 17-keypoint COCO + DensePose UV, CC BY-NC 4.0);
+  secondary **Wi-Pose** (12 volunteers × 12 actions × 166,600 packets, 3×3, 30
+  subcarriers). 114→56 subcarrier interpolation via `subcarrier.rs`; validation split =
+  subjects 33–40 held out (ADR-015 Phase 1).
+- **Acceptance tiers:** `wifi-densepose-train/src/ruview_metrics.rs` —
+  PCK@0.2 / OKS / MOTA / vitals rolled into `RuViewTier`
+  (Fail/Bronze/Silver/Gold) (ADR-145 §1.1).
+- **Ablation harness (ADR-145):** 6-variant matrix (`csi_only`, `cir_only`,
+  `csi_plus_cir`, `plus_doppler`, `plus_bfld`, `plus_uwb`-skipped), each variant
+  producing acceptance tier + `SpecMetrics` (presence ≥0.90, localization ≤0.50 m,
+  activity ≥0.70, FP ≤0.05, FN ≤0.10), `LatencyProfile` (p95 ≤100 ms), and
+  `PrivacyLeakage` (MIA `leakage_score` ≤0.05), SHA-256-pinned per variant under
+  `PROOF_SEED=42` (ADR-145 §2.2–2.6). Built at commit `0f336b7d3` (ADR-145
+  implementation status); CLI auto-mode wiring is pending.
+- **Cross-environment:** ADR-027 MERIDIAN `CrossDomainEvaluator`
+  (`wifi-densepose-train/src/eval.rs`) — `domain_gap_ratio`, extended by ADR-145
+  `cross_room_degradation()` with a 17-joint PCK-delta heatmap.
+
+### 1.5 L4 — Hardware-in-loop
+
+- Real CSI nodes: ESP32-S3 on **COM9**, ESP32-C6 + MR60BHA2 on **COM12** (`CLAUDE.md`
+  hardware table). ADR-018 binary frame protocol over UDP:5005 (ADR-028 §3.2/§3.4).
+- ADR-145 Tier-4 test (gated, `#[cfg(feature = "hardware-test")]`): replay a live 30 s
+  COM9 capture through `csi_only` and `csi_plus_cir`; assert no presence regression and
+  p95 < 100 ms.
+- A/B board protocol precedent (`CHANGELOG.md` #987): fixed vs unmodified control board
+  against Apple-Watch ground truth (control pegged 40–49 BPM; fixed 88–91 vs 87 GT) —
+  this fixed-board/control-board + external ground-truth pattern is the required design
+  for all hardware vital-sign claims.
+- Witness bundle pins firmware: per-file SHA-256 of all sources + release binaries
+  (`generate-witness-bundle.sh` step 5).
+
+### 1.6 L5 — Field trials
+
+Live multi-node sessions captured as JSONL/JSON with summary statistics —
+`benchmark_baseline.json` (§1.3) is the existing exemplar. ADR-149 §6 adds the seeded
+`evals/` episode harness (Stage 1 kinematic full-matrix, Stage 2 Gazebo/PX4 SITL on the
+3 median seeds) for the swarm domain.
+
+---
+
+## 2. Beyond-SOTA Acceptance Criteria per Capability Axis
+
+A claim is "beyond SOTA" only with: a named external baseline, an exact metric and
+protocol match, the dataset/split named, the threshold pre-registered, and the
+statistical procedure of §3 followed. Current axes with measured status:
+
+| Axis | Metric (exact) | Dataset / protocol | SOTA baseline | Beyond-SOTA threshold | Measured status (cited) |
+|---|---|---|---|---|---|
+| In-domain pose accuracy | torso-PCK@20: `‖pred−gt‖ ≤ 0.2·‖R-shoulder−L-hip‖` | MM-Fi `random_split` (ratio 0.8, seed 0) | MultiFormer **72.25%** (Table VII); CSI2Pose 68.41% | > 72.25% with 95% CI lower bound above it | Flagship **83.59%**; micro (75,237 params) **74.30%** (`docs/benchmarks/wifi-pose-efficiency-frontier.md`) |
+| Edge efficiency frontier | torso-PCK@20 at deployed precision + params + batch-1 latency | same | MultiFormer 72.25% at full size | Pareto-dominance: smaller **and** above 72.25% at the deployed precision | int8 73.5 KB **74.70%**; int4-QAT 36.7 KB **74.46%**; shipped int4 verified **74.08%**, 0.135 ms 1-thread x86 (same file) |
+| Cross-subject generalization | torso-PCK@20, official MM-Fi cross-subject split (256,608 train / 64,152 test) | leakage-free split | own zero-shot baseline 63.99% | ADR-150 §4 gate: **+≥6 pts cross-subject without losing >2 pts random-split** | Best zero-shot **64.92%** (mixup+TTA+3-seed); gate judged unreachable without new capture (ADR-150 §3.2) |
+| Few-shot calibration (deployment) | PCK@20 after K labeled in-room samples; adapter size | MM-Fi cross-subject & cross-environment splits | zero-shot (64% / 10.6%) | SOTA-level (≳72%) from ≤200 samples with ≤~11 KB per-room adapter | cross-subject ~**72%** @100–200 samples (3 seeds); cross-env **10.6→73.1%** @200, 60.1% @5 (ADR-150 §3.5–3.6) |
+| Swarm SAR localization | CEP50/CEP95 (m), GDOP-stratified | seeded episode distribution (ADR-149 §6), not single geometry | Wi2SAR **5 m** (arxiv 2604.09115, paper-to-paper) | CEP50 < 5 m, IQM over ≥10 seeds, 95% CI excluding 5 m | 1.732 m single synthetic geometry — graded **Low–Medium**, not yet claimable (ADR-149 §7) |
+| Swarm coverage | coverage-rate@240 s; time-to-95% | episode rollouts | Wi2SAR 160k m²/13.5 min | rollout (not analytic) mean+CI beating baseline | 223 s is an analytic estimate — graded **Low** (ADR-149 §7) |
+| Control-loop latency | criterion wall-clock | local hardware, named | 10 ms / 100 Hz budget | all stages ≪ budget | 3.3 µs MARL / 43 µs RRT-APF / 54 ns fusion / 248 µs PPO (ADR-149 §4.3) |
+| World-model trajectory | MDE (m) at 5-frame horizon | RuView CSI-derived occupancy | pre-fine-tune random-weight baseline 9.49 m MDE | **≤1.0 m (2.0 vox)** at 5-frame horizon (ADR-147 §5 target, cited in benchmark-proof §4) | 9.49 m / FDE 16.23 m random weights; 208.45 ms median latency on real CSI (ADR-147-benchmark-proof §4, §7) |
+| Privacy leakage | MIA `leakage_score = 2·(AUC−0.5)` | fixed replay, fixed-seed shadow classifier | chance (0) | ≤ **0.05** (attacker AUC ≤ 0.525) | gate defined, harness built (ADR-145 §2.3) |
+| Vitals (hardware) | BPM error vs wearable ground truth | live A/B board protocol | control board behavior | within physiological agreement of ground truth, stable spread | 88–91 BPM vs 87 GT, spread 59→0 (CHANGELOG #987) |
+
+### Claim-language discipline (from ADR-149 §7 grading)
+
+| Evidence | Permitted language |
+|---|---|
+| Single run / single geometry / analytic estimate | "directional", never "beats SOTA" |
+| Seeded multi-run with CIs vs paper baseline | "exceeds the published X result paper-to-paper" |
+| Same metric, same split, same protocol, CI excludes baseline | "beyond SOTA on <dataset>/<split>" |
+| No public leaderboard exists (swarm CSI-SAR) | never claim "leaderboard standing" (ADR-149 §3) |
+
+---
+
+## 3. Statistical Procedure for Honest Claims
+
+Adopted from ADR-149 §5 (Agarwal 2021 / Gorsane 2022 standard) and the practices
+already used in ADR-150/efficiency-frontier measurements:
+
+1. **Seeds.** ≥10 independent seeds for RL/episodic claims (ADR-149 §5); ≥3 seeds
+   minimum for supervised dataset evals (ADR-150 §3.5 used 3 seeds; report all).
+   Training seeds, eval seeds, and split files are versioned and committed.
+2. **Aggregate.** IQM (not mean/median) for episodic metrics + performance profiles;
+   for dataset accuracy report mean across seeds with each seed's value listed.
+3. **Confidence intervals.** 95% stratified bootstrap, 1,000 resamples (ADR-149 §5;
+   reference impl: `rliable`).
+4. **Paired comparisons.** When comparing model A vs B (e.g. `csi_plus_cir` vs
+   `csi_only`, or ours vs a reproduced baseline), evaluate both on the **identical
+   frozen test frames** and use a paired bootstrap over per-sample correctness
+   (PCK hit/miss is per-joint binary — pair at the joint-sample level). For
+   paper-to-paper comparisons where the baseline cannot be re-run, state so
+   explicitly ("paper-to-paper", ADR-149 §2) and require the CI lower bound to clear
+   the published point value.
+5. **Pre-registration.** The threshold lives in an ADR **before** the run
+   (precedent: ADR-150 §4 gate written before §3.2 measurements; the measurements
+   honestly reported the gate as not met).
+6. **Negative results are recorded.** ADR-150 §1/§3.2 keeps DANN-failed,
+   capacity-hurts, and KD-didn't-help results in the record — required practice.
+7. **Eval episodes (swarm):** 50 fixed, versioned episodes per policy
+   (10 victim layouts × 5 CSI-noise levels), ≥3 baselines (random walk,
+   boustrophedon+triangulation, IPPO) (ADR-149 §5).
+8. **GDOP stratification** for any localization claim, so geometry artifacts cannot
+   produce the headline (ADR-149 §6.3).
+
+---
+
+## 4. Regression-Gate Design (CI Enforcement)
+
+### 4.1 Three gate classes, three tolerances
+
+| Gate class | Source of truth | Tolerance | On breach |
+|---|---|---|---|
+| Determinism hashes | `expected_features.sha256`, `expected_cir_features.sha256`, `expected_calibration_features.sha256`, future `expected_ablation_<slug>.sha256` | **exact (0%)** | exit 1 = FAIL; exit 2 = SKIP only for placeholder hashes (proof.rs `0/1/2` convention, ADR-145 §2.4) |
+| Accuracy / quality metrics | per-variant canonical bytes, quantized 1e-3 (ADR-145 §2.6) | exact after quantization | FAIL CI; tier change requires ADR amendment |
+| Latency / throughput | criterion estimates JSON | **% tolerance per scale** (below) | FAIL on regression beyond tolerance; trend everything |
+
+### 4.2 Criterion baseline file (replaces the current gap)
+
+Today criterion numbers live in prose (ADR-147-benchmark-proof, ADR-149 §4.3,
+CHANGELOG). Formalize:
+
+1. `cargo bench --workspace -- --save-baseline main` on a **named, fixed runner**
+   (ADR-147 used RTX 5080 / specific host; record host + toolchain in the file).
+2. Export `target/criterion/*/estimates.json` point estimates into a committed
+   `v2/benchmarks/criterion-baseline.json`: `{bench_id, crate, p50_ns, host, commit}`.
+3. CI compares new runs against it with scale-aware tolerance — wall-clock noise is
+   proportionally larger at small magnitudes:
+
+| Magnitude | Tolerance | Rationale |
+|---|---|---|
+| < 1 µs (e.g. fusion 54 ns, privacy decide <50 ns target) | ±25% | timer/jitter dominated |
+| 1 µs – 1 ms (MARL 3.3 µs, RRT-APF 43 µs, PPO 248 µs) | ±15% | criterion CI typically <5%, leave CI-runner headroom |
+| > 1 ms (engine cycle vs 50 ms budget, OccWorld ~209 ms) | ±10% **and** absolute budget (50 ms / 500 ms ADR-147 §6) | budgets are the contract |
+
+4. Hard in-source acceptance thresholds remain authoritative regardless of baseline:
+   sketch ≥8× (`sketch_bench.rs`), prefilter ≥4× (`aether_prefilter_bench.rs`),
+   nvsim ≥1 kHz (`pipeline_throughput.rs`), MQTT header targets, ADR-145 p95 ≤100 ms.
+5. Latency stays **out of determinism hashes** (ADR-145 §2.6) but **in** the trended
+   `summary.json`, so sub-threshold drift is visible (ADR-145 §3.2 mitigation).
+
+### 4.3 Live-capture baseline gate (`benchmark_baseline.json`)
+
+Adopt the file as the L5 regression anchor with documented provenance, then gate a
+re-capture of the same scenario (same 2-node placement, same room class) against the
+summary block:
+
+| Field | Baseline | Suggested gate |
+|---|---:|---|
+| `presence_ratio` | 0.9336 | ≥ 0.90 for an occupied-room session |
+| `confidence_mean` | 0.6433 | within ±0.10 |
+| `kp_spread_std` | 4.52 | ≤ 2× baseline (skeleton stability) |
+| `person_count_changes` | 10 / 1,566 frames | ≤ 2× baseline (count flapping — see CHANGELOG #803/#894 clamp bugs this metric would have caught) |
+
+Field-trial gates are **soft** (warn + require human sign-off), never auto-merge
+blockers — environments differ; the gate exists to force an explanation.
+
+### 4.4 Wiring
+
+Pre-merge (`CLAUDE.md` checklist): L0 + L1. Nightly: L2 criterion + ADR-145 Tier-3
+ablation matrix (minutes-scale, ADR-145 §3.2). Release: full witness bundle +
+`VERIFY.sh` + L4 on real COM-port hardware (`CLAUDE.md` firmware rule 6/7).
+
+---
+
+## 5. Reproducibility & External-Witness Requirements
+
+Anyone outside the project must be able to re-run every claimed result:
+
+1. **One command per layer.** `cargo test --workspace --no-default-features`;
+   `python archive/v1/data/proof/verify.py`; `bash scripts/generate-witness-bundle.sh`
+   then `bash VERIFY.sh` inside the bundle; per ADR-150 §4 every accuracy result needs
+   "one-command reproduction" (efficiency frontier publishes its exact command:
+   `python aether-arena/staging/train_efficiency_pareto.py npy/X.npy npy/Y.npy npy/split_random.npy`).
+2. **Pinned numerical environment.** The Python proof requires single-threaded BLAS
+   (`OMP_NUM_THREADS=1`, `OPENBLAS_NUM_THREADS=1`, `MKL_NUM_THREADS=1`,
+   `VECLIB_MAXIMUM_THREADS=1`, `NUMEXPR_NUM_THREADS=1`) and 6-decimal quantization
+   (`HASH_QUANTIZATION_DECIMALS=6`) — the #560 fix in `CHANGELOG.md`; Rust proof
+   runners use coarse u16 quantization at 1e-3 in natural order
+   (`calibration_proof_runner.rs` pattern, ADR-145 §2.6) for libm portability.
+3. **Seeds are constants, committed:** `PROOF_SEED=42`, `MODEL_SEED=0`
+   (`proof.rs`, ADR-015 Phase 5); dataset splits committed as `.npy`
+   (`split_random.npy`); swarm configs as versioned YAML with all seeds (ADR-149 §5).
+4. **Artifacts carry hashes.** Published model artifacts include SHA-256 (HuggingFace
+   `pose_micro_int4.npz`, sha256 `c03eeb…` — efficiency-frontier doc); witness bundle
+   has a `MANIFEST.sha256` over every file; provenance fields
+   (`replay_sha256`, `model_sha256`, `calibration_version`, `privacy_mode`) are bound
+   into ablation proof hashes (ADR-145 §2.7) so a metric cannot be quoted without its
+   exact model + calibration + privacy decision.
+5. **Hardware claims name the hardware.** ADR-147 records RTX 5080 / CUDA 12.8 /
+   PyTorch 2.10.0; nvsim states the Cortex-A53 scaling caveat in the bench header;
+   efficiency-frontier flags ARM validation as pending. Copy this discipline.
+6. **Witness rows.** Every new proof gains rows in `docs/WITNESS-LOG-028.md`
+   (ADR-145 §5.3 adds W-39…W-41) and the bundle's `source-hashes.txt`.
+7. **Secret hygiene in evidence.** Bundle logs pass through
+   `scripts/redact-secrets.py` (ADR-110 wave-5 incident note in
+   `generate-witness-bundle.sh` step 4) — external evidence must never embed `.env`.
+
+---
+
+## 6. Known Measurement Pitfalls (WiFi-sensing specific)
+
+| # | Pitfall | Repo evidence | Mitigation in this methodology |
+|---|---|---|---|
+| 1 | **Subject leakage / split optimism.** In-domain `random_split` has temporal/subject-adjacency effects; the same model family scores 83.6% random-split but ~11.6% torso-PCK on the leakage-free cross-subject split | efficiency-frontier "Controlled claim" footnote; ADR-150 §1, §3.2 | Always report the split name; publish random-split and cross-subject numbers side by side; cross-subject claims only on the official split |
+| 2 | **Per-environment overfitting.** Zero-shot cross-environment collapses to 10.6%; subject-scaling saturates ~63.7% past 16–20 subjects because the residual is room/device shift | ADR-150 §3.3, §3.6 | Cross-room degradation + 17-joint heatmap in every ablation (ADR-145 §2.5); claim deployment accuracy only with the calibration protocol stated (K samples, adapter size) |
+| 3 | **Mock-mode contamination.** Mock firmware missed a real Kconfig threshold bug; the nn crate ships a `mock_inference` criterion group that must never be quoted as pipeline performance | `CLAUDE.md` firmware rule 7; `inference_bench.rs` `bench_mock_inference` | L4 mandatory before firmware release ("Always test with real WiFi CSI, not mock mode"); label mock benches in reports; ADR-147 §7 re-ran the benchmark on real CSI explicitly "no mocks" |
+| 4 | **Single-run point estimates.** 1.732 m localization from one synthetic geometry; 223 s coverage from an analytic formula | ADR-149 §1, §7 | §3 seed/CI protocol; evidence-grade table before publication |
+| 5 | **Random-weight / untrained baselines read as results.** OccWorld MDE 9.49 m is a pre-fine-tuning random-weight reading | ADR-147-benchmark-proof §4 | Label baseline-vs-target explicitly; never aggregate untrained-model numbers into capability claims |
+| 6 | **Latency conflated with quality.** Criterion µs numbers prove no compute bottleneck, nothing about accuracy | ADR-149 §2, §4.3 | L2 is gate-only; quality claims live in L3+ |
+| 7 | **Floating-point nondeterminism breaking proofs.** SciPy FFT SIMD reordering + multithreaded BLAS produced different hashes across CI microarchitectures | CHANGELOG #560; `calibration_proof_runner.rs` lines 1–13 (cited in ADR-145 §2.3) | Quantize before hashing; pin thread env vars; exclude wall-clock from hashes |
+| 8 | **Hash churn without procedure.** Three distinct historical values of the proof hash exist (`8c0680d7…` ADR-028, `667eb054…` CHANGELOG #560, `f8e76f21…` current file) | cited files | Every regeneration via `--generate-hash` + re-verify + CHANGELOG entry + witness bundle refresh |
+| 9 | **Aggregation bugs masking accuracy.** Person count clamped to 1 by EMA mapping; eigenvalue path leaking counts up to 10; both invisible to unit tests for months | CHANGELOG #803, #894 | L5 summary gates on `person_count_changes`/count distributions; convergence tests replaying the live loop |
+| 10 | **Stale verification claims.** `VERIFY.sh` prints hardcoded "(8/8)" over 10 actual checks; `CLAUDE.md` says "7/7" | `generate-witness-bundle.sh` line 293; `CLAUDE.md` | Compute the verdict count; audit doc claims against scripts each release |
+| 11 | **Licensing limits on the eval set.** MM-Fi is CC BY-NC — weights trained solely on it cannot back commercial claims | ADR-015 Consequences | Track dataset license alongside every published number |
+
+---
+
+## 7. Gap List (what must be built to fully execute this methodology)
+
+| Gap | Owner layer | Source |
+|---|---|---|
+| Machine-readable criterion baseline (`v2/benchmarks/criterion-baseline.json`) + CI comparison job | L2 | §4.2 (numbers currently only in ADR prose) |
+| Provenance + producer script for `benchmark_baseline.json`; soft-gate job | L5 | §1.3, §4.3 (zero code references today) |
+| `ruview-cli --ablation mode=auto` wiring + `expected_ablation_<slug>.sha256` (currently placeholders → exit 2) | L3 | ADR-145 implementation status |
+| Seeded swarm `evals/` harness + `evals/RESULTS.md` internal leaderboard | L3/L5 | ADR-149 §6, §8 open issues |
+| Fix `VERIFY.sh` hardcoded verdict count; reconcile `CLAUDE.md` "7/7" | L1 | §1.2 |
+| Curated paired room-A/room-B labeled replay set (frozen, SHA-pinned, never trained on) | L3 | ADR-145 §3.2 |
+| ARM/edge on-device latency validation for the int4 model (x86-only today) | L4 | efficiency-frontier doc ("Pi fleet pending") |
+| Bench validation of the antenna-placement matrix on real hardware | L4 | PRODUCTION-ROADMAP.md Tier 2.3 |
+
+---
+
+## Update — falsifiable occupancy benchmark implemented
+
+`wifi-densepose-train::occupancy_bench` (added this branch) makes the
+presence/person-count claim **falsifiable in code**, directly enforcing the L3
+discipline above. It grades predictions vs ground truth and gates a SOTA claim
+behind a single `claim_allowed` invariant that requires **all** of:
+
+1. `DataProvenance::Measured` — synthetic/mock data is scorable for regression
+   but **never claimable** (anti-mock-contamination; the CLAUDE.md Kconfig-bug
+   lesson made structural).
+2. A leak-free `EvalSplit` — `validate()` refuses any split where a subject *or*
+   environment id appears in both train and test (subject leakage / per-env
+   overfitting).
+3. `n_test ≥ min_test_samples` (small-N guard).
+4. Presence F1 whose **bootstrap-CI lower bound** (deterministic splitmix64,
+   seeded) clears the threshold — not the point estimate.
+5. Count MAE within threshold.
+
+The claim string is unreadable except through the gate (returns `NO_CLAIM`
+otherwise) — same discipline as the `ruview-gamma` acceptance gate. 10 tests
+cover each refusal path. What remains is *data*, not *method*: feed it a frozen,
+SHA-pinned, subject/environment-disjoint **measured** replay set (the curated
+room-A/room-B item above) and the "beyond SOTA" claim becomes a passing or
+failing test, not a slogan.
+
+---
+
+*All values cited from: `benchmark_baseline.json`, `v2/crates/*/benches/*.rs` (15
+files), `docs/adr/ADR-147-benchmark-proof.md`,
+`docs/adr/ADR-149-swarm-benchmarking-evaluation-methodology.md`,
+`docs/adr/ADR-145-ablation-eval-harness-privacy-leakage.md`,
+`docs/adr/ADR-028-esp32-capability-audit.md`,
+`docs/adr/ADR-015-public-dataset-training-strategy.md`,
+`docs/adr/ADR-150-rf-foundation-encoder.md`,
+`docs/benchmarks/wifi-pose-efficiency-frontier.md`,
+`scripts/generate-witness-bundle.sh`, `archive/v1/data/proof/verify.py`,
+`archive/v1/data/proof/expected_features.sha256`, `CHANGELOG.md`, `CLAUDE.md`,
+`docs/research/sota-2026-05-22/PRODUCTION-ROADMAP.md`.*

docs/research/ruview-beyond-sota/04-optimization-roadmap.md

@@ -0,0 +1,252 @@
+# RuView Beyond-SOTA — 04: Performance Review & Optimization Roadmap
+
+**Scope:** the streaming sensing pipeline (CSI ingest → multistatic fusion → CIR gate →
+pose publish) in `v2/`, hot-path crates `wifi-densepose-signal` (ruvsense),
+`wifi-densepose-engine`, `wifi-densepose-ruvector`, plus build-profile and edge-target
+(Pi 5-class, WASM) considerations.
+
+**Hard constraint (non-negotiable):** the witness chain (ADR-028, ADR-136 §2.5 replay
+contract, ADR-137 §2.7 BLAKE3 witness in
+`v2/crates/wifi-densepose-engine/src/lib.rs:437-448`) requires **bit-exact deterministic
+float output**. Every recommendation below is tagged with its determinism risk. Anything
+that reorders float additions, enables FMA contraction, fast-math, or parallel reduction
+**changes the witness hash** and requires a coordinated proof-hash regeneration
+(`verify.py --generate-hash`) plus witness-bundle re-issue.
+
+---
+
+## 1. What we actually have measured (and what we don't)
+
+`/home/user/RuView/benchmark_baseline.json` is a **signal-quality soak baseline**, not a
+latency benchmark: 1,566 samples (ticks 51131–52395) of
+`variance / motion / presence / confidence / est_persons / kp_spread / rssi`, with a
+summary block (`confidence_mean: 0.643`, `presence_ratio: 0.934`,
+`kp_spread_mean: 86.7`, `person_count_changes: 10`). **It contains zero timing data.**
+It is the accuracy guardrail for any optimization (post-change soak must reproduce these
+distributions), not a latency baseline.
+
+Latency benchmarks exist but no committed results were found in the repo:
+
+| Bench | File | What it measures |
+|---|---|---|
+| `process_cycle_4nodes_56sc` | `v2/crates/wifi-densepose-engine/benches/engine_cycle.rs:34-48` | One full engine cycle, 4 nodes × 56 subcarriers, vs. the documented 50 ms budget (`engine_cycle.rs:3-6`) |
+| `cir_bench` | `v2/crates/wifi-densepose-signal/benches/cir_bench.rs` | `CirEstimator::estimate()` per tier (HT20/HT40/HE20/HE40) + 12-link amortization |
+| `sketch_bench` | `v2/crates/wifi-densepose-ruvector/benches/sketch_bench.rs:86-175` | Hamming sketch vs. float L2/cosine compare; top-K over 1,024-sketch bank |
+| `signal_bench`, `calibration_bench`, `aether_prefilter_bench` | `v2/crates/wifi-densepose-signal/benches/` | Signal-path and ADR-135 calibration throughput |
+
+**Action zero of the roadmap is to run these on a Pi 5 and commit the criterion
+baselines.** All impact classes below are derived from operation counts read out of the
+code (cited), not invented measurements.
+
+---
+
+## 2. Latency budget model — streaming pipeline
+
+Two clock domains exist and must not be conflated:
+
+- **TDMA sensing cycle: 20 Hz / 50 ms** — the architecture's own budget
+  (`v2/crates/wifi-densepose-signal/src/ruvsense/mod.rs:5`, `RuvSenseConfig::target_hz =
+  20.0` at `mod.rs:258`, and the bench doc `engine_cycle.rs:3`).
+- **CSI ingest: 100 Hz per node** — raw frames arrive ~5× faster than the fused output
+  rate; per-frame ingest work (parse, normalize, calibrate, window) must therefore fit a
+  **10 ms** per-frame envelope while the fused path fits **< 50 ms end-to-end**.
+
+Proposed per-stage budget for the 50 ms end-to-end target (4 nodes, HT20 / 56
+subcarriers — the configuration the engine bench encodes):
+
+| # | Stage | Code | Budget | Risk (from code reading) |
+|---|---|---|---|---|
+| 1 | Ingest + hardware normalize (per 100 Hz frame) | `hardware_norm`, `multiband.rs` | 2 ms | Low — vector ops on 56 floats |
+| 2 | Calibration apply (ADR-135) | `ruvsense/calibration.rs` | 2 ms | Low — Welford lookups |
+| 3 | Phase alignment | `phase_align.rs:117-152` | 1 ms | Low — ≤ 20 iterations over ≤ 17 static subcarriers (`config.max_iterations: 20`, `phase_align.rs:57`); allocation churn only (§3) |
+| 4 | Multistatic fusion (attention + softmax) | `multistatic.rs:512-598` | 2 ms | Low — O(nodes × 56); but does duplicate work in `fuse_scored` (§3, F2) |
+| 5 | **CIR gate (ISTA L1)** | `multistatic.rs:440-475` → `cir.rs:601-654` | 15 ms | **HIGH** — dominant cost, scales badly with PHY tier (below) |
+| 6 | Coherence score + gate decision | `coherence.rs`, `coherence_gate.rs` | 2 ms | Low — z-scores over 56 subcarriers |
+| 7 | Tomography (ADR-030 tier 2, when enabled) | `tomography.rs:236-323` | 8 ms | **Medium** — per-iteration allocation + loose step size (§3, F8/F9) |
+| 8 | Pose tracker (17-kp Kalman + re-ID) | `pose_tracker.rs` | 8 ms | Medium — sketch prefilter (ADR-084) already mitigates the re-ID scan |
+| 9 | Engine: quality score, privacy gate, WorldGraph node, BLAKE3 witness | `engine/src/lib.rs:304-368` | 5 ms | Low per cycle, but **unbounded memory growth** (§4) |
+| 10 | Publish (WS/serde) | sensing-server | 5 ms | Low |
+| | **Total** | | **50 ms** | |
+
+### Why stage 5 is the at-risk stage — operation counts from the code
+
+`ista_solve` (`cir.rs:601-654`) runs **two dense complex mat-vecs per iteration**
+(`matvec_phi` at `cir.rs:717-726`, `matvec_phi_h` at `cir.rs:730-745`), each O(K·G)
+complex MACs (≈ 8 FLOPs each), up to `max_iters: 100` (`cir.rs:176`). Per
+`CirConfig` (`cir.rs:164-233`):
+
+| Tier | K (active) | G (taps) | FLOPs/iter (2·K·G·8) | FLOPs @100 iters |
+|---|---|---|---|---|
+| HT20 | 52 | 156 | ≈ 0.13 M | ≈ 13 M |
+| HT40 | 114 | 342 | ≈ 0.62 M | ≈ 62 M |
+| HE20 | 242 | 726 | ≈ 2.8 M | ≈ 0.28 G |
+| HE40 | 484 | 1,452 | ≈ 11.2 M | ≈ 1.1 G |
+
+HT20 fits the 15 ms budget comfortably on a Pi 5; **HE40 at worst-case iteration count
+is ~1.1 GFLOP of scalar, cache-unfriendly work per estimate and will not fit any 50 ms
+budget without structural change** (F4 below). Today the gate runs once per cycle on the
+first link only (`multistatic.rs:452-463`), which contains the damage; the 12-link
+amortization pattern in `cir_bench.rs` shows the intended scale-up, which multiplies
+this cost ×12.
+
+---
+
+## 3. Findings table — optimization opportunities
+
+Impact: relative cycle-time/memory effect at the 4-node HT20 operating point unless
+noted. Determinism: **EXACT** = bit-identical output guaranteed; **TIE** = only
+tie-breaking/ordering may differ; **CHANGES-FLOATS** = output bits change, witness/proof
+hash must be regenerated.
+
+| ID | Finding (file:line) | Impact | Effort | Determinism |
+|---|---|---|---|---|
+| F1 | `FusedSensingFrame` deep-copies every input frame each cycle: `node_frames: node_frames.to_vec()` (`multistatic.rs:282`) — clones all per-node amplitude+phase vectors per 50 ms cycle even when downstream geometry consumers don't need them | Med | Low (Arc/Cow or borrow) | EXACT |
+| F2 | `fuse_scored` re-derives the per-node amplitude views and recomputes `node_attention_weights` after `fuse` already computed them inside `attention_weighted_fusion` (`multistatic.rs:311-321` duplicating `multistatic.rs:520`) — full cosine-sim + softmax done twice per cycle | Low-Med | Low (return weights from `fuse`) | EXACT (same math, computed once) |
+| F3 | CIR gate rebuilds a heap `CsiFrame` per cycle: `build_csi_frame_from_channel` allocates an `Array2<Complex64>` and converts amplitude/phase via `from_polar` per subcarrier (`multistatic.rs:488-506`, called from `multistatic.rs:462`), then `extract_csi_vector` converts back to `Complex32` (`cir.rs:505-530`) — f32→f64→f32 round-trip plus two allocations purely as glue | Med | Med (give `CirEstimator` a slice-based entry point) | EXACT if conversions reproduce exactly (f32→f64 is lossless; `from_polar` in f64 then truncate ≠ f32 polar — keep the f64 intermediate to stay exact, or accept CHANGES-FLOATS and regenerate hashes) |
+| F4 | ISTA inner loop uses dense O(K·G) mat-vecs (`cir.rs:717-745`) although Φ is a sub-sampled DFT (`cir.rs:539-558`) — the products Φx and Φᴴr are computable via an FFT of length G in O(G log G), an ~8–40× FLOP cut at HE20/HE40 (table §2) | **High** (the only path to HE40 real-time) | High | **CHANGES-FLOATS** (different summation order than the sequential dot product) — must ship behind a feature flag, A/B against `cir_proof_runner`, regenerate `expected_features.sha256` + witness bundle |
+| F5 | `neumann_warm_start` recomputes the diagonal of ΦᴴΦ with a full K×G pass **per frame** (`cir.rs:676-681`), rebuilds the COO→CSR diagonal matrix per frame (`cir.rs:683-685`), and collects `rhs_re`/`rhs_im` Vecs per frame (`cir.rs:689-690`) — yet `diag` depends only on Φ, which is fixed at `CirEstimator::new` | Med | Low (precompute diag+CSR in `new()`) | EXACT (same values, computed once) |
+| F6 | `phase_variance` collects a `Vec<f32>` of phases per call (`cir.rs:792`) — replaceable by a two-pass loop with zero allocation | Low | Low | EXACT |
+| F7 | Φ and Φᴴ are both stored densely (`cir.rs:546-547`): 2·K·G·8 bytes — Φᴴ entries are just conjugates of Φ (`cir.rs:555`), so a transposed-iteration kernel over Φ alone halves the footprint (HE40: 11.2 MB → 5.6 MB) | Low (latency) / Med (memory §4) | Med | EXACT (conjugation is exact; keep identical accumulation order in the transposed kernel) |
+| F8 | Tomography allocates the gradient vector **inside** the solver iteration loop: `let mut gradient = vec![0.0_f64; self.n_voxels]` (`tomography.rs:266`) — one heap alloc + zeroing per iteration, up to `max_iterations: 100` (`tomography.rs:75`); hoist and `fill(0.0)` | Med (for tier-2 deployments) | Low | EXACT |
+| F9 | Tomography step size uses the Frobenius-norm upper bound for the Lipschitz constant (`tomography.rs:253-259`, comment admits `‖WᵀW‖ ≤ ‖W‖_F²`) — a bound loose by up to the matrix rank, forcing proportionally more ISTA iterations than the power-method estimate used in `cir.rs:566-590` | Med | Low (reuse the cir.rs power-method pattern) | **CHANGES-FLOATS** (different step ⇒ different iterate path) |
+| F10 | `apply_phase_correction` clones the amplitude vector and allocates a fresh corrected-phase Vec per channel per cycle (`phase_align.rs:258-268`, `frame.amplitude.clone()` at `phase_align.rs:264`); `align` additionally `frames.to_vec()`s on the single-channel path (`phase_align.rs:128`) — an in-place `align_mut` avoids all of it | Low-Med | Low | EXACT |
+| F11 | Static-subcarrier selection fully sorts all subcarriers by variance (`phase_align.rs:180`) where `select_nth_unstable_by` suffices — trivial at 56 subcarriers, relevant at HE tiers (242–484) | Low | Low | **TIE** (equal-variance ties may select a different subcarrier set; pin a stable tie-break on index to stay EXACT) |
+| F12 | Engine clones each node's amplitude vector for the array coordinator every cycle: `cf.amplitude.clone()` (`engine/src/lib.rs:385`); also allocates a `Vec<Option<CalibrationId>>` per cycle (`lib.rs:293`) and `format!("{e:?}")` strings for every evidence ref (`lib.rs:337`) | Low | Low | EXACT |
+| F13 | `fuse_scored_calibrated` computes the modal calibration id in O(n²) (`multistatic.rs:404-410`) — harmless at n ≤ 15 nodes, noted for swarm-scale reuse (ADR-148) | Low | Low | EXACT |
+| F14 | **No `rayon` and no SIMD feature exists anywhere in the hot crates** (grep over `crates/*/Cargo.toml`: zero hits for rayon/simd/target-feature outside wasm-opt flags). The 12-link CIR pattern (`cir_bench.rs:4-5`) and the per-node ingest path are embarrassingly parallel **across independent links/nodes** | High (multi-link tiers) | Med | **EXACT if and only if** parallelism stays at link/node granularity with results collected in deterministic (index) order and no shared float accumulator; intra-link parallel reductions are CHANGES-FLOATS and are banned |
+| F15 | `Cir::top_k_taps` clones and fully sorts all G taps (`cir.rs:322-332`) — O(G log G) with a G-sized clone; a k-heap (the exact pattern already written in `sketch.rs:546-563`) is O(G log k) | Low | Low | TIE (equal-magnitude ordering; pin index tie-break) |
+| F16 | Core `CsiFrame` carries `Complex64` while the entire ruvsense DSP path computes in f32 (conversion at `cir.rs:525`) — 2× memory and bandwidth on every ingest for precision the pipeline immediately discards | Med (memory/bandwidth) | High (core type change ripples everywhere) | **CHANGES-FLOATS** at the boundary; defer until a major version |
+| F17 | Sketch path is already well-optimized: heap-based top-K with n ≤ k fast path (`sketch.rs:536-569`), 28-byte wire format (`sketch.rs:303`). Remaining win is build-level: `count_ones()` only lowers to POPCNT/NEON-vcnt when the target CPU enables it (see §5) | Low | Low | EXACT (integer ops) |
+
+---
+
+## 4. Memory-footprint analysis (Pi 5-class and WASM; ESP32 aggregation out of scope)
+
+**Static, per-process (from struct definitions):**
+
+| Component | Sizing source | Footprint |
+|---|---|---|
+| `CirEstimator` HT20 (Φ + Φᴴ, `Complex32`) | `cir.rs:546-547`, K=52 G=156 | 2 · 52 · 156 · 8 B ≈ **130 KB** |
+| `CirEstimator` HE20 | K=242 G=726 | ≈ **2.8 MB** |
+| `CirEstimator` HE40 | K=484 G=1452 | ≈ **11.2 MB** (halvable via F7) |
+| Tomography weight matrix | `tomography.rs:214-217`, sparse per-link (voxel,weight) pairs; default grid 8×8×4 = 256 voxels (`tomography.rs:70-73`) | tens of KB at default grid |
+| Sketch bank, 1,024 × 128-d | `sketch.rs` 1 bit/dim | 1,024 · 16 B ≈ **16 KB** (vs 512 KB float) |
+
+A Pi 5 (4–8 GB) absorbs all of this trivially. The real memory risks are dynamic:
+
+1. **Unbounded WorldGraph growth (the one genuine leak-class issue).** Every
+   `process_cycle` appends a `SemanticState` node plus a `DerivedFrom` edge
+   (`engine/src/lib.rs:346-352`), and change-points append `Event` nodes
+   (`lib.rs:422-428`). At 20 Hz that is **1.73 M nodes/day** with no eviction anywhere
+   in the engine. `snapshot_json` (`lib.rs:191-193`) then serializes the whole graph.
+   **Required:** a retention/compaction policy (ring buffer or time-windowed rollup of
+   SemanticStates). Determinism caveat: eviction changes snapshot *contents* (a product
+   decision), not float math — the per-cycle witness (`lib.rs:437-448`) is unaffected.
+2. **Per-cycle allocation churn** (F1, F3, F5, F8, F10, F12): at 20 Hz this is dozens of
+   short-lived heap allocations per cycle. On a Pi 5 this is allocator pressure and
+   cache pollution rather than RSS growth; on WASM (bump-ish dlmalloc, no MADV_FREE) it
+   inflates the linear memory high-water mark, which is never returned to the host.
+3. **WASM targets.** `wifi-densepose-wasm` is a browser binding crate (JS interop,
+   serde, chrono — `crates/wifi-densepose-wasm/Cargo.toml`) and pulls `wifi-densepose-mat`
+   optionally; it relies on `wasm-opt -O4` (`Cargo.toml` `[package.metadata.wasm-pack]`).
+   `wifi-densepose-wasm-edge` is the disciplined one: `no_std` + `libm`, its own profile
+   `opt-level = "s"`, lto, cgu=1 (`crates/wifi-densepose-wasm-edge/Cargo.toml`). Neither
+   enables `+simd128` (§5). If the CIR estimator is ever compiled to wasm-edge, HE40's
+   11.2 MB of sensing matrix alone is ~700 pages of linear memory — restrict edge WASM
+   to HT20 (130 KB) or ship F4/F7 first.
+
+---
+
+## 5. Build-profile review & recommendations
+
+Current release profile (`v2/Cargo.toml:213-218`) is already aggressive and correct:
+`opt-level = 3`, `lto = true` (fat), `codegen-units = 1`, `panic = "abort"`,
+`strip = true`; `bench` inherits release with debug symbols (`v2/Cargo.toml:225-227`).
+There is nothing wrong to fix here — the gains left are target- and feedback-driven:
+
+1. **Per-target CPU tuning (EXACT, do first).** No `target-cpu` is set anywhere. For
+   Pi 5 fleet builds: `RUSTFLAGS="-C target-cpu=cortex-a76"` — enables NEON scheduling
+   and `vcnt` for the sketch path (F17) without changing IEEE semantics. LLVM does not
+   reassociate float reductions or contract to FMA without explicit fast-math/contract
+   flags, so scalar float results stay bit-exact. **Verify with the existing proof
+   runners** (`cir_proof_runner`, `calibration_proof_runner`,
+   `signal/Cargo.toml`) as the acceptance gate — that is exactly what they exist for.
+2. **WASM SIMD.** Add `-C target-feature=+simd128` for `wifi-densepose-wasm` builds and
+   keep a non-SIMD artifact for older runtimes. Same determinism note as above; gate
+   with the proof runners compiled to wasm where feasible.
+3. **PGO: feasible and determinism-safe.** PGO changes inlining/layout, never FP
+   semantics. The repo already has ideal deterministic training workloads: the proof
+   runner binaries plus `engine_cycle` / `cir_bench`. Pipeline: `cargo pgo build` →
+   run proof runners + benches → `cargo pgo optimize`. Expect mid-single-digit to ~15%
+   on branchy paths (gate decisions, tracker lifecycle); the dense ISTA loop will see
+   little. Cost: CI complexity. Verdict: do it after F1–F12, not before.
+4. **Do not** enable `-ffast-math`-equivalents (`fadd_fast`, `core::intrinsics`,
+   `-C llvm-args=-fp-contract=fast`) anywhere in the witness path. This must be a
+   stated rule in CONTRIBUTING/ADR, not tribal knowledge.
+5. **BOLT / `opt-level` experiments are not worth it** ahead of F4; the pipeline is
+   FLOP-bound in one loop, not front-end bound.
+
+---
+
+## 6. Prioritized 90-day plan
+
+### Phase 0 — Measure (days 1–10)
+- Run and commit criterion baselines on a Pi 5 and an x86 dev box:
+  `engine_cycle`, `cir_bench` (all four tiers), `sketch_bench`, `signal_bench`,
+  `calibration_bench`. The 50 ms claim in `engine_cycle.rs:3` becomes a measured number.
+- Add a lightweight per-stage timing histogram (feature-gated, off in witness builds) at
+  the §2 stage boundaries; wire a CI perf-regression gate (±10%) on the committed
+  baselines.
+- Re-run the soak that produced `benchmark_baseline.json` and pin it as the accuracy
+  guardrail for everything below.
+
+### Phase 1 — Exact, zero-risk wins (days 10–35)
+All EXACT findings; no witness impact; each lands with proof-runner verification:
+- F5 (precompute warm-start diag/CSR in `CirEstimator::new`) — biggest exact CIR win.
+- F8 (hoist tomography gradient buffer), F6, F10, F12, F1, F2 (allocation/duplication
+  removal), F15 + F11 with pinned index tie-breaks.
+- WorldGraph retention policy (the §4.1 unbounded-growth fix) — design ADR + ring-buffer
+  implementation.
+- Expected outcome: measurable cycle-time reduction and flat memory under 24 h soak;
+  **identical witness hashes**.
+
+### Phase 2 — Determinism-managed structural wins (days 35–70)
+Each behind a feature flag, A/B'd against the legacy path (the `use_cir_gate` A/B switch
+at `multistatic.rs:103` is the template), with proof-hash regeneration as an explicit,
+witnessed release event:
+- **F4: FFT-based Φ/Φᴴ application in ISTA** — the headline item; the only route to
+  HE20/HE40 real-time and the 12-link pattern. Acceptance: cir_bench speedup ≥ 5× at
+  HE20, soak metrics within guardrail, new `expected_features.sha256` published in a
+  fresh witness bundle.
+- F9 (power-method Lipschitz in tomography) riding the same hash-regen train.
+- F3 (slice-based CIR entry point), choosing the exact-f64-intermediate variant if the
+  hash train slips.
+- F14: feature-gated `rayon` across **links/nodes only**, deterministic index-ordered
+  collection; CI must run the determinism test (`engine/src/lib.rs:535-548`
+  `cycle_is_deterministic`) with the feature on.
+
+### Phase 3 — Platform & toolchain (days 70–90)
+- Pi 5 `target-cpu=cortex-a76` fleet builds + proof-runner verification (§5.1).
+- `+simd128` WASM artifact + size budget check for wasm-edge (§5.2, §4.3).
+- PGO pilot in CI using proof runners as the training corpus (§5.3).
+- Re-baseline: new criterion numbers, refreshed witness bundle, updated this document's
+  §1 with real measured latencies.
+
+**Out of 90-day scope, flagged for the architecture backlog:** F16 (Complex64→Complex32
+in core), F7 (single-matrix Φ kernel — bundle with F4), and HE40-on-edge (blocked on
+F4+F7).
+
+---
+
+## 7. Summary
+
+The pipeline's only structural latency hazard is the dense ISTA CIR solver
+(`cir.rs:601-654` + `cir.rs:717-745`): fine at HT20, ~1.1 GFLOP worst-case per estimate
+at HE40, and slated to run per-link (×12). Everything else is allocation churn and
+duplicated work that can be removed with **bit-exact** refactors (F1–F12), plus one
+genuine memory bug-class issue: unbounded WorldGraph growth at 20 Hz
+(`engine/src/lib.rs:346-352`). The build profile is already optimal; remaining toolchain
+gains (target-cpu, wasm simd128, PGO) are determinism-safe and cheap. The determinism
+constraint is workable because the repo already owns the right tools — deterministic
+proof runners, an A/B gate pattern, and a per-cycle witness — so float-changing
+optimizations become scheduled, witnessed hash-regeneration events rather than risks.

docs/research/ruview-beyond-sota/README.md

@@ -0,0 +1,96 @@
+# RuView Beyond-SOTA Research Series
+
+Research swarm output (2026-06-09) defining what a beyond-state-of-the-art
+RuView implementation is, what the current system actually delivers, and the
+validation/benchmark/optimization evidence gathered in the same session.
+
+Produced by a 5-agent hierarchical research swarm (system reviewer, SOTA
+surveyor, architect, benchmark methodologist, performance analyst) plus a
+validation pass run against the working tree.
+
+## Documents
+
+| Doc | Scope | One-line takeaway |
+|-----|-------|-------------------|
+| [00-system-review.md](00-system-review.md) | Capability audit of the current engine | Signal layer is the deepest asset (`ruvsense/` ≈14.4k lines, 310 in-module tests); the model tier is the emptiest (no trained checkpoint in-tree); the live 20 Hz path is the main integration gap |
+| [01-sota-landscape-2026.md](01-sota-landscape-2026.md) | Published SOTA per capability axis (web-verified) | Defines the beyond-SOTA bar: 12-row capability → published SOTA → RuView-today → target table; IEEE 802.11bf-2025 is ratified and moves the moat up-stack |
+| [02-beyond-sota-architecture.md](02-beyond-sota-architecture.md) | Target architecture | 8 pillars (RF foundation encoder + UQ heads, differentiable RF forward model, RF-SLAM×WorldGraph loop, camera→RF distillation, swarm apertures, continual adaptation, deterministic WASM edge, NV fusion) — all landing inside existing crates, no rewrite (per ADR-136 §2.1) |
+| [03-benchmark-validation-methodology.md](03-benchmark-validation-methodology.md) | Test/validation/benchmark methodology | 6-layer validation pyramid; 15 criterion bench targets inventoried; `benchmark_baseline.json` is a live-capture anchor, not a criterion baseline; statistical protocol from ADR-149 (≥10 seeds, IQM, bootstrap CIs) |
+| [04-optimization-roadmap.md](04-optimization-roadmap.md) | Performance review + 90-day plan | ISTA CIR solver is the dominant latency hazard (~1.1 GFLOP/frame at HE40); exact zero-risk wins identified; WorldGraph grows unboundedly (no eviction) — a real bug-class |
+
+## Validation results (this session, 2026-06-09)
+
+All measured on this branch (`claude/ruview-beyond-sota-xgv8aq`), Linux
+container, `cargo test --workspace --exclude wifi-densepose-desktop
+--no-default-features` (the desktop crate needs GTK system libraries absent in
+the container; this is an environment limitation, not a code failure).
+
+| Layer | Command | Result |
+|-------|---------|--------|
+| L0 unit/integration | `cargo test --workspace --exclude wifi-densepose-desktop --no-default-features` | **154 suites, 2,797 passed, 0 failed** (pre-optimization baseline; re-run post-optimization also green) |
+| L1 deterministic proof | `python archive/v1/data/proof/verify.py` | **VERDICT: PASS** — hash `f8e76f21a0f9852b70b6d9dd5318239f6b20cbcb4cdd995863263cecdc446f7a` (bit-exact) |
+| L2 criterion (CIR) | `cargo bench -p wifi-densepose-signal --bench cir_bench --no-default-features --features cir` | Baselines captured pre/post optimization (below) |
+
+~~Known pre-existing issue (not introduced here): `cargo check -p
+wifi-densepose-mat --no-default-features` fails standalone with 101 serde
+feature-unification errors; it builds and passes inside `--workspace` runs.~~
+**Fixed on this branch:** `pub mod api` (the only serde user) is now gated
+behind the `api` feature that owns the optional serde dependency; all feature
+combos compile.
+
+## Optimizations applied (this session)
+
+Two **exact** (bit-identical float results — summation order unchanged,
+witness chain unaffected) optimizations from the 04 roadmap's "zero-risk"
+tier were implemented and verified:
+
+1. **`cir.rs` warm-start precompute** — the diagonal Tikhonov preconditioner
+   `diag(Φ^H Φ) + λI` and its CSR matrix depend only on Φ and λ (fixed at
+   `CirEstimator::new`) but were rebuilt on every frame (O(K·G) pass + CSR
+   allocation). Moved to construction
+   (`crates/wifi-densepose-signal/src/ruvsense/cir.rs`,
+   `build_warm_start_system`).
+2. **`tomography.rs` solver hoisting** — the ISTA gradient `Vec` was
+   allocated inside the 100-iteration loop and the Frobenius Lipschitz bound
+   recomputed per `reconstruct` call; both hoisted
+   (`crates/wifi-densepose-signal/src/ruvsense/tomography.rs`).
+
+### Measured impact (criterion, paired pre/post baselines, same container)
+
+| Bench | Pre-opt | Post-opt | Change | Significant? |
+|-------|---------|----------|--------|--------------|
+| `cir_estimate/he40` | 12.34 ms | 11.86 ms | **−3.9 %** | yes (p < 0.01) |
+| `cir_multiband_3band` (30 ms group) | 30.16 ms | 29.72 ms | −1.4 % | yes (p < 0.01) |
+| `cir_multiband` (142 ms group) | 141.9 ms | 140.1 ms | −1.2 % | yes (p < 0.01) |
+| `cir_estimate/ht40` | 11.73 ms | 11.78 ms | +0.4 % | no (p = 0.28) |
+| `cir_estimate/he20` | 2.49 ms | 2.49 ms | −0.1 % | no (p = 0.85) |
+| `cir_estimate/ht20` | 2.48 ms | 2.58 ms | +3.8 % | noise — see note |
+
+Note on ht20: `cir_estimator_new/ht20` (construction, which now does strictly
+*more* work) also shows "+3 %", establishing a ≈3–4 % container noise floor;
+the ht20 estimate delta is within it. The honest summary: the warm-start
+precompute removes 1 of ~101 O(K·G) passes per frame, so the expected gain is
+≈1–4 % — consistent with what was measured. The dominant per-frame cost is
+the 100-iteration ISTA loop itself, which is exactly what the roadmap's
+flag-gated FFT-operator proposal (8–40× on the mat-vecs, requires witnessed
+hash regeneration) targets next.
+
+Correctness post-optimization: `wifi-densepose-signal` 456 tests green;
+`wifi-densepose-engine` 11/11 green including `cycle_is_deterministic` and
+`calibration_mismatch_demotes_and_witness_stable` (witness-chain stability).
+
+## Headline conclusions
+
+1. **"Beyond SOTA" is currently unfalsifiable** without a real-CSI
+   ground-truth benchmark — standing one up (per doc 03's acceptance table
+   and ADR-149's statistical protocol) is the highest-leverage next step.
+2. **The path is evolution, not rewrite**: all eight architecture pillars in
+   doc 02 land inside existing crates on the ADR-136 `Stage<I,O>`/`FrameMeta`
+   contract spine.
+3. **The biggest engineering gaps** are the live 20 Hz ingest path, a trained
+   RF encoder checkpoint, and WorldGraph retention/eviction — ahead of any
+   frontier capability work.
+4. **Determinism is the differentiator**: every optimization and new pillar
+   must preserve the witness chain; the advisory-vs-witnessed split (doc 02
+   §determinism) is the mechanism that lets frontier components in without
+   breaking it.

docs/research/wiflow-std-audit-gist.md

@@ -0,0 +1,99 @@
+# We audited a state-of-the-art WiFi pose model. Here's what broke, what reproduced, and the 30× smaller model that nearly matches it.
+
+*RuView team, June 2026. All numbers measured; full scripts and forensics in the
+[RuView repo](https://github.com/ruvnet/RuView/tree/main/benchmarks/wiflow-std).*
+
+## The setup
+
+WiFi sensing is having a moment: a 2026 preprint ("WiFlow", arXiv 2602.08661)
+claims **97.25% pose-estimation accuracy (PCK@20) from WiFi signals alone**,
+with a tiny 2.23M-parameter model — and unlike most papers, it ships
+everything: code, trained weights, and a 360,000-sample dataset.
+
+We build WiFi sensing systems, so before adopting any external number we run
+it through a simple rule: **a claim is "CLAIMED" until we reproduce it, then
+it's "MEASURED."** Here's what happened when we tried.
+
+## Day 1: nothing works
+
+- **The code doesn't run.** The package imports a class that doesn't exist.
+  (One-line fix.)
+- **The released model scores 0.08%, not 97.25%.** The shipped checkpoint was
+  trained under a different data normalization than the shipped dataset —
+  it's a real trained model, just not *this* pipeline's model. Even letting it
+  cheat with a fitted per-keypoint correction only reaches 72%.
+- **The dataset is corrupted.** Its last 13 files contain garbage values up to
+  3.4×10³⁸ (float32's maximum). Subtle consequence: the training loop uses
+  fp16 mixed precision with no guards, so the first corrupted batch overflows
+  and **permanently poisons the model's BatchNorm statistics**. Training from
+  the public download produces NaN from epoch 1, every time.
+- The training script also crashes before its own test phase ever runs
+  (calls an undefined function), and ignores its `--data_dir` flag.
+
+At this point a less patient reader concludes "fraud." That would be wrong.
+
+## Day 1, later: actually, the science is real
+
+We repaired the artifacts — fixed the import, zeroed the 9,072 corrupted
+windows, retrained from scratch with the authors' own code and
+hyperparameters on one GPU (~50 minutes):
+
+| Metric | Published | Our retrain |
+|---|---|---|
+| PCK@20 | 97.25% | **96.1–96.6%** |
+| PCK@50 | 99.48% | 99.0–99.1% |
+| Params | 2.23M | 2,225,042 (exact) |
+
+**The claims reproduce.** What didn't survive contact was the *packaging*:
+wrong checkpoint, corrupted upload, broken glue code. This distinction —
+**artifact rot vs. bad science** — is the single most useful thing a
+reproduction can establish, and you can't establish it without actually
+running the thing.
+
+(We filed all six defects upstream with fixes:
+[issue #3](https://github.com/DY2434/WiFlow-WiFi-Pose-Estimation-with-Spatio-Temporal-Decoupling/issues/3).
+And to be clear: the authors released more than 90% of papers do. That's the
+only reason this audit was possible.)
+
+## Day 2: the model is also 2.6× too big
+
+Once we could train, we asked: does the architecture need 2.23M parameters?
+
+| Variant | Params | Accuracy (PCK@20) | Size on disk |
+|---|---|---|---|
+| Original | 2,225,042 | 96.61% | 8.97 MB |
+| **Half** | **843,834** | **96.62%** ✨ | — |
+| Quarter | 338,600 | 96.05% | — |
+| **Tiny** | **56,290** | **94.11%** | **295 KB** |
+
+The half-width model **matches the original exactly** (and converges faster).
+The tiny one — 1/39th the parameters — gives up 2.5 points and runs at
+**0.66 ms per inference on a laptop CPU** (~1,500 poses/second) as a 295 KB
+ONNX file. For edge devices, that's the interesting end of the curve.
+
+Quantization footnote: the paper's "~2.2 MB int8" estimate is reachable
+(we measured 2.44–2.53 MB) but only via conv-capable toolchains — PyTorch's
+one-line dynamic quantization converts *literally nothing* on this model
+(it has no Linear layers), a trap worth knowing about.
+
+## What we took away
+
+1. **Run the artifact, not the README.** Every number in a paper is one
+   `git clone` away from being either confirmed or understood. Both outcomes
+   are valuable; only one is publishable by the original authors.
+2. **fp16 + unvalidated data = silent model death.** Mixed-precision training
+   with no NaN/inf guards doesn't fail loudly — it corrupts BatchNorm buffers
+   and ships a broken model with a green progress bar. Validate inputs, or
+   train in fp32, or guard the autocast.
+3. **Evidence-grade your own claims too.** Mid-audit, the same forensics
+   tooling caught one of *our own* published accuracy numbers resting on a
+   degenerate evaluation (a constant-output model scored with a flawed
+   metric). We retracted it the same day. The rule has to cut both ways or
+   it's marketing, not measurement.
+4. **Over-parameterization hides in SOTA tables.** Nobody publishes the
+   half-size ablation that matches their headline model. Run it yourself;
+   it's an hour of GPU time and sometimes it *is* the result.
+
+*Reproduction scripts, corruption masks, the efficiency-sweep configs, and a
+numerically parity-proven Rust port (max divergence 1.2e-7) are all in
+[`benchmarks/wiflow-std/`](https://github.com/ruvnet/RuView/tree/main/benchmarks/wiflow-std).*

docs/user-guide.md

@@ -1747,7 +1747,14 @@ See [ADR-071](adr/ADR-071-ruvllm-training-pipeline.md) and the [pretraining tuto
 
 For significantly higher accuracy, use a webcam as a **temporary teacher** during training. The camera captures real 17-keypoint poses via MediaPipe, paired with simultaneous ESP32 CSI data. After training, the camera is no longer needed — the model runs on CSI only.
 
-**Result: 92.9% PCK@20** from a 5-minute collection session.
+> **Accuracy note (2026-06-10):** the previously cited "92.9% PCK@20" figure is
+> retracted — a forensic recheck of the surviving eval holdout showed it came
+> from a constant-output model scored with an absolute (non-torso-normalized)
+> threshold on 69 nearly-static frames, a protocol under which a trivial
+> mean-pose predictor scores 100%. No measured camera-supervised PCK@20 is
+> currently published (see CHANGELOG, PR #535). Treat this workflow as a data
+> collection mechanism; accuracy claims will follow a ≥35-minute multi-pose
+> collection session evaluated with torso-normalized PCK.
 
 ### Requirements
 
@@ -1755,50 +1762,103 @@ For significantly higher accuracy, use a webcam as a **temporary teacher** durin
 - ESP32-S3 node streaming CSI over UDP (port 5005)
 - A webcam (laptop, USB, or Mac camera via Tailscale)
 
-### Step 1: Capture Camera + CSI Simultaneously
+### Step 0: Check your CSI rate and plan the session length
+
+Window yield is `csi_frames / 20` — **your CSI packet rate sets how long you
+must record.** Check it first (10-second probe):
+
+```bash
+python - <<'EOF'
+import socket, time
+s = socket.socket(socket.AF_INET, socket.SOCK_DGRAM); s.bind(('0.0.0.0', 5005)); s.settimeout(2)
+n, t0 = 0, time.time()
+while time.time() - t0 < 10:
+    try: s.recvfrom(4096); n += 1
+    except socket.timeout: pass
+print(f"{n/10:.1f} Hz -> {n/10*60/20:.0f} windows/min")
+EOF
+```
+
+| CSI rate | Windows/min | Minutes for 2,000 windows (minimum trainable) |
+|---|---|---|
+| ~13 Hz (idle network) | ~39 | ~52 min |
+| ~53 Hz (active self-ping, #985 firmware) | ~160 | ~13 min — record 35–40 min anyway for pose variety |
+
+A 5-minute session is **not enough to train on** — it produces a few hundred
+windows of one pose context, and models trained on it memorize rather than
+generalize (this is what invalidated the earlier accuracy figure).
+
+### Step 1: (Recommended) calibrate camera ↔ room
+
+The two-checkerboard calibration (ADR-152 §2.1.3) puts labels in a shared 3D
+room frame instead of raw camera coordinates, which is the published defense
+against layout-brittle "coordinate overfitting" (PerceptAlign, MobiCom'26):
+
+```bash
+python scripts/calibrate-camera-room.py   # < 5 min, two checkerboards + a few photos
+```
+
+Without it, collection still works but labels are camera-frame only and the
+trained model will not survive camera/node relocation.
+
+### Step 2: Capture Camera + CSI Simultaneously
 
 Run both scripts at the same time (in separate terminals):
 
 ```bash
-# Terminal 1: Record ESP32 CSI
-python scripts/record-csi-udp.py --duration 300
+# Terminal 1: Record ESP32 CSI (2400 s = 40 min)
+python scripts/record-csi-udp.py --duration 2400
 
 # Terminal 2: Capture camera keypoints
-python scripts/collect-ground-truth.py --duration 300 --preview
+python scripts/collect-ground-truth.py --duration 2400 --preview \
+  --calibration data/calibration/camera-room.json   # omit if you skipped Step 1
 ```
 
-Move around naturally in front of the camera for 5 minutes. The `--preview` flag shows a live skeleton overlay.
+During capture: keep your **full body in frame** with good lighting (MediaPipe
+confidence must stay above 0.5 — low-confidence frames are dropped at
+alignment), and **change activity every 1–2 minutes**: walk, raise hands,
+squat, hands up, kick, wave, turn, jump, sit, stand still. Pose variety is
+what the model learns from; 40 minutes of sitting produces a constant-pose
+predictor.
 
-### Step 2: Align and Train
+### Step 3: Align and Train
 
 ```bash
-# Align camera keypoints with CSI windows
+# Align camera keypoints with CSI windows (prints kept/dropped window counts —
+# expect roughly csi_frames/20 kept; investigate if far below)
 node scripts/align-ground-truth.js \
   --gt data/ground-truth/*.jsonl \
   --csi data/recordings/csi-*.csi.jsonl
 
-# Train (start with lite, scale up as you collect more data)
+# Train (pick the preset matching your window count)
 node scripts/train-wiflow-supervised.js \
   --data data/paired/*.jsonl \
-  --scale lite \
+  --scale small \
   --epochs 50
 
-# Evaluate
+# Evaluate — torso-normalized PCK on a TEMPORAL split
 node scripts/eval-wiflow.js \
   --model models/wiflow-supervised/wiflow-v1.json \
   --data data/paired/*.jsonl
 ```
 
+**Evaluation protocol matters.** Use `eval-wiflow.js` (torso-normalized
+PCK@20, the metric comparable to published WiFi-pose results) on a temporal
+hold-out, and sanity-check that predictions actually vary across frames
+(`pred std > 0`) — a constant-pose model can score deceptively well on
+near-static data under weaker protocols. See
+`benchmarks/wiflow-std/RESULTS.md` for the forensic case study.
+
 ### Scale Presets
 
 | Preset | Params | Training Time | Best For |
 |--------|--------|---------------|----------|
-| `--scale lite` | 189K | ~19 min | < 1,000 samples (5 min capture) |
-| `--scale small` | 474K | ~1 hr | 1K-10K samples |
-| `--scale medium` | 800K | ~2 hrs | 10K-50K samples |
-| `--scale full` | 7.7M | ~8 hrs | 50K+ samples (GPU recommended) |
+| `--scale lite` | 189K | ~19 min | sanity runs only (< 2K windows trains poorly) |
+| `--scale small` | 474K | ~1 hr | 2K-10K windows (one 40-min session) |
+| `--scale medium` | 800K | ~2 hrs | 10K-50K windows (multiple sessions/rooms) |
+| `--scale full` | 7.7M | ~8 hrs | 50K+ windows (GPU recommended) |
 
-See [ADR-079](adr/ADR-079-camera-ground-truth-training.md) for the full design and optimization details.
+See [ADR-079](adr/ADR-079-camera-ground-truth-training.md) for the full design and optimization details, and ADR-152 §2.2 for the external WiFlow-STD benchmark these numbers should be read against.
 
 ---
 

firmware/esp32-csi-node/components/wasm3/CMakeLists.txt

@@ -65,6 +65,15 @@ target_compile_definitions(${COMPONENT_LIB} PUBLIC
     d_m3LogOutput=0                  # Disable WASM3 stdout logging (use ESP_LOG)
     d_m3FixedHeap=0                  # Use dynamic allocation (PSRAM-friendly)
     WASM3_AVAILABLE=1                # Flag for conditional compilation
+    # Issue #946: GCC 15.2.0 for Xtensa (ESP-IDF v6.0.1) rejects wasm3's
+    # `M3_MUSTTAIL` aggressive tail-call attribute with
+    # "cannot tail-call: machine description does not have a sibcall_epilogue
+    # instruction pattern". wasm3 falls back to a regular call sequence when
+    # M3_NO_MUSTTAIL is defined — slightly slower per opcode but functionally
+    # identical. Forcing it off unconditionally on Xtensa is fine because the
+    # tail-call optimisation was never reliable on this target anyway. Older
+    # IDF/GCC builds also accept the define (it just becomes a no-op).
+    M3_NO_MUSTTAIL=1
 )
 
 # Suppress warnings from third-party code.

firmware/esp32-csi-node/main/adaptive_controller.c

@@ -220,11 +220,20 @@ static void fast_loop_cb(TimerHandle_t t)
     adaptive_controller_decide(&s_cfg, s_state, &obs, &dec);
     apply_decision(&dec);
 
-    /* ADR-081 Layer 4/5: emit compact feature state on every fast tick
-     * (default 200 ms → 5 Hz, within the 1–10 Hz spec). Replaces raw
-     * ADR-018 CSI as the default upstream; raw remains available as a
-     * debug stream gated by the channel plan. */
-    emit_feature_state();
+    /* ADR-081 Layer 4/5: emit compact feature state at 1 Hz (the spec's
+     * 1–10 Hz floor). Was previously emitted on every fast tick (~5 Hz at
+     * the default 200 ms fast period), which combined with CSI promiscuous
+     * RX saturated the WiFi TX airtime — measured live on COM8 (S3) and
+     * COM9 (C6): every adaptive cycle showed `sendto ENOMEM — backing off
+     * for 100 ms`, and bumping LWIP/WiFi buffer pools to 4× had no effect
+     * on the rate because the bottleneck was radio TX time, not pool size.
+     * Dropping to 1 Hz (5× less feature_state traffic) frees the TX queue
+     * for CSI sends and lands well within the spec. */
+    static uint8_t s_emit_divider = 0;
+    if (++s_emit_divider >= 5) {
+        s_emit_divider = 0;
+        emit_feature_state();
+    }
 }
 
 static void medium_loop_cb(TimerHandle_t t)

firmware/esp32-csi-node/main/c6_sync_espnow.c

@@ -21,6 +21,7 @@
 #include "esp_wifi.h"
 #include "esp_mac.h"
 #include "esp_timer.h"
+#include "esp_idf_version.h"
 #include "freertos/FreeRTOS.h"
 #include "freertos/timers.h"
 #include <string.h>
@@ -144,11 +145,31 @@ static void on_recv(const uint8_t *src_mac, const uint8_t *data, int len)
     }
 }
 
+/* Issue #944: ESP-IDF v6.0 changed `esp_now_send_cb_t` from
+ *   void (*)(const uint8_t *mac, esp_now_send_status_t status)
+ * to
+ *   void (*)(const esp_now_send_info_t *tx_info, esp_now_send_status_t status)
+ * Both signatures ignore the address-side argument here — we only inspect
+ * `status` to bump the TX-fail counter — so the body is identical; only the
+ * function-pointer type differs.
+ *
+ * Issue #1005: Espressif backported the new signature to v5.5
+ * (`esp_now_send_info_t` = typedef of `wifi_tx_info_t` there), so the guard
+ * must be the full version triple, not ESP_IDF_VERSION_MAJOR.
+ */
+#if ESP_IDF_VERSION >= ESP_IDF_VERSION_VAL(5, 5, 0)
+static void on_send(const esp_now_send_info_t *tx_info, esp_now_send_status_t status)
+{
+    (void)tx_info;
+    if (status != ESP_NOW_SEND_SUCCESS) s_tx_fail++;
+}
+#else
 static void on_send(const uint8_t *mac, esp_now_send_status_t status)
 {
     (void)mac;
     if (status != ESP_NOW_SEND_SUCCESS) s_tx_fail++;
 }
+#endif
 
 static void beacon_timer_cb(TimerHandle_t t)
 {

firmware/esp32-csi-node/main/csi_collector.c

@@ -23,6 +23,9 @@
 #include "esp_wifi.h"
 #include "esp_timer.h"
 #include "sdkconfig.h"
+#include "esp_netif.h"          /* #954: STA gateway lookup for self-ping CSI source */
+#include "ping/ping_sock.h"     /* #954: esp_ping gateway traffic generator */
+#include "lwip/ip_addr.h"       /* #954: ip_addr_t target for esp_ping */
 
 /* ADR-060: Access the global NVS config for MAC filter and channel override. */
 extern nvs_config_t g_nvs_config;
@@ -365,6 +368,67 @@ static void wifi_promiscuous_cb(void *buf, wifi_promiscuous_pkt_type_t type)
     (void)type;
 }
 
+/* ---- RuView#521/#954: connected-STA CSI traffic source (additive) ----
+ *
+ * The ESP32 CSI engine only produces CSI for received OFDM frames (L-LTF/HT-LTF).
+ * On a quiet network — or on a display-enabled build where the #893 MGMT->MGMT+DATA
+ * promiscuous upgrade is skipped (has_display=true) — the only CSI-eligible frames
+ * are sparse beacons (often non-OFDM DSSS), so wifi_csi_callback can starve to
+ * yield=0pps -> DEGRADED -> motion/presence=0 (#521, #954).
+ *
+ * This guarantees a ~50 Hz OFDM unicast floor by pinging the STA's own gateway:
+ * the router's ICMP echo replies are OFDM frames destined to this station, which
+ * drive the CSI engine regardless of promiscuous filter state or ambient traffic.
+ * It is ADDITIVE — promiscuous capture (#396/#893) is left fully intact so
+ * multistatic/multi-node sensing still hears other stations' frames. Mirrors
+ * Espressif's esp-csi csi_recv_router reference.
+ */
+static esp_ping_handle_t s_self_ping = NULL;
+static void csi_ping_cb_noop(esp_ping_handle_t hdl, void *args) { (void)hdl; (void)args; }
+
+static void csi_start_self_ping(void)
+{
+    if (s_self_ping != NULL) {
+        return;  /* already running */
+    }
+
+    esp_netif_t *sta = esp_netif_get_handle_from_ifkey("WIFI_STA_DEF");
+    esp_netif_ip_info_t ip;
+    if (sta == NULL || esp_netif_get_ip_info(sta, &ip) != ESP_OK || ip.gw.addr == 0) {
+        ESP_LOGW(TAG, "self-ping: no gateway IP yet; CSI relies on ambient frames (#954)");
+        return;
+    }
+
+    char gw_str[16];
+    esp_ip4addr_ntoa(&ip.gw, gw_str, sizeof(gw_str));
+
+    ip_addr_t target;
+    memset(&target, 0, sizeof(target));
+    ipaddr_aton(gw_str, &target);
+
+    esp_ping_config_t cfg = ESP_PING_DEFAULT_CONFIG();
+    cfg.target_addr     = target;
+    cfg.count           = ESP_PING_COUNT_INFINITE;
+    cfg.interval_ms     = 20;     /* 50 Hz -> ~50 received OFDM replies/sec */
+    cfg.data_size       = 1;
+    cfg.task_stack_size = 4096;
+
+    esp_ping_callbacks_t cbs = {
+        .cb_args         = NULL,
+        .on_ping_success = csi_ping_cb_noop,
+        .on_ping_timeout = csi_ping_cb_noop,
+        .on_ping_end     = csi_ping_cb_noop,
+    };
+
+    if (esp_ping_new_session(&cfg, &cbs, &s_self_ping) == ESP_OK && s_self_ping != NULL) {
+        esp_ping_start(s_self_ping);
+        ESP_LOGI(TAG, "self-ping started -> %s @50Hz (CSI OFDM source, fix #521/#954)", gw_str);
+    } else {
+        ESP_LOGW(TAG, "self-ping: esp_ping_new_session failed");
+        s_self_ping = NULL;
+    }
+}
+
 void csi_collector_set_node_id(uint8_t node_id)
 {
     s_node_id = node_id;
@@ -526,6 +590,11 @@ void csi_collector_init(void)
 
     ESP_LOGI(TAG, "CSI collection initialized (node_id=%u, channel=%u)",
              (unsigned)s_node_id, (unsigned)csi_channel);
+
+    /* RuView#521/#954: start the connected-STA traffic source so the CSI engine
+     * receives a guaranteed OFDM unicast floor even when promiscuous capture is
+     * starved (display builds / quiet networks). Additive to #396/#893. */
+    csi_start_self_ping();
 }
 
 /* Accessor for other modules that need the authoritative runtime node_id. */

firmware/esp32-csi-node/main/edge_processing.c

@@ -215,6 +215,113 @@ static float estimate_bpm_zero_crossing(const float *history, uint16_t len,
     return freq_hz * 60.0f;  /* Hz to BPM. */
 }
 
+/**
+ * Autocorrelation periodicity estimator (RuView #954/#985/#987 follow-up).
+ *
+ * Zero-crossing HR estimation parked at ~45 BPM for two reasons: (1) it used a
+ * stale fixed sample rate (10 Hz) after #985's self-ping raised the real CSI
+ * rate to a variable ~13-19 Hz, and (2) it locked onto breathing harmonics —
+ * a 0.25 Hz breathing fundamental puts its 3rd harmonic at ~0.74 Hz ≈ 44 BPM,
+ * right inside the HR band. This finds the dominant period in the HR band by
+ * autocorrelation, explicitly rejecting lags that coincide with breathing
+ * harmonics, and refines the peak with parabolic interpolation. Uses the
+ * MEASURED sample rate so the BPM is in real units.
+ *
+ * @param sig          Band-filtered signal (contiguous, oldest..newest).
+ * @param len          Number of samples.
+ * @param fs           Measured sample rate in Hz.
+ * @param bpm_lo       Low edge of the search band (BPM).
+ * @param bpm_hi       High edge of the search band (BPM).
+ * @param reject_br_hz Breathing fundamental (Hz) whose harmonics are rejected
+ *                     (k=1..6); pass 0 to disable rejection (fundamental search).
+ * @return Dominant rate in BPM within the band, or 0 if no confident peak.
+ */
+static float estimate_periodicity_autocorr(const float *sig, uint16_t len, float fs,
+                                            float bpm_lo, float bpm_hi, float reject_br_hz)
+{
+    if (len < 32 || fs <= 0.0f || bpm_hi <= bpm_lo) return 0.0f;
+
+    int lag_min = (int)(fs * 60.0f / bpm_hi);
+    int lag_max = (int)(fs * 60.0f / bpm_lo);
+    if (lag_min < 2) lag_min = 2;
+    if (lag_max >= (int)len) lag_max = (int)len - 1;
+    if (lag_max <= lag_min + 1) return 0.0f;
+
+    const float br_hz = reject_br_hz;
+
+    float r0 = 0.0f;
+    for (uint16_t i = 0; i < len; i++) r0 += sig[i] * sig[i];
+    if (r0 <= 1e-6f) return 0.0f;
+
+    float best = -1.0f;
+    int   best_lag = 0;
+
+    for (int lag = lag_min; lag <= lag_max; lag++) {
+        float f = fs / (float)lag;  /* candidate HR frequency (Hz) */
+
+        /* Reject candidates within 8% of a breathing harmonic k*f_br (k=1..6). */
+        if (br_hz > 0.0f) {
+            bool harmonic = false;
+            for (int k = 1; k <= 6; k++) {
+                float h = (float)k * br_hz;
+                if (fabsf(f - h) < 0.08f * h) { harmonic = true; break; }
+            }
+            if (harmonic) continue;
+        }
+
+        float acc = 0.0f;
+        for (int i = 0; i + lag < (int)len; i++) acc += sig[i] * sig[i + lag];
+        if (acc > best) { best = acc; best_lag = lag; }
+    }
+
+    if (best_lag == 0) return 0.0f;
+    /* Require a real periodicity, not a noise peak. */
+    if (best / r0 < 0.2f) return 0.0f;
+
+    /* Parabolic interpolation around best_lag for sub-sample period resolution. */
+    float lag_ref = (float)best_lag;
+    {
+        float a = 0.0f, c = 0.0f;
+        for (int i = 0; i + (best_lag - 1) < (int)len; i++) a += sig[i] * sig[i + best_lag - 1];
+        for (int i = 0; i + (best_lag + 1) < (int)len; i++) c += sig[i] * sig[i + best_lag + 1];
+        float denom = a - 2.0f * best + c;
+        if (fabsf(denom) > 1e-6f) {
+            float delta = 0.5f * (a - c) / denom;
+            if (delta > -1.0f && delta < 1.0f) lag_ref += delta;
+        }
+    }
+
+    return fs / lag_ref * 60.0f;
+}
+
+/* Median smoother for the emitted heart rate. The per-frame autocorr estimate
+ * still has occasional single-frame outliers (startup transient before the
+ * filters re-tune, momentary harmonic mis-locks); a median over the last few
+ * VALID estimates stops the reported HR from "dropping a lot" between frames
+ * without lagging real changes much. Only valid (in-range) estimates are
+ * pushed, so out-of-range/zero results never pollute the window. */
+#define HR_SMOOTH_N 13
+static float   s_hr_ring[HR_SMOOTH_N];
+static uint8_t s_hr_ring_n;
+static uint8_t s_hr_ring_idx;
+
+static float hr_smooth_push(float hr)
+{
+    s_hr_ring[s_hr_ring_idx] = hr;
+    s_hr_ring_idx = (uint8_t)((s_hr_ring_idx + 1) % HR_SMOOTH_N);
+    if (s_hr_ring_n < HR_SMOOTH_N) s_hr_ring_n++;
+
+    float tmp[HR_SMOOTH_N];
+    for (uint8_t i = 0; i < s_hr_ring_n; i++) tmp[i] = s_hr_ring[i];
+    for (uint8_t i = 1; i < s_hr_ring_n; i++) {       /* insertion sort, tiny N */
+        float v = tmp[i];
+        int j = (int)i - 1;
+        while (j >= 0 && tmp[j] > v) { tmp[j + 1] = tmp[j]; j--; }
+        tmp[j + 1] = v;
+    }
+    return tmp[s_hr_ring_n / 2];
+}
+
 /* ======================================================================
  * DSP Pipeline State
  * ====================================================================== */
@@ -246,6 +353,14 @@ static edge_biquad_t s_bq_heartrate;
 static float s_breathing_filtered[EDGE_PHASE_HISTORY_LEN];
 static float s_heartrate_filtered[EDGE_PHASE_HISTORY_LEN];
 
+/** Measured CSI sample rate (Hz), smoothed from frame timestamps.
+ * #985's self-ping raised the callback rate above the old ~10 Hz beacon
+ * assumption and made it variable (~13-19 Hz); a fixed rate scaled BPM wrong
+ * and made HR swing with CSI yield. See update in process_csi_frame(). */
+static float    s_sample_rate_hz   = 15.0f;
+static float    s_filter_design_fs = 20.0f; /* fs the biquads were last designed at */
+static uint32_t s_last_frame_ts_us = 0;
+
 /** Latest vitals state. */
 static float    s_breathing_bpm;
 static float    s_heartrate_bpm;
@@ -535,7 +650,11 @@ static void update_multi_person_vitals(const uint8_t *iq_data, uint16_t n_sc,
             }
 
             float br = estimate_bpm_zero_crossing(s_scratch_br, buf_len, sample_rate);
-            float hr = estimate_bpm_zero_crossing(s_scratch_hr, buf_len, sample_rate);
+            /* Robust breathing period (autocorr) drives HR harmonic rejection —
+             * the zero-crossing estimate is too noisy under motion and notched
+             * the wrong frequencies, letting HR lock onto a breathing harmonic. */
+            float br_rob = estimate_periodicity_autocorr(s_scratch_br, buf_len, sample_rate, 6.0f, 40.0f, 0.0f);
+            float hr = estimate_periodicity_autocorr(s_scratch_hr, buf_len, sample_rate, 45.0f, 180.0f, br_rob / 60.0f);
 
             /* Sanity clamp. */
             if (br >= 6.0f && br <= 40.0f) pv->breathing_bpm = br;
@@ -715,11 +834,36 @@ static void process_frame(const edge_ring_slot_t *slot)
     s_frame_count++;
     s_latest_rssi = slot->rssi;
 
-    /* CSI sample rate. MGMT-only promiscuous filter (RuView#396, csi_collector.c)
-     * yields ~10 Hz from beacons; keep this value aligned with csi_collector's
-     * effective callback rate or estimate_bpm_zero_crossing() reports the wrong
-     * BPM (2× rate mismatch → 2× wrong breathing/HR). */
-    const float sample_rate = 10.0f;
+    /* Measure the REAL CSI sample rate from inter-frame timestamps. #985's
+     * self-ping made the callback rate variable (~13-19 Hz); the old fixed
+     * 10 Hz both scaled BPM wrong (true ~87 BPM read as ~45) and made HR swing
+     * as CSI yield fluctuated. EMA-smooth and clamp to a plausible band. */
+    if (s_last_frame_ts_us != 0 && slot->timestamp_us > s_last_frame_ts_us) {
+        float dt = (float)(slot->timestamp_us - s_last_frame_ts_us) * 1e-6f;
+        if (dt > 0.02f && dt < 0.5f) {            /* 2-50 Hz plausible; reject gaps/hops */
+            float inst = 1.0f / dt;
+            s_sample_rate_hz += 0.05f * (inst - s_sample_rate_hz);
+            if (s_sample_rate_hz < 8.0f)  s_sample_rate_hz = 8.0f;
+            if (s_sample_rate_hz > 30.0f) s_sample_rate_hz = 30.0f;
+        }
+    }
+    s_last_frame_ts_us = slot->timestamp_us;
+
+    /* Re-tune the biquads if the measured rate has drifted from their design fs,
+     * so the breathing (0.1-0.5 Hz) and HR (0.8-2.0 Hz) passbands stay in real
+     * Hz. biquad_bandpass_design resets delay state, so only redesign on real
+     * drift (>15%) — the autocorr window averages over the one-time transient. */
+    if (fabsf(s_sample_rate_hz - s_filter_design_fs) > 0.15f * s_filter_design_fs) {
+        biquad_bandpass_design(&s_bq_breathing, s_sample_rate_hz, 0.1f, 0.5f);
+        biquad_bandpass_design(&s_bq_heartrate, s_sample_rate_hz, 0.8f, 2.0f);
+        for (uint8_t pp = 0; pp < EDGE_MAX_PERSONS; pp++) {
+            biquad_bandpass_design(&s_person_bq_br[pp], s_sample_rate_hz, 0.1f, 0.5f);
+            biquad_bandpass_design(&s_person_bq_hr[pp], s_sample_rate_hz, 0.8f, 2.0f);
+        }
+        s_filter_design_fs = s_sample_rate_hz;
+    }
+
+    const float sample_rate = s_sample_rate_hz;
 
     /* --- Step 1-2: Phase extraction + unwrapping per subcarrier --- */
     float phases[EDGE_MAX_SUBCARRIERS];
@@ -777,11 +921,13 @@ static void process_frame(const edge_ring_slot_t *slot)
         }
 
         float br_bpm = estimate_bpm_zero_crossing(s_scratch_br, buf_len, sample_rate);
-        float hr_bpm = estimate_bpm_zero_crossing(s_scratch_hr, buf_len, sample_rate);
+        /* Robust breathing period (autocorr) drives HR harmonic rejection. */
+        float br_rob = estimate_periodicity_autocorr(s_scratch_br, buf_len, sample_rate, 6.0f, 40.0f, 0.0f);
+        float hr_bpm = estimate_periodicity_autocorr(s_scratch_hr, buf_len, sample_rate, 45.0f, 180.0f, br_rob / 60.0f);
 
         /* Sanity clamp: breathing 6-40 BPM, heart rate 40-180 BPM. */
         if (br_bpm >= 6.0f && br_bpm <= 40.0f) s_breathing_bpm = br_bpm;
-        if (hr_bpm >= 40.0f && hr_bpm <= 180.0f) s_heartrate_bpm = hr_bpm;
+        if (hr_bpm >= 40.0f && hr_bpm <= 180.0f) s_heartrate_bpm = hr_smooth_push(hr_bpm);
     }
 
     /* --- Step 8: Motion energy (variance of recent phases) --- */

firmware/esp32-csi-node/main/swarm_bridge.c

@@ -23,7 +23,16 @@
 static const char *TAG = "swarm";
 
 /* ---- Task parameters ---- */
-#define SWARM_TASK_STACK   3072   /**< 3 KB stack — HTTP client uses ~2.5 KB. */
+/* Issue #949: 3 KB was sized for plain HTTP (~2.5 KB). The bug reporter
+ * configured `--seed-url https://…` which exercises TLS — mbedTLS handshake
+ * alone needs 4-6 KB on the stack (cipher suite + cert chain + ECDH), and on
+ * top of that esp_http_client adds another 1.5-2 KB. The task panicked with
+ * `0xa5a5a5a5` (FreeRTOS stack-fill sentinel) immediately after "bridge init
+ * OK". 8 KB comfortably fits TLS with margin for the cert chain + headers;
+ * confirmed against mbedTLS's stack analyser. Plain-HTTP deployments waste
+ * ~5 KB of headroom but that's <0.1 % of PSRAM, an acceptable cost for the
+ * bug class this prevents. */
+#define SWARM_TASK_STACK   8192   /**< 8 KB stack — fits mbedTLS handshake. */
 #define SWARM_TASK_PRIO    3
 #define SWARM_TASK_CORE    0
 #define SWARM_HTTP_TIMEOUT 3000  /**< HTTP timeout in ms (Seed responds <100ms on LAN). */

firmware/esp32-csi-node/sdkconfig.defaults

@@ -29,6 +29,30 @@ CONFIG_LOG_DEFAULT_LEVEL_INFO=y
 # LWIP: enable extended socket options for UDP multicast
 CONFIG_LWIP_SO_RCVBUF=y
 
+# Issue (sibling of #946/#949/#864 cluster): UDP `sendto` returned ENOMEM
+# in a tight loop on both ESP32-S3 (COM8) and ESP32-C6 (COM9) at the v0.7.0
+# CSI packet rate (CSI cb + status + sync + feature_state all sharing the
+# LWIP/WiFi pools). stream_sender.c has a cooldown path so the device
+# doesn't crash, but ~90 % of CSI frames were dropped before reaching the
+# host — boot trace showed `sendto ENOMEM — backing off 100 ms` repeating
+# every capture cycle. Stock IDF v5.4 defaults: UDP recv mbox=6, TCPIP
+# mbox=32, WiFi dynamic TX buffers=32 — too small once CSI promiscuous
+# mode is active. These bumps roughly quadruple the relevant pools at
+# ~3 KB extra heap cost, measured live on both targets Jun 8 2026.
+CONFIG_LWIP_UDP_RECVMBOX_SIZE=32
+CONFIG_LWIP_TCPIP_RECVMBOX_SIZE=64
+CONFIG_ESP_WIFI_DYNAMIC_TX_BUFFER_NUM=64
+# NOTE: Empirical 25 s measurements on the S3 at COM8 showed these bumps
+# eliminate the csi_collector.sendto failure path (`fail #1..5` →
+# `fail #0`) — real improvement — but do NOT eliminate the broader
+# `feature_state emit` ENOMEM at ~10/s. That residual is the WiFi
+# radio's TX airtime saturating under CSI promiscuous RX, and bigger
+# buffers cap out at the 100 ms backoff window regardless of size
+# (verified at WIFI_DYNAMIC_TX=128 + PBUF_POOL=32 — identical count).
+# The proper fix is rate-limiting adaptive_controller.c's emit cadence
+# from ~50 ms to the intended 1 Hz, which is a code refactor tracked
+# in a separate follow-up issue.
+
 # FreeRTOS: increase task stack for CSI processing
 CONFIG_ESP_MAIN_TASK_STACK_SIZE=8192
 

firmware/esp32-csi-node/test/stubs/esp_netif.h

@@ -0,0 +1,48 @@
+/* Host-fuzzing stub for esp_netif.h (ADR-061).
+ *
+ * csi_collector.c's #954 self-ping needs the STA netif handle + gateway IP.
+ * In the fuzz environment there is no network stack: the handle lookup
+ * returns NULL, so csi_start_self_ping() takes its no-gateway early-out and
+ * the esp_ping path is never exercised (but must compile and link).
+ */
+#pragma once
+
+#include <stdint.h>
+#include <stdio.h>
+
+#include "esp_err.h"
+
+typedef struct esp_netif_obj esp_netif_t;
+
+typedef struct {
+    uint32_t addr;
+} esp_ip4_addr_t;
+
+typedef struct {
+    esp_ip4_addr_t ip;
+    esp_ip4_addr_t netmask;
+    esp_ip4_addr_t gw;
+} esp_netif_ip_info_t;
+
+static inline esp_netif_t *esp_netif_get_handle_from_ifkey(const char *if_key)
+{
+    (void)if_key;
+    return NULL; /* no netif in fuzz env -> self-ping early-out */
+}
+
+static inline esp_err_t esp_netif_get_ip_info(esp_netif_t *netif, esp_netif_ip_info_t *ip_info)
+{
+    (void)netif;
+    (void)ip_info;
+    return ESP_FAIL;
+}
+
+static inline char *esp_ip4addr_ntoa(const esp_ip4_addr_t *addr, char *buf, int buflen)
+{
+    if (buf != NULL && buflen > 0) {
+        snprintf(buf, (size_t)buflen, "%u.%u.%u.%u",
+                 (unsigned)(addr->addr & 0xff), (unsigned)((addr->addr >> 8) & 0xff),
+                 (unsigned)((addr->addr >> 16) & 0xff), (unsigned)((addr->addr >> 24) & 0xff));
+    }
+    return buf;
+}

firmware/esp32-csi-node/test/stubs/lwip/ip_addr.h

@@ -0,0 +1,20 @@
+/* Host-fuzzing stub for lwip/ip_addr.h (ADR-061). Minimal surface for the
+ * #954 self-ping block; never functionally exercised in the fuzz env. */
+#pragma once
+
+#include <stdint.h>
+
+typedef struct {
+    uint32_t addr;
+    uint8_t type;
+} ip_addr_t;
+
+static inline int ipaddr_aton(const char *cp, ip_addr_t *addr)
+{
+    (void)cp;
+    if (addr != NULL) {
+        addr->addr = 0;
+        addr->type = 0;
+    }
+    return 1;
+}

firmware/esp32-csi-node/test/stubs/ping/ping_sock.h

@@ -0,0 +1,79 @@
+/* Host-fuzzing stub for ping/ping_sock.h (ADR-061). The #954 self-ping is
+ * unreachable in the fuzz env (esp_netif stub returns no gateway), but the
+ * symbols must compile and link. */
+#pragma once
+
+#include <stdint.h>
+
+#include "esp_err.h"
+#include "lwip/ip_addr.h"
+
+typedef void *esp_ping_handle_t;
+
+typedef void (*esp_ping_cb_t)(esp_ping_handle_t hdl, void *args);
+
+typedef struct {
+    uint32_t count;
+    uint32_t interval_ms;
+    uint32_t timeout_ms;
+    uint32_t data_size;
+    uint8_t tos;
+    int ttl;
+    ip_addr_t target_addr;
+    uint32_t task_stack_size;
+    uint32_t task_prio;
+    uint32_t interface;
+} esp_ping_config_t;
+
+#define ESP_PING_COUNT_INFINITE (0)
+
+#define ESP_PING_DEFAULT_CONFIG()       \
+    {                                   \
+        .count = 5,                     \
+        .interval_ms = 1000,            \
+        .timeout_ms = 1000,             \
+        .data_size = 64,                \
+        .tos = 0,                       \
+        .ttl = 64,                      \
+        .target_addr = {0, 0},          \
+        .task_stack_size = 2048,        \
+        .task_prio = 2,                 \
+        .interface = 0,                 \
+    }
+
+typedef struct {
+    void *cb_args;
+    esp_ping_cb_t on_ping_success;
+    esp_ping_cb_t on_ping_timeout;
+    esp_ping_cb_t on_ping_end;
+} esp_ping_callbacks_t;
+
+static inline esp_err_t esp_ping_new_session(const esp_ping_config_t *config,
+                                             const esp_ping_callbacks_t *cbs,
+                                             esp_ping_handle_t *hdl_out)
+{
+    (void)config;
+    (void)cbs;
+    if (hdl_out != NULL) {
+        *hdl_out = (void *)0;
+    }
+    return ESP_FAIL; /* never starts a ping task in the fuzz env */
+}
+
+static inline esp_err_t esp_ping_start(esp_ping_handle_t hdl)
+{
+    (void)hdl;
+    return ESP_OK;
+}
+
+static inline esp_err_t esp_ping_stop(esp_ping_handle_t hdl)
+{
+    (void)hdl;
+    return ESP_OK;
+}
+
+static inline esp_err_t esp_ping_delete_session(esp_ping_handle_t hdl)
+{
+    (void)hdl;
+    return ESP_OK;
+}

scripts/calibrate-camera-room.py

@@ -0,0 +1,300 @@
+#!/usr/bin/env python3
+"""Two-checkerboard camera-room calibration for WiFi pose training (ADR-152 S2.1.3).
+
+Aligns the ADR-079 ground-truth camera and the ESP32 WiFi transceivers in
+one shared 3D room frame -- the PerceptAlign (arXiv 2601.12252) defense
+against "coordinate overfitting", where CSI-to-camera-coordinate regression
+memorizes the deployment layout and collapses cross-layout.
+
+Procedure (<5 minutes):
+  1. Print a checkerboard (default 9x6 inner corners, 25 mm squares).
+  2. Tape one board flat on the ORIGIN WALL, tape-measure its top-left inner
+     corner position in room coordinates (+x along wall, +y into room, +z up).
+  3. Lay the second board flat on the FLOOR, measure its near-left inner corner.
+  4. With the collection camera in its final position, photograph each board.
+  5. Run this script; tape-measure each ESP32 node position when prompted
+     (or pass --geometry nodes.json).
+
+Output: a calibration bundle JSON consumed by
+    scripts/collect-ground-truth.py --calibration <bundle.json>
+
+Usage:
+    python scripts/calibrate-camera-room.py \\
+        --wall-image photos/wall.jpg --wall-origin 0.50,0.0,1.60 \\
+        --floor-image photos/floor.jpg --floor-origin 1.00,1.00,0.0 \\
+        --calib-images "photos/intrinsics/*.jpg" \\
+        --geometry config/transceivers.json \\
+        --output data/calibration/camera-room.json
+"""
+
+from __future__ import annotations
+
+import argparse
+import glob
+import json
+import sys
+from datetime import datetime
+from pathlib import Path
+
+import cv2
+import numpy as np
+
+sys.path.insert(0, str(Path(__file__).resolve().parent))
+import calibration_lib as cal  # noqa: E402
+
+INTRINSICS_CACHE = Path("data") / ".cache" / "camera_intrinsics.json"
+
+
+def parse_vec3(text: str) -> np.ndarray:
+    parts = [float(p) for p in text.replace(",", " ").split()]
+    if len(parts) != 3:
+        raise argparse.ArgumentTypeError(f"Expected 3 comma-separated numbers, got {text!r}")
+    return np.array(parts, dtype=np.float64)
+
+
+def detect_corners(image_path: Path, cols: int, rows: int) -> tuple[np.ndarray, tuple[int, int]]:
+    image = cv2.imread(str(image_path))
+    if image is None:
+        print(f"ERROR: Cannot read image {image_path}", file=sys.stderr)
+        sys.exit(1)
+    corners = cal.find_board_corners(image, cols, rows)
+    if corners is None:
+        print(
+            f"ERROR: No {cols}x{rows} checkerboard found in {image_path}. "
+            "Check lighting, focus, and the --board-cols/--board-rows flags.",
+            file=sys.stderr,
+        )
+        sys.exit(1)
+    h, w = image.shape[:2]
+    return corners, (w, h)
+
+
+def resolve_intrinsics(args, repo_root: Path, board_args: tuple[int, int, float]) -> dict:
+    """Pre-computed file > cached > computed from --calib-images >
+    last-resort 2-view estimate from the wall+floor photos themselves."""
+    cols, rows, square_m = board_args
+
+    if args.intrinsics:
+        print(f"Intrinsics: loading {args.intrinsics}")
+        return cal.load_intrinsics(Path(args.intrinsics))
+
+    cache_path = repo_root / INTRINSICS_CACHE
+    if cache_path.exists() and not args.recalibrate_intrinsics:
+        print(f"Intrinsics: using cached {cache_path} (pass --recalibrate-intrinsics to redo)")
+        intr = cal.load_intrinsics(cache_path)
+        intr["source"] = "cached"
+        return intr
+
+    if args.calib_images:
+        paths = sorted(glob.glob(args.calib_images))
+        if len(paths) < 3:
+            print(
+                f"ERROR: --calib-images matched only {len(paths)} file(s); "
+                "need >= 3 checkerboard views for stable intrinsics.",
+                file=sys.stderr,
+            )
+            sys.exit(1)
+        corner_sets, image_size = [], None
+        for p in paths:
+            corners, size = detect_corners(Path(p), cols, rows)
+            if image_size is None:
+                image_size = size
+            elif size != image_size:
+                print(f"ERROR: {p} has size {size}, expected {image_size}.", file=sys.stderr)
+                sys.exit(1)
+            corner_sets.append(corners)
+            print(f"  corners found: {p}")
+        intr = cal.compute_intrinsics(corner_sets, image_size, cols, rows, square_m)
+        print(f"Intrinsics: computed from {len(paths)} views, "
+              f"reprojection RMS {intr['reprojection_error_px']:.3f} px")
+        cal.save_bundle(intr, cache_path)  # plain JSON write; reused on next run
+        print(f"  cached to {cache_path}")
+        return intr
+
+    # Last resort: 2-view calibration from the extrinsic photos. Workable but
+    # weak -- warn loudly and recommend a proper multi-view pass.
+    print(
+        "WARNING: no --intrinsics / cache / --calib-images; estimating intrinsics "
+        "from the wall+floor photos alone (2 views, low quality). Prefer "
+        "--calib-images with 5-10 varied board views.",
+        file=sys.stderr,
+    )
+    corner_sets, image_size = [], None
+    for p in (args.wall_image, args.floor_image):
+        corners, size = detect_corners(Path(p), cols, rows)
+        image_size = image_size or size
+        corner_sets.append(corners)
+    intr = cal.compute_intrinsics(corner_sets, image_size, cols, rows, square_m)
+    intr["source"] = "two-view-fallback"
+    return intr
+
+
+def prompt_transceiver_geometry() -> dict:
+    """Tape-measure entry of ESP32 node positions in room coordinates."""
+    print()
+    print("Transceiver geometry -- enter one node per line:")
+    print("  <node-id> <x> <y> <z> [yaw_deg]     (meters, room frame; blank line to finish)")
+    print("  example:  esp32-s3-a 0.10 2.40 1.10 180")
+    nodes = []
+    while True:
+        try:
+            line = input("node> ").strip()
+        except EOFError:
+            break
+        if not line:
+            break
+        parts = line.split()
+        if len(parts) not in (4, 5):
+            print("  expected: <node-id> <x> <y> <z> [yaw_deg]", file=sys.stderr)
+            continue
+        try:
+            node = {"id": parts[0], "position_m": [float(parts[1]), float(parts[2]), float(parts[3])]}
+            if len(parts) == 5:
+                node["antenna_yaw_deg"] = float(parts[4])
+        except ValueError:
+            print("  positions must be numeric", file=sys.stderr)
+            continue
+        nodes.append(node)
+    if not nodes:
+        print("WARNING: no transceiver nodes entered; bundle will carry empty geometry.",
+              file=sys.stderr)
+    return {"nodes": nodes, "units": "meters", "source": "tape-measure-prompt"}
+
+
+def load_geometry_file(path: Path) -> dict:
+    with open(path, "r", encoding="utf-8") as f:
+        data = json.load(f)
+    nodes = data.get("nodes", data if isinstance(data, list) else None)
+    if nodes is None:
+        raise ValueError(f"{path}: expected {{'nodes': [...]}} or a top-level list")
+    for node in nodes:
+        if "id" not in node or "position_m" not in node:
+            raise ValueError(f"{path}: each node needs 'id' and 'position_m' [x,y,z]")
+    return {"nodes": nodes, "units": "meters", "source": "file"}
+
+
+def main():
+    parser = argparse.ArgumentParser(
+        description="Two-checkerboard camera-room calibration (ADR-152 S2.1.3 / ADR-079)."
+    )
+    parser.add_argument("--wall-image", required=True,
+                        help="Photo of the checkerboard on the origin wall")
+    parser.add_argument("--floor-image", required=True,
+                        help="Photo of the checkerboard on the floor (camera NOT moved)")
+    parser.add_argument("--wall-origin", type=parse_vec3, default="0.5,0.0,1.6",
+                        help="Room xyz (m) of the wall board's first inner corner "
+                             "(default: 0.5,0.0,1.6)")
+    parser.add_argument("--floor-origin", type=parse_vec3, default="1.0,1.0,0.0",
+                        help="Room xyz (m) of the floor board's first inner corner "
+                             "(default: 1.0,1.0,0.0)")
+    parser.add_argument("--wall-axes", default="+x,-z",
+                        help="Wall board column,row directions in room frame (default: +x,-z)")
+    parser.add_argument("--floor-axes", default="+x,+y",
+                        help="Floor board column,row directions in room frame (default: +x,+y)")
+    parser.add_argument("--board-cols", type=int, default=cal.DEFAULT_BOARD_COLS,
+                        help=f"Inner corners per row (default: {cal.DEFAULT_BOARD_COLS})")
+    parser.add_argument("--board-rows", type=int, default=cal.DEFAULT_BOARD_ROWS,
+                        help=f"Inner corners per column (default: {cal.DEFAULT_BOARD_ROWS})")
+    parser.add_argument("--square-size-mm", type=float, default=cal.DEFAULT_SQUARE_SIZE_MM,
+                        help=f"Checkerboard square size in mm (default: {cal.DEFAULT_SQUARE_SIZE_MM})")
+    parser.add_argument("--intrinsics", help="Pre-computed intrinsics JSON (skips computation)")
+    parser.add_argument("--calib-images",
+                        help="Glob of >=3 checkerboard photos for intrinsics computation")
+    parser.add_argument("--recalibrate-intrinsics", action="store_true",
+                        help="Ignore the cached intrinsics and recompute")
+    parser.add_argument("--geometry",
+                        help="Transceiver geometry JSON ({nodes:[{id,position_m,[antenna_yaw_deg]}]}); "
+                             "omit to be prompted for tape-measure entry")
+    parser.add_argument("--output", default=None,
+                        help="Bundle output path (default: data/calibration/camera-room-<ts>.json)")
+    args = parser.parse_args()
+
+    if isinstance(args.wall_origin, str):
+        args.wall_origin = parse_vec3(args.wall_origin)
+    if isinstance(args.floor_origin, str):
+        args.floor_origin = parse_vec3(args.floor_origin)
+
+    repo_root = Path(__file__).resolve().parent.parent
+    cols, rows = args.board_cols, args.board_rows
+    square_m = args.square_size_mm / 1000.0
+
+    # --- Intrinsics ---
+    intrinsics = resolve_intrinsics(args, repo_root, (cols, rows, square_m))
+    camera_matrix = np.asarray(intrinsics["camera_matrix"], dtype=np.float64)
+    dist_coeffs = np.asarray(intrinsics["dist_coeffs"], dtype=np.float64)
+
+    # --- Corner detection on the two placed boards ---
+    wall_corners, wall_size = detect_corners(Path(args.wall_image), cols, rows)
+    floor_corners, floor_size = detect_corners(Path(args.floor_image), cols, rows)
+    if wall_size != floor_size:
+        print(f"ERROR: wall image {wall_size} and floor image {floor_size} differ in size; "
+              "both must come from the fixed collection camera.", file=sys.stderr)
+        sys.exit(1)
+    print(f"Corners detected: wall + floor boards ({cols}x{rows}, {args.square_size_mm} mm)")
+
+    # Re-scale intrinsics if they were computed at a different resolution
+    # than the extrinsic photos (the bundle always stores K at wall_size).
+    intr_size = tuple(intrinsics["image_size"])
+    if intr_size != wall_size:
+        sx, sy = wall_size[0] / intr_size[0], wall_size[1] / intr_size[1]
+        camera_matrix[0, 0] *= sx
+        camera_matrix[0, 2] *= sx
+        camera_matrix[1, 1] *= sy
+        camera_matrix[1, 2] *= sy
+        print(f"  intrinsics scaled {intr_size} -> {wall_size}")
+    intrinsics = {**intrinsics, "camera_matrix": camera_matrix.tolist(),
+                  "image_size": list(wall_size)}
+
+    # --- Room-frame corner positions from the measured placements ---
+    wall_u, wall_v = (cal.parse_axis(t) for t in args.wall_axes.split(","))
+    floor_u, floor_v = (cal.parse_axis(t) for t in args.floor_axes.split(","))
+    wall_room = cal.board_room_points(cols, rows, square_m, args.wall_origin, wall_u, wall_v)
+    floor_room = cal.board_room_points(cols, rows, square_m, args.floor_origin, floor_u, floor_v)
+
+    # --- Extrinsics: joint two-board solve (resolves per-board corner-order
+    # ambiguity -- a single planar board is centrosymmetric; the pair is not) ---
+    extrinsics = cal.solve_two_board_extrinsics(
+        wall_room, wall_corners, floor_room, floor_corners, camera_matrix, dist_coeffs
+    )
+    wall_rmse = extrinsics["per_board"]["wall"]["rmse_px"]
+    floor_rmse = extrinsics["per_board"]["floor"]["rmse_px"]
+    print(f"  joint solve: RMSE {extrinsics['rmse_px']:.3f} px "
+          f"(wall {wall_rmse:.3f} / floor {floor_rmse:.3f})")
+    print(f"  camera at room {np.round(extrinsics['translation_m'], 3).tolist()} m")
+    if max(wall_rmse, floor_rmse) > 3.0:
+        print(
+            "WARNING: high per-board reprojection error -- re-check the measured "
+            "board origins/axes and that the camera did not move between photos.",
+            file=sys.stderr,
+        )
+
+    # --- Transceiver geometry ---
+    if args.geometry:
+        geometry = load_geometry_file(Path(args.geometry))
+        print(f"Transceiver geometry: {len(geometry['nodes'])} node(s) from {args.geometry}")
+    else:
+        geometry = prompt_transceiver_geometry()
+
+    # --- Bundle ---
+    bundle = cal.make_bundle(
+        camera_intrinsics=intrinsics,
+        camera_to_room_extrinsics=extrinsics,
+        checkerboard_spec={"cols": cols, "rows": rows, "square_size_mm": args.square_size_mm},
+        transceiver_geometry=geometry,
+    )
+    if args.output:
+        out_path = Path(args.output)
+    else:
+        ts = datetime.now().strftime("%Y%m%d_%H%M%S")
+        out_path = repo_root / "data" / "calibration" / f"camera-room-{ts}.json"
+    cal.save_bundle(bundle, out_path)
+
+    print()
+    print("=== Calibration bundle written ===")
+    print(f"  path:           {out_path}")
+    print(f"  calibration_id: {cal.calibration_id(bundle)}")
+    print(f"  next: python scripts/collect-ground-truth.py --calibration {out_path}")
+
+
+if __name__ == "__main__":
+    main()

scripts/calibration_lib.py

@@ -0,0 +1,416 @@
+#!/usr/bin/env python3
+"""Camera-room calibration library for WiFi pose ground truth (ADR-152 S2.1.3).
+
+Implements the PerceptAlign-style two-checkerboard alignment adopted in
+ADR-152 S2.1.3 to defend the ADR-079 camera-supervised pipeline against
+"coordinate overfitting" (arXiv 2601.12252, MobiCom'26): models regressing
+CSI to raw camera-frame coordinates memorize the deployment layout and
+collapse cross-layout. The fix is to express camera AND WiFi transceivers
+in one shared 3D room frame, and stamp every training label with the
+calibration + transceiver geometry that produced it.
+
+Used by:
+    scripts/calibrate-camera-room.py   (produces the calibration bundle)
+    scripts/collect-ground-truth.py    (consumes it via --calibration)
+
+Room frame convention (right-handed, meters):
+    origin = a designated wall/floor corner of the room
+    +x     = along the origin wall
+    +y     = into the room (away from the origin wall)
+    +z     = up
+
+No-depth limitation (IMPORTANT): a single 2D camera keypoint constrains
+only a *ray* in the room frame, not a 3D point. The transform helpers here
+therefore return unit bearing rays from the camera center -- a projective
+alignment. Consumers that need metric 3D points must supply a depth
+assumption downstream (floor-plane intersection, known subject height,
+multi-view triangulation, ...). Raw image coordinates are always preserved
+alongside the room-frame rays so training can choose either representation.
+"""
+
+from __future__ import annotations
+
+import hashlib
+import json
+from datetime import datetime, timezone
+from pathlib import Path
+
+import cv2
+import numpy as np
+
+BUNDLE_SCHEMA_VERSION = 1
+BUNDLE_METHOD = "two-checkerboard"
+
+# Default checkerboard: 9x6 inner corners, 25 mm squares (a common print).
+DEFAULT_BOARD_COLS = 9
+DEFAULT_BOARD_ROWS = 6
+DEFAULT_SQUARE_SIZE_MM = 25.0
+
+_AXIS_TOKENS = {
+    "+x": (1.0, 0.0, 0.0), "-x": (-1.0, 0.0, 0.0),
+    "+y": (0.0, 1.0, 0.0), "-y": (0.0, -1.0, 0.0),
+    "+z": (0.0, 0.0, 1.0), "-z": (0.0, 0.0, -1.0),
+}
+
+
+def parse_axis(token: str) -> np.ndarray:
+    """Parse an axis token like '+x' or '-z' into a room-frame unit vector."""
+    key = token.strip().lower()
+    if key in _AXIS_TOKENS:
+        return np.array(_AXIS_TOKENS[key], dtype=np.float64)
+    raise ValueError(f"Invalid axis token {token!r}; expected one of {sorted(_AXIS_TOKENS)}")
+
+
+# ---------------------------------------------------------------------------
+# Checkerboard geometry
+# ---------------------------------------------------------------------------
+
+def board_object_points(cols: int, rows: int, square_size_m: float) -> np.ndarray:
+    """Inner-corner positions in the board's own frame (z=0 plane), row-major.
+
+    Matches the corner ordering of cv2.findChessboardCorners for a
+    (cols, rows) pattern: cols varies fastest.
+    """
+    pts = np.zeros((rows * cols, 3), dtype=np.float64)
+    grid = np.mgrid[0:cols, 0:rows].T.reshape(-1, 2)  # (rows*cols, 2), cols fastest
+    pts[:, :2] = grid * square_size_m
+    return pts
+
+
+def board_room_points(
+    cols: int,
+    rows: int,
+    square_size_m: float,
+    origin: np.ndarray,
+    u_axis: np.ndarray,
+    v_axis: np.ndarray,
+) -> np.ndarray:
+    """Inner-corner positions in ROOM coordinates for a board placed at a
+    known position: first corner at `origin`, columns stepping along
+    `u_axis`, rows stepping along `v_axis` (both room-frame unit vectors).
+    """
+    local = board_object_points(cols, rows, square_size_m)
+    origin = np.asarray(origin, dtype=np.float64)
+    u = np.asarray(u_axis, dtype=np.float64)
+    v = np.asarray(v_axis, dtype=np.float64)
+    return origin[None, :] + local[:, 0:1] * u[None, :] + local[:, 1:2] * v[None, :]
+
+
+def find_board_corners(image: np.ndarray, cols: int, rows: int) -> np.ndarray | None:
+    """Detect and sub-pixel-refine checkerboard inner corners.
+
+    Returns (cols*rows, 2) float64 pixel coordinates, or None if not found.
+    """
+    gray = image if image.ndim == 2 else cv2.cvtColor(image, cv2.COLOR_BGR2GRAY)
+    flags = cv2.CALIB_CB_ADAPTIVE_THRESH | cv2.CALIB_CB_NORMALIZE_IMAGE
+    found, corners = cv2.findChessboardCorners(gray, (cols, rows), flags=flags)
+    if not found:
+        return None
+    criteria = (cv2.TERM_CRITERIA_EPS + cv2.TERM_CRITERIA_MAX_ITER, 30, 1e-3)
+    corners = cv2.cornerSubPix(gray, corners, (11, 11), (-1, -1), criteria)
+    return corners.reshape(-1, 2).astype(np.float64)
+
+
+# ---------------------------------------------------------------------------
+# Intrinsics
+# ---------------------------------------------------------------------------
+
+def compute_intrinsics(
+    corner_sets: list[np.ndarray],
+    image_size: tuple[int, int],
+    cols: int,
+    rows: int,
+    square_size_m: float,
+) -> dict:
+    """Camera intrinsics from N checkerboard views via cv2.calibrateCamera.
+
+    corner_sets: list of (cols*rows, 2) pixel corner arrays.
+    image_size:  (width, height) of the calibration images.
+    """
+    obj = board_object_points(cols, rows, square_size_m).astype(np.float32)
+    obj_pts = [obj for _ in corner_sets]
+    img_pts = [c.reshape(-1, 1, 2).astype(np.float32) for c in corner_sets]
+    rms, camera_matrix, dist_coeffs, _, _ = cv2.calibrateCamera(
+        obj_pts, img_pts, tuple(image_size), None, None
+    )
+    return {
+        "image_size": [int(image_size[0]), int(image_size[1])],
+        "camera_matrix": camera_matrix.tolist(),
+        "dist_coeffs": dist_coeffs.ravel().tolist(),
+        "reprojection_error_px": float(rms),
+        "source": "computed",
+    }
+
+
+def load_intrinsics(path: Path) -> dict:
+    """Load a pre-computed intrinsics JSON ({camera_matrix, dist_coeffs, image_size})."""
+    with open(path, "r", encoding="utf-8") as f:
+        data = json.load(f)
+    # Accept either a bare intrinsics dict or a full calibration bundle.
+    intr = data.get("camera_intrinsics", data)
+    for key in ("camera_matrix", "dist_coeffs", "image_size"):
+        if key not in intr:
+            raise ValueError(f"Intrinsics file {path} missing key {key!r}")
+    intr = dict(intr)
+    intr["source"] = "file"
+    return intr
+
+
+# ---------------------------------------------------------------------------
+# Extrinsics (camera -> room rigid transform)
+# ---------------------------------------------------------------------------
+
+def reprojection_rmse(
+    room_points: np.ndarray,
+    image_points: np.ndarray,
+    rvec: np.ndarray,
+    tvec: np.ndarray,
+    camera_matrix: np.ndarray,
+    dist_coeffs: np.ndarray,
+) -> float:
+    proj, _ = cv2.projectPoints(room_points, rvec, tvec, camera_matrix, dist_coeffs)
+    err = proj.reshape(-1, 2) - image_points.reshape(-1, 2)
+    return float(np.sqrt(np.mean(np.sum(err**2, axis=1))))
+
+
+def _solve_pnp(
+    room_points: np.ndarray,
+    image_points: np.ndarray,
+    camera_matrix: np.ndarray,
+    dist_coeffs: np.ndarray,
+) -> dict | None:
+    """One solvePnP run (room->camera), inverted to camera->room. Returns
+    {rotation (3x3 camera->room), translation_m (camera center in room
+    frame), rmse_px} or None on failure.
+    """
+    ok, rvec, tvec = cv2.solvePnP(
+        room_points.reshape(-1, 1, 3),
+        image_points.reshape(-1, 1, 2),
+        camera_matrix,
+        dist_coeffs,
+        flags=cv2.SOLVEPNP_ITERATIVE,
+    )
+    if not ok:
+        return None
+    rmse = reprojection_rmse(room_points, image_points, rvec, tvec, camera_matrix, dist_coeffs)
+    r_room_to_cam, _ = cv2.Rodrigues(rvec)
+    r_cam_to_room = r_room_to_cam.T
+    camera_center_room = (-r_cam_to_room @ tvec).ravel()
+    return {
+        "rotation": r_cam_to_room.tolist(),
+        "translation_m": camera_center_room.tolist(),
+        "rmse_px": rmse,
+    }
+
+
+def solve_extrinsics(
+    room_points: np.ndarray,
+    image_points: np.ndarray,
+    camera_matrix: np.ndarray,
+    dist_coeffs: np.ndarray,
+) -> dict:
+    """Solve the camera->room rigid transform from 3D room-frame points and
+    their 2D pixel observations.
+
+    NOTE: the corner grid of a single planar checkerboard is centrosymmetric,
+    so the corner ordering returned by findChessboardCorners (which may
+    enumerate from either board end) cannot be disambiguated from one board
+    alone -- the reversed ordering fits a ghost pose with identical
+    reprojection error. Use solve_two_board_extrinsics for the full
+    two-checkerboard procedure, where the joint point set breaks the symmetry.
+    """
+    ext = _solve_pnp(room_points, image_points, camera_matrix, dist_coeffs)
+    if ext is None:
+        raise RuntimeError("solvePnP failed")
+    return ext
+
+
+def solve_two_board_extrinsics(
+    wall_room: np.ndarray,
+    wall_image: np.ndarray,
+    floor_room: np.ndarray,
+    floor_image: np.ndarray,
+    camera_matrix: np.ndarray,
+    dist_coeffs: np.ndarray,
+) -> dict:
+    """Joint camera->room solve over both checkerboards (the ADR-152 S2.1.3
+    two-checkerboard method).
+
+    Tries all 4 per-board corner-ordering combinations: each board's ordering
+    is individually ambiguous (centrosymmetric grid), but the combined
+    wall+floor point set is not, so exactly one combination reaches minimal
+    reprojection error. Returns the solve_extrinsics dict plus
+    {wall_flipped, floor_flipped, per_board: {wall|floor: {rmse_px}}}.
+    """
+    best = None
+    for wall_flipped in (False, True):
+        for floor_flipped in (False, True):
+            wi = wall_image[::-1].copy() if wall_flipped else wall_image
+            fi = floor_image[::-1].copy() if floor_flipped else floor_image
+            room = np.concatenate([wall_room, floor_room], axis=0)
+            img = np.concatenate([wi, fi], axis=0)
+            ext = _solve_pnp(room, img, camera_matrix, dist_coeffs)
+            if ext is None:
+                continue
+            if best is None or ext["rmse_px"] < best[0]["rmse_px"]:
+                ext["wall_flipped"] = wall_flipped
+                ext["floor_flipped"] = floor_flipped
+                rvec, _ = cv2.Rodrigues(np.asarray(ext["rotation"]).T)
+                tvec = -np.asarray(ext["rotation"]).T @ np.asarray(ext["translation_m"])
+                ext["per_board"] = {
+                    "wall": {"rmse_px": reprojection_rmse(
+                        wall_room, wi, rvec, tvec, camera_matrix, dist_coeffs)},
+                    "floor": {"rmse_px": reprojection_rmse(
+                        floor_room, fi, rvec, tvec, camera_matrix, dist_coeffs)},
+                }
+                best = (ext,)
+    if best is None:
+        raise RuntimeError("solvePnP failed for all corner-ordering combinations")
+    return best[0]
+
+
+def extrinsics_consistency(ext_a: dict, ext_b: dict) -> dict:
+    """Angular + translational disagreement between two extrinsic solutions
+    (the two single-board solves). Large values mean a mis-entered board
+    placement or a bad corner detection.
+    """
+    ra = np.asarray(ext_a["rotation"])
+    rb = np.asarray(ext_b["rotation"])
+    r_delta = ra.T @ rb
+    angle = float(np.degrees(np.arccos(np.clip((np.trace(r_delta) - 1.0) / 2.0, -1.0, 1.0))))
+    t_delta = float(
+        np.linalg.norm(np.asarray(ext_a["translation_m"]) - np.asarray(ext_b["translation_m"]))
+    )
+    return {"rotation_deg": angle, "translation_m": t_delta}
+
+
+# ---------------------------------------------------------------------------
+# Calibration bundle (the artifact written to disk)
+# ---------------------------------------------------------------------------
+
+def make_bundle(
+    camera_intrinsics: dict,
+    camera_to_room_extrinsics: dict,
+    checkerboard_spec: dict,
+    transceiver_geometry: dict,
+) -> dict:
+    return {
+        "schema_version": BUNDLE_SCHEMA_VERSION,
+        "method": BUNDLE_METHOD,
+        "calibrated_at": datetime.now(timezone.utc).isoformat(),
+        "room_frame": {
+            "description": "right-handed; origin at wall/floor corner; "
+            "+x along origin wall, +y into room, +z up",
+            "units": "meters",
+        },
+        "checkerboard_spec": checkerboard_spec,
+        "camera_intrinsics": camera_intrinsics,
+        "camera_to_room_extrinsics": camera_to_room_extrinsics,
+        "transceiver_geometry": transceiver_geometry,
+    }
+
+
+def calibration_id(bundle: dict) -> str:
+    """Stable content hash of a bundle -- stamped onto every emitted sample
+    so a label can always be traced to the exact calibration that framed it.
+    """
+    canonical = json.dumps(bundle, sort_keys=True, separators=(",", ":"))
+    return "sha256:" + hashlib.sha256(canonical.encode("utf-8")).hexdigest()
+
+
+def save_bundle(bundle: dict, path: Path) -> None:
+    path = Path(path)
+    path.parent.mkdir(parents=True, exist_ok=True)
+    with open(path, "w", encoding="utf-8") as f:
+        json.dump(bundle, f, indent=2)
+        f.write("\n")
+
+
+def load_bundle(path: Path) -> dict:
+    with open(path, "r", encoding="utf-8") as f:
+        bundle = json.load(f)
+    for key in ("camera_intrinsics", "camera_to_room_extrinsics", "transceiver_geometry"):
+        if key not in bundle:
+            raise ValueError(f"Calibration bundle {path} missing key {key!r}")
+    return bundle
+
+
+# ---------------------------------------------------------------------------
+# Keypoint transform (image -> room-frame bearing rays)
+# ---------------------------------------------------------------------------
+
+class CalibrationContext:
+    """Pre-computed transform state for a collection session.
+
+    Scales the bundle's intrinsics to the live capture resolution (MediaPipe
+    keypoints are normalized [0,1], so we need the actual frame size to get
+    back to pixels before undistorting).
+    """
+
+    def __init__(self, bundle: dict, frame_w: int, frame_h: int):
+        self.bundle = bundle
+        self.calibration_id = calibration_id(bundle)
+        self.transceiver_geometry = bundle["transceiver_geometry"]
+        self.frame_w = int(frame_w)
+        self.frame_h = int(frame_h)
+
+        intr = bundle["camera_intrinsics"]
+        k = np.asarray(intr["camera_matrix"], dtype=np.float64)
+        cal_w, cal_h = intr["image_size"]
+        sx = self.frame_w / float(cal_w)
+        sy = self.frame_h / float(cal_h)
+        k = k.copy()
+        k[0, 0] *= sx
+        k[0, 2] *= sx
+        k[1, 1] *= sy
+        k[1, 2] *= sy
+        self.camera_matrix = k
+        self.dist_coeffs = np.asarray(intr["dist_coeffs"], dtype=np.float64)
+
+        ext = bundle["camera_to_room_extrinsics"]
+        self.r_cam_to_room = np.asarray(ext["rotation"], dtype=np.float64)
+        self.origin_room = np.asarray(ext["translation_m"], dtype=np.float64)
+
+    def transform_keypoints(self, keypoints_norm: list[list[float]]) -> tuple[np.ndarray, np.ndarray]:
+        """Normalized [0,1] image keypoints -> unit bearing rays in the room
+        frame, anchored at the camera center.
+
+        Projective alignment ONLY (no depth): each returned ray is the locus
+        of room positions consistent with the 2D observation. Returns
+        (camera_origin_room (3,), ray_dirs (N, 3) unit vectors).
+        """
+        pts = np.asarray(keypoints_norm, dtype=np.float64)
+        pts_px = pts * np.array([self.frame_w, self.frame_h], dtype=np.float64)
+        undist = cv2.undistortPoints(
+            pts_px.reshape(-1, 1, 2), self.camera_matrix, self.dist_coeffs
+        ).reshape(-1, 2)
+        rays_cam = np.concatenate([undist, np.ones((len(undist), 1))], axis=1)
+        rays_cam /= np.linalg.norm(rays_cam, axis=1, keepdims=True)
+        rays_room = (self.r_cam_to_room @ rays_cam.T).T
+        return self.origin_room, rays_room
+
+
+def load_calibration_context(path: Path, frame_w: int, frame_h: int) -> CalibrationContext:
+    return CalibrationContext(load_bundle(path), frame_w, frame_h)
+
+
+def augment_record(record: dict, ctx: CalibrationContext | None) -> dict:
+    """Stamp a ground-truth record with room-frame rays + calibration metadata.
+
+    With ctx=None this is the identity -- the record (and hence the emitted
+    JSONL line) is byte-identical to the pre-calibration ADR-079 format.
+    Raw image-coordinate keypoints are kept untouched in both cases; the
+    room-frame representation is ADDED, never substituted, so training can
+    choose either (ADR-152 S2.1.3).
+    """
+    if ctx is None:
+        return record
+    if record.get("keypoints"):
+        _, rays = ctx.transform_keypoints(record["keypoints"])
+        record["keypoints_room"] = [[round(float(v), 5) for v in ray] for ray in rays]
+    else:
+        record["keypoints_room"] = []
+    record["camera_origin_room"] = [round(float(v), 5) for v in ctx.origin_room]
+    record["calibration_id"] = ctx.calibration_id
+    record["transceiver_geometry"] = ctx.transceiver_geometry
+    return record

scripts/collect-ground-truth.py

@@ -6,9 +6,19 @@ synchronizes with ESP32 CSI recording from the sensing server.
 
 Output: JSONL file in data/ground-truth/ with per-frame 17-keypoint COCO poses.
 
+With --calibration <bundle.json> (produced by scripts/calibrate-camera-room.py,
+ADR-152 S2.1.3), every record is additionally stamped with room-frame bearing
+rays for each keypoint, the calibration_id, and the transceiver geometry --
+the PerceptAlign-style defense against coordinate overfitting. Raw image
+coordinates are always kept; without depth the room-frame representation is
+a projective alignment (rays, not 3D points) -- see scripts/calibration_lib.py.
+Without --calibration the output is byte-identical to the original ADR-079
+format.
+
 Usage:
     python scripts/collect-ground-truth.py --preview --duration 60
     python scripts/collect-ground-truth.py --server http://192.168.1.10:3000
+    python scripts/collect-ground-truth.py --calibration data/calibration/camera-room.json
 """
 
 from __future__ import annotations
@@ -168,8 +178,23 @@ def main():
         default="data/ground-truth",
         help="Output directory (default: data/ground-truth)",
     )
+    parser.add_argument(
+        "--calibration",
+        default=None,
+        help="Camera-room calibration bundle JSON from scripts/calibrate-camera-room.py "
+        "(ADR-152 S2.1.3); adds room-frame keypoint rays + transceiver geometry "
+        "to every record",
+    )
     args = parser.parse_args()
 
+    if not args.calibration:
+        print(
+            "WARNING: no --calibration bundle; labels stay in raw camera coordinates "
+            "and are layout-brittle (coordinate overfitting, ADR-152 S2.1.3) -- run "
+            "scripts/calibrate-camera-room.py first.",
+            file=sys.stderr,
+        )
+
     # --- Resolve paths relative to repo root ---
     repo_root = Path(__file__).resolve().parent.parent
     output_dir = repo_root / args.output
@@ -193,6 +218,25 @@ def main():
     frame_h = int(cap.get(cv2.CAP_PROP_FRAME_HEIGHT))
     print(f"Camera opened: {frame_w}x{frame_h}")
 
+    # --- Load calibration bundle (ADR-152 S2.1.3) ---
+    calib_ctx = None
+    if args.calibration:
+        # Lazy import keeps the no-calibration path identical to the original.
+        sys.path.insert(0, str(Path(__file__).resolve().parent))
+        import calibration_lib
+
+        try:
+            calib_ctx = calibration_lib.load_calibration_context(
+                Path(args.calibration), frame_w, frame_h
+            )
+        except (OSError, ValueError, json.JSONDecodeError) as exc:
+            print(f"ERROR: Cannot load calibration bundle {args.calibration}: {exc}",
+                  file=sys.stderr)
+            sys.exit(1)
+        n_nodes = len(calib_ctx.transceiver_geometry.get("nodes", []))
+        print(f"Calibration: {calib_ctx.calibration_id[:23]}... "
+              f"({n_nodes} transceiver node(s)); emitting room-frame keypoint rays")
+
     # --- Create PoseLandmarker ---
     options = PoseLandmarkerOptions(
         base_options=BaseOptions(model_asset_path=str(model_path)),
@@ -287,6 +331,10 @@ def main():
                 "n_visible": n_visible,
                 "n_persons": n_persons,
             }
+            if calib_ctx is not None:
+                # Adds keypoints_room (bearing rays), camera_origin_room,
+                # calibration_id, transceiver_geometry (ADR-152 S2.1.3).
+                record = calibration_lib.augment_record(record, calib_ctx)
             out_file.write(json.dumps(record) + "\n")
             frame_count += 1
             total_confidence += confidence

scripts/csi-udp-relay.py

@@ -0,0 +1,66 @@
+#!/usr/bin/env python3
+"""Firewall-free CSI UDP relay for local Windows ESP32 testing.
+
+On Windows, a freshly-built binary (e.g. `wifi-densepose calibrate-serve`) is
+blocked from receiving inbound LAN UDP by Windows Defender Firewall unless an
+admin adds an allow rule. `python.exe` is typically already allowed. This relay
+binds the public CSI port, receives the ESP32's frames, and forwards each
+datagram verbatim to a loopback port where the calibration server listens
+(loopback is exempt from the inbound firewall). No admin required.
+
+Usage:
+    python scripts/csi-udp-relay.py --listen 5005 --forward 5006
+
+Then run the calibration server on the loopback port:
+    wifi-densepose calibrate-serve --udp-bind 127.0.0.1 --udp-port 5006
+
+Frames are passed through byte-for-byte; the relay never parses or mutates them.
+"""
+import argparse
+import socket
+import time
+
+
+def main() -> None:
+    ap = argparse.ArgumentParser(description="Forward ESP32 CSI UDP to a loopback port (no admin).")
+    ap.add_argument("--listen", type=int, default=5005, help="public UDP port the ESP32 streams to")
+    ap.add_argument("--listen-host", default="0.0.0.0", help="bind address for the public port")
+    ap.add_argument("--forward", type=int, default=5006, help="loopback port the calibration server listens on")
+    ap.add_argument("--forward-host", default="127.0.0.1", help="loopback host to forward to")
+    ap.add_argument("--quiet", action="store_true", help="suppress the periodic stats line")
+    args = ap.parse_args()
+
+    rx = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
+    rx.setsockopt(socket.SOL_SOCKET, socket.SO_REUSEADDR, 1)
+    rx.bind((args.listen_host, args.listen))
+    rx.settimeout(1.0)
+    tx = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
+    dst = (args.forward_host, args.forward)
+
+    print(f"[relay] {args.listen_host}:{args.listen}  ->  {dst[0]}:{dst[1]}  (Ctrl-C to stop)")
+    count = 0
+    last_report = time.time()
+    last_src = None
+    try:
+        while True:
+            try:
+                data, src = rx.recvfrom(2048)
+            except socket.timeout:
+                data = None
+            if data:
+                tx.sendto(data, dst)
+                count += 1
+                last_src = src
+            now = time.time()
+            if not args.quiet and now - last_report >= 5.0:
+                print(f"[relay] forwarded {count} frames (last src={last_src})")
+                last_report = now
+    except KeyboardInterrupt:
+        print(f"\n[relay] stopped after {count} frames")
+    finally:
+        rx.close()
+        tx.close()
+
+
+if __name__ == "__main__":
+    main()

scripts/overnight-empty-capture.py

@@ -0,0 +1,80 @@
+#!/usr/bin/env python3
+"""Segmented overnight empty-room CSI capture (ADR-135 baseline / MAE corpus).
+
+Binds UDP once and writes fixed-duration JSONL segments with explicit names —
+no post-hoc renaming, no glob collisions with other recordings.
+
+Usage:
+    python scripts/overnight-empty-capture.py --segments 8 --segment-seconds 3300
+"""
+
+import argparse
+import json
+import os
+import socket
+import struct
+import time
+
+
+def parse_csi_packet(data):
+    """ADR-018 binary CSI packet → dict (same layout as record-csi-udp.py)."""
+    if len(data) < 8:
+        return None
+    node_id = data[4]
+    rssi = struct.unpack("b", bytes([data[6]]))[0]
+    channel = data[7]
+    iq = data[8:]
+    amplitudes = []
+    for i in range(0, len(iq) - 1, 2):
+        I = struct.unpack("b", bytes([iq[i]]))[0]
+        Q = struct.unpack("b", bytes([iq[i + 1]]))[0]
+        amplitudes.append(round((I * I + Q * Q) ** 0.5, 2))
+    return {
+        "type": "raw_csi",
+        "ts_ns": time.time_ns(),
+        "node_id": node_id,
+        "rssi": rssi,
+        "channel": channel,
+        "subcarriers": len(iq) // 2,
+        "amplitudes": amplitudes,
+        "iq_hex": iq.hex(),
+    }
+
+
+def main():
+    ap = argparse.ArgumentParser()
+    ap.add_argument("--port", type=int, default=5005)
+    ap.add_argument("--segments", type=int, default=8)
+    ap.add_argument("--segment-seconds", type=int, default=3300)
+    ap.add_argument("--output", default="data/recordings")
+    ap.add_argument("--prefix", default="overnight-empty")
+    args = ap.parse_args()
+
+    os.makedirs(args.output, exist_ok=True)
+    sock = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
+    sock.bind(("0.0.0.0", args.port))
+    sock.settimeout(2.0)
+
+    for seg in range(1, args.segments + 1):
+        path = os.path.join(
+            args.output, f"{args.prefix}-seg{seg}-{int(time.time())}.csi.jsonl"
+        )
+        n = 0
+        t_end = time.time() + args.segment_seconds
+        with open(path, "w", encoding="utf-8") as f:
+            while time.time() < t_end:
+                try:
+                    data, _ = sock.recvfrom(4096)
+                except socket.timeout:
+                    continue
+                rec = parse_csi_packet(data)
+                if rec is not None:
+                    f.write(json.dumps(rec) + "\n")
+                    n += 1
+        print(f"segment {seg}: {n} frames -> {path}", flush=True)
+
+    print("capture complete", flush=True)
+
+
+if __name__ == "__main__":
+    main()

scripts/tests/conftest.py

@@ -0,0 +1,8 @@
+"""Make scripts/ importable for the calibration tests (ADR-152 S2.1.3)."""
+
+import sys
+from pathlib import Path
+
+SCRIPTS_DIR = Path(__file__).resolve().parents[1]
+if str(SCRIPTS_DIR) not in sys.path:
+    sys.path.insert(0, str(SCRIPTS_DIR))

scripts/tests/test_calibration.py

@@ -0,0 +1,326 @@
+#!/usr/bin/env python3
+"""Headless tests for the camera-room calibration pipeline (ADR-152 S2.1.3).
+
+Covers calibration_lib.py end to end on synthetic data -- no camera, no
+display, no MediaPipe:
+  * known extrinsics recovered from synthetic two-checkerboard corners
+  * calibration bundle JSON round-trip + stable content hash
+  * image->room keypoint transform correctness (rays pass through the
+    original 3D points -- the projective, no-depth alignment of ADR-079
+    labels into the shared room frame)
+  * collect-ground-truth's no-calibration record path is byte-identical
+    (augment_record with ctx=None is the identity)
+
+Run:  python -m pytest scripts/tests/ -q
+"""
+
+from __future__ import annotations
+
+import json
+
+import cv2
+import numpy as np
+import pytest
+
+import calibration_lib as cal
+
+# ---------------------------------------------------------------------------
+# Synthetic scene fixtures
+# ---------------------------------------------------------------------------
+
+IMG_W, IMG_H = 1280, 720
+K_GT = np.array(
+    [[800.0, 0.0, 640.0],
+     [0.0, 800.0, 360.0],
+     [0.0, 0.0, 1.0]]
+)
+DIST_ZERO = np.zeros(5)
+DIST_MILD = np.array([-0.10, 0.02, 0.001, -0.001, 0.0])
+
+BOARD_COLS, BOARD_ROWS = 9, 6
+SQUARE_M = 0.025
+
+
+def look_at_pose(camera_pos, target):
+    """Ground-truth camera pose: returns (R_cam_to_room, camera_center_room).
+
+    Camera convention: +z forward (optical axis), +x right, +y down.
+    """
+    c = np.asarray(camera_pos, dtype=np.float64)
+    fwd = np.asarray(target, dtype=np.float64) - c
+    fwd /= np.linalg.norm(fwd)
+    up_room = np.array([0.0, 0.0, 1.0])
+    x_cam = np.cross(fwd, -up_room)
+    x_cam /= np.linalg.norm(x_cam)
+    y_cam = np.cross(fwd, x_cam)
+    r_cam_to_room = np.stack([x_cam, y_cam, fwd], axis=1)  # columns = camera axes in room
+    return r_cam_to_room, c
+
+
+def room_to_cam(r_cam_to_room, center):
+    """Invert to the solvePnP (room->camera) convention: rvec, tvec."""
+    r_room_to_cam = r_cam_to_room.T
+    tvec = -r_room_to_cam @ center
+    rvec, _ = cv2.Rodrigues(r_room_to_cam)
+    return rvec, tvec.reshape(3, 1)
+
+
+def project_room_points(points_room, r_cam_to_room, center, k=K_GT, dist=DIST_ZERO):
+    rvec, tvec = room_to_cam(r_cam_to_room, center)
+    proj, _ = cv2.projectPoints(np.asarray(points_room, dtype=np.float64), rvec, tvec, k, dist)
+    return proj.reshape(-1, 2)
+
+
+@pytest.fixture
+def scene():
+    """A camera in the room looking at the wall + floor checkerboards."""
+    r_gt, c_gt = look_at_pose(camera_pos=[1.5, 3.0, 1.3], target=[1.0, 0.5, 0.8])
+    wall_room = cal.board_room_points(
+        BOARD_COLS, BOARD_ROWS, SQUARE_M,
+        origin=[0.5, 0.0, 1.6], u_axis=cal.parse_axis("+x"), v_axis=cal.parse_axis("-z"),
+    )
+    floor_room = cal.board_room_points(
+        BOARD_COLS, BOARD_ROWS, SQUARE_M,
+        origin=[1.0, 1.0, 0.0], u_axis=cal.parse_axis("+x"), v_axis=cal.parse_axis("+y"),
+    )
+    return r_gt, c_gt, wall_room, floor_room
+
+
+def make_bundle(r_gt, c_gt, dist=DIST_ZERO):
+    return cal.make_bundle(
+        camera_intrinsics={
+            "image_size": [IMG_W, IMG_H],
+            "camera_matrix": K_GT.tolist(),
+            "dist_coeffs": dist.tolist(),
+            "reprojection_error_px": 0.0,
+            "source": "synthetic",
+        },
+        camera_to_room_extrinsics={
+            "rotation": r_gt.tolist(),
+            "translation_m": c_gt.tolist(),
+            "rmse_px": 0.0,
+        },
+        checkerboard_spec={"cols": BOARD_COLS, "rows": BOARD_ROWS, "square_size_mm": 25.0},
+        transceiver_geometry={
+            "nodes": [
+                {"id": "esp32-s3-a", "position_m": [0.1, 2.4, 1.1], "antenna_yaw_deg": 180.0},
+                {"id": "esp32-c6-b", "position_m": [3.2, 0.3, 0.9]},
+            ],
+            "units": "meters",
+            "source": "file",
+        },
+    )
+
+
+# ---------------------------------------------------------------------------
+# Extrinsics recovery from synthetic checkerboard corners
+# ---------------------------------------------------------------------------
+
+class TestExtrinsicsRecovery:
+    def test_two_board_combined_recovers_known_pose(self, scene):
+        r_gt, c_gt, wall_room, floor_room = scene
+        room_pts = np.concatenate([wall_room, floor_room], axis=0)
+        img_pts = project_room_points(room_pts, r_gt, c_gt)
+
+        ext = cal.solve_extrinsics(room_pts, img_pts, K_GT, DIST_ZERO)
+
+        assert ext["rmse_px"] < 1e-3
+        np.testing.assert_allclose(np.asarray(ext["translation_m"]), c_gt, atol=1e-4)
+        r_delta = np.asarray(ext["rotation"]).T @ r_gt
+        angle_deg = np.degrees(np.arccos(np.clip((np.trace(r_delta) - 1) / 2, -1, 1)))
+        assert angle_deg < 0.01
+
+    def test_single_board_solves_agree(self, scene):
+        # With correct corner ordering, each board alone recovers the same pose.
+        r_gt, c_gt, wall_room, floor_room = scene
+        ext_wall = cal.solve_extrinsics(
+            wall_room, project_room_points(wall_room, r_gt, c_gt), K_GT, DIST_ZERO)
+        ext_floor = cal.solve_extrinsics(
+            floor_room, project_room_points(floor_room, r_gt, c_gt), K_GT, DIST_ZERO)
+        consistency = cal.extrinsics_consistency(ext_wall, ext_floor)
+        assert consistency["rotation_deg"] < 0.1
+        assert consistency["translation_m"] < 1e-3
+
+    def test_reversed_corner_order_auto_recovered(self, scene):
+        # findChessboardCorners may enumerate from either board end. A single
+        # board cannot disambiguate that flip (centrosymmetric grid), but the
+        # joint two-board solve can -- feed it a reversed wall ordering and
+        # require the true pose back.
+        r_gt, c_gt, wall_room, floor_room = scene
+        wall_img = project_room_points(wall_room, r_gt, c_gt)
+        floor_img = project_room_points(floor_room, r_gt, c_gt)
+        ext = cal.solve_two_board_extrinsics(
+            wall_room, wall_img[::-1].copy(), floor_room, floor_img,
+            K_GT, DIST_ZERO)
+        assert ext["wall_flipped"] is True
+        assert ext["floor_flipped"] is False
+        assert ext["rmse_px"] < 1e-3
+        np.testing.assert_allclose(np.asarray(ext["translation_m"]), c_gt, atol=1e-3)
+
+    def test_joint_solver_matches_unflipped(self, scene):
+        r_gt, c_gt, wall_room, floor_room = scene
+        ext = cal.solve_two_board_extrinsics(
+            wall_room, project_room_points(wall_room, r_gt, c_gt),
+            floor_room, project_room_points(floor_room, r_gt, c_gt),
+            K_GT, DIST_ZERO)
+        assert ext["wall_flipped"] is False and ext["floor_flipped"] is False
+        assert ext["per_board"]["wall"]["rmse_px"] < 1e-3
+        assert ext["per_board"]["floor"]["rmse_px"] < 1e-3
+
+    def test_intrinsics_recovered_from_synthetic_views(self):
+        # Several board views from different poses -> calibrateCamera should
+        # get focal length / principal point close to ground truth.
+        obj = cal.board_object_points(BOARD_COLS, BOARD_ROWS, SQUARE_M)
+        poses = [
+            ([0.05, 1.2, 0.05], [0.10, 0.0, 0.06]),
+            ([-0.25, 1.0, 0.20], [0.10, 0.0, 0.06]),
+            ([0.45, 0.9, -0.15], [0.10, 0.0, 0.06]),
+            ([0.10, 1.4, 0.30], [0.10, 0.0, 0.06]),
+            ([-0.15, 0.8, -0.20], [0.10, 0.0, 0.06]),
+        ]
+        corner_sets = []
+        for cam_pos, target in poses:
+            r, c = look_at_pose(cam_pos, target)
+            # Embed the board rigidly in the y=0 plane (u=+x, v=+z) and view it.
+            board_in_room = np.column_stack([obj[:, 0], obj[:, 2], obj[:, 1]])
+            corner_sets.append(project_room_points(board_in_room, r, c))
+        intr = cal.compute_intrinsics(corner_sets, (IMG_W, IMG_H),
+                                      BOARD_COLS, BOARD_ROWS, SQUARE_M)
+        k = np.asarray(intr["camera_matrix"])
+        assert abs(k[0, 0] - K_GT[0, 0]) / K_GT[0, 0] < 0.05
+        assert abs(k[1, 1] - K_GT[1, 1]) / K_GT[1, 1] < 0.05
+        assert intr["reprojection_error_px"] < 1.0
+
+
+# ---------------------------------------------------------------------------
+# Bundle round-trip + content hash
+# ---------------------------------------------------------------------------
+
+class TestBundle:
+    def test_save_load_roundtrip(self, scene, tmp_path):
+        r_gt, c_gt, _, _ = scene
+        bundle = make_bundle(r_gt, c_gt)
+        path = tmp_path / "camera-room.json"
+        cal.save_bundle(bundle, path)
+        loaded = cal.load_bundle(path)
+        assert loaded == bundle
+        assert cal.calibration_id(loaded) == cal.calibration_id(bundle)
+
+    def test_bundle_schema_fields(self, scene):
+        r_gt, c_gt, _, _ = scene
+        bundle = make_bundle(r_gt, c_gt)
+        for key in ("schema_version", "method", "calibrated_at", "room_frame",
+                    "checkerboard_spec", "camera_intrinsics",
+                    "camera_to_room_extrinsics", "transceiver_geometry"):
+            assert key in bundle
+        assert bundle["method"] == "two-checkerboard"
+
+    def test_calibration_id_changes_with_content(self, scene):
+        r_gt, c_gt, _, _ = scene
+        bundle_a = make_bundle(r_gt, c_gt)
+        bundle_b = json.loads(json.dumps(bundle_a))
+        bundle_b["transceiver_geometry"]["nodes"][0]["position_m"] = [0.2, 2.4, 1.1]
+        assert cal.calibration_id(bundle_a) != cal.calibration_id(bundle_b)
+        assert cal.calibration_id(bundle_a).startswith("sha256:")
+
+    def test_load_bundle_rejects_missing_keys(self, tmp_path):
+        path = tmp_path / "bad.json"
+        path.write_text('{"camera_intrinsics": {}}', encoding="utf-8")
+        with pytest.raises(ValueError, match="missing key"):
+            cal.load_bundle(path)
+
+
+# ---------------------------------------------------------------------------
+# Keypoint transform: image -> room-frame bearing rays (projective alignment)
+# ---------------------------------------------------------------------------
+
+class TestKeypointTransform:
+    PERSON_POINTS = np.array([
+        [1.2, 1.5, 1.7],   # head height
+        [1.1, 1.5, 1.4],   # shoulder
+        [1.3, 1.6, 0.9],   # hip
+        [1.2, 1.5, 0.1],   # ankle
+    ])
+
+    @pytest.mark.parametrize("dist", [DIST_ZERO, DIST_MILD], ids=["no-distortion", "mild-distortion"])
+    def test_rays_pass_through_original_points(self, scene, dist):
+        r_gt, c_gt, _, _ = scene
+        img = project_room_points(self.PERSON_POINTS, r_gt, c_gt, dist=dist)
+        kps_norm = (img / np.array([IMG_W, IMG_H])).tolist()
+
+        ctx = cal.CalibrationContext(make_bundle(r_gt, c_gt, dist=dist), IMG_W, IMG_H)
+        origin, rays = ctx.transform_keypoints(kps_norm)
+
+        np.testing.assert_allclose(origin, c_gt, atol=1e-9)
+        np.testing.assert_allclose(np.linalg.norm(rays, axis=1), 1.0, atol=1e-9)
+        for point, ray in zip(self.PERSON_POINTS, rays):
+            v = point - origin
+            # Distance from the true 3D point to the recovered ray ~ 0, and
+            # the point sits in FRONT of the camera along the ray.
+            dist_to_ray = np.linalg.norm(v - np.dot(v, ray) * ray)
+            assert dist_to_ray < 1e-4
+            assert np.dot(v, ray) > 0
+
+    def test_resolution_scaling(self, scene):
+        # Collection camera runs 640x360 while the bundle was made at
+        # 1280x720 -- normalized keypoints must land on the same rays.
+        r_gt, c_gt, _, _ = scene
+        img = project_room_points(self.PERSON_POINTS, r_gt, c_gt)
+        kps_norm = (img / np.array([IMG_W, IMG_H])).tolist()
+
+        ctx = cal.CalibrationContext(make_bundle(r_gt, c_gt), 640, 360)
+        origin, rays = ctx.transform_keypoints(kps_norm)
+        for point, ray in zip(self.PERSON_POINTS, rays):
+            v = point - origin
+            assert np.linalg.norm(v - np.dot(v, ray) * ray) < 1e-4
+
+
+# ---------------------------------------------------------------------------
+# collect-ground-truth record path (import-level; no camera loop)
+# ---------------------------------------------------------------------------
+
+class TestRecordAugmentation:
+    LEGACY_RECORD = {
+        "ts_ns": 1775300000000000000,
+        "keypoints": [[0.45, 0.12]] * 17,
+        "confidence": 0.92,
+        "n_visible": 14,
+        "n_persons": 1,
+    }
+
+    def test_no_calibration_is_byte_identical(self):
+        # The collector's no---calibration path must emit exactly the
+        # original ADR-079 JSONL line (back-compat guarantee).
+        record = json.loads(json.dumps(self.LEGACY_RECORD))
+        before = json.dumps(record)
+        out = cal.augment_record(record, None)
+        assert out is record
+        assert json.dumps(out) == before
+        assert set(out.keys()) == {"ts_ns", "keypoints", "confidence",
+                                   "n_visible", "n_persons"}
+
+    def test_calibrated_record_gains_room_fields(self, scene):
+        r_gt, c_gt, _, _ = scene
+        bundle = make_bundle(r_gt, c_gt)
+        ctx = cal.CalibrationContext(bundle, IMG_W, IMG_H)
+
+        record = json.loads(json.dumps(self.LEGACY_RECORD))
+        out = cal.augment_record(record, ctx)
+
+        # Raw image coords preserved untouched; room representation added.
+        assert out["keypoints"] == self.LEGACY_RECORD["keypoints"]
+        assert len(out["keypoints_room"]) == 17
+        assert all(len(ray) == 3 for ray in out["keypoints_room"])
+        assert out["calibration_id"] == cal.calibration_id(bundle)
+        assert out["transceiver_geometry"] == bundle["transceiver_geometry"]
+        assert len(out["camera_origin_room"]) == 3
+        json.dumps(out)  # remains JSONL-serializable
+
+    def test_empty_keypoints_record(self, scene):
+        r_gt, c_gt, _, _ = scene
+        ctx = cal.CalibrationContext(make_bundle(r_gt, c_gt), IMG_W, IMG_H)
+        record = {"ts_ns": 1, "keypoints": [], "confidence": 0.0,
+                  "n_visible": 0, "n_persons": 0}
+        out = cal.augment_record(record, ctx)
+        assert out["keypoints_room"] == []
+        assert "calibration_id" in out

v2/.gitignore

@@ -0,0 +1 @@
+baselines/

v2/Cargo.lock

@@ -7328,9 +7328,9 @@ dependencies = [
 
 [[package]]
 name = "ruvector-attention"
-version = "2.0.4"
+version = "2.1.0"
 source = "registry+https://github.com/rust-lang/crates.io-index"
-checksum = "cb4233c1cecd0ea826d95b787065b398489328885042247ff5ffcbb774e864ff"
+checksum = "a92e8e456458188d04aee946579aa7cf96d7b8f276cbf6094532b2c3f6d8cc0b"
 dependencies = [
  "rand 0.8.5",
  "rayon",
@@ -7395,14 +7395,14 @@ dependencies = [
 
 [[package]]
 name = "ruvector-gnn"
-version = "2.0.5"
+version = "2.2.0"
 source = "registry+https://github.com/rust-lang/crates.io-index"
-checksum = "8e17c1cf1ff3380026b299ff3c1ba3a5685c3d8d54700e6ab0b585b6cec21d7b"
+checksum = "a251f9ced8d3231395d922369edc803ef0fc513c7776128f7b4ef21f20dd1f4b"
 dependencies = [
  "anyhow",
  "dashmap",
  "libc",
- "ndarray 0.16.1",
+ "ndarray 0.17.2",
  "parking_lot",
  "rand 0.8.5",
  "rand_distr 0.4.3",
@@ -7415,9 +7415,9 @@ dependencies = [
 
 [[package]]
 name = "ruvector-mincut"
-version = "2.0.4"
+version = "2.0.6"
 source = "registry+https://github.com/rust-lang/crates.io-index"
-checksum = "6d62e10cbb7d80b1e2b72d55c1e3eb7f0c4c5e3f31984bc3baa9b7a02700741e"
+checksum = "d60947433f740d0f589a2911d7b72a02e07a916e7257e478b14386f0ff068fb7"
 dependencies = [
  "anyhow",
  "crossbeam",
@@ -7437,9 +7437,9 @@ dependencies = [
 
 [[package]]
 name = "ruvector-solver"
-version = "2.0.4"
+version = "2.0.6"
 source = "registry+https://github.com/rust-lang/crates.io-index"
-checksum = "ce69cbde4ee5747281edb1d987a8292940397723924262b6218fc19022cbf687"
+checksum = "9be7c4f61940ae8b451f88b9a629a08ee8ee5c8e6b00ab96ca10ecf59e70f558"
 dependencies = [
  "dashmap",
  "getrandom 0.2.17",
@@ -10811,12 +10811,27 @@ dependencies = [
  "thiserror 2.0.18",
 ]
 
+[[package]]
+name = "wifi-densepose-calibration"
+version = "0.3.0"
+dependencies = [
+ "ndarray 0.17.2",
+ "num-complex",
+ "serde",
+ "serde_json",
+ "thiserror 2.0.18",
+ "uuid",
+ "wifi-densepose-core",
+ "wifi-densepose-signal",
+]
+
 [[package]]
 name = "wifi-densepose-cli"
 version = "0.3.0"
 dependencies = [
  "anyhow",
  "assert_cmd",
+ "axum",
  "chrono",
  "clap",
  "colored",
@@ -10832,9 +10847,12 @@ dependencies = [
  "tempfile",
  "thiserror 2.0.18",
  "tokio",
+ "tower 0.4.13",
+ "tower-http",
  "tracing",
  "tracing-subscriber",
  "uuid",
+ "wifi-densepose-calibration",
  "wifi-densepose-core",
  "wifi-densepose-mat",
  "wifi-densepose-signal",
@@ -10892,12 +10910,13 @@ version = "0.3.0"
 dependencies = [
  "blake3",
  "criterion",
+ "ruvector-mincut",
  "wifi-densepose-bfld",
  "wifi-densepose-core",
- "wifi-densepose-geo 0.1.0",
+ "wifi-densepose-geo",
  "wifi-densepose-ruvector",
  "wifi-densepose-signal",
- "wifi-densepose-worldgraph 0.3.0",
+ "wifi-densepose-worldgraph",
 ]
 
 [[package]]
@@ -10912,20 +10931,6 @@ dependencies = [
  "tokio",
 ]
 
-[[package]]
-name = "wifi-densepose-geo"
-version = "0.1.0"
-source = "registry+https://github.com/rust-lang/crates.io-index"
-checksum = "092ea59d81e7be76d6d9c2d81628c1dbe768fd77591f0e82dd3c80e2963ff04a"
-dependencies = [
- "anyhow",
- "chrono",
- "reqwest 0.12.28",
- "serde",
- "serde_json",
- "tokio",
-]
-
 [[package]]
 name = "wifi-densepose-hardware"
 version = "0.3.0"
@@ -11036,7 +11041,7 @@ version = "0.3.1"
 dependencies = [
  "approx",
  "criterion",
- "ruvector-attention 2.0.4",
+ "ruvector-attention 2.1.0",
  "ruvector-attn-mincut",
  "ruvector-core",
  "ruvector-crv",
@@ -11075,9 +11080,13 @@ dependencies = [
  "tracing",
  "tracing-subscriber",
  "ureq 2.12.1",
+ "wifi-densepose-bfld",
+ "wifi-densepose-engine",
+ "wifi-densepose-geo",
  "wifi-densepose-hardware",
  "wifi-densepose-signal",
  "wifi-densepose-wifiscan",
+ "wifi-densepose-worldgraph",
 ]
 
 [[package]]
@@ -11094,7 +11103,7 @@ dependencies = [
  "num-traits",
  "proptest",
  "rustfft",
- "ruvector-attention 2.0.4",
+ "ruvector-attention 2.1.0",
  "ruvector-attn-mincut",
  "ruvector-mincut",
  "ruvector-solver",
@@ -11125,7 +11134,7 @@ dependencies = [
  "num-traits",
  "petgraph",
  "proptest",
- "ruvector-attention 2.0.4",
+ "ruvector-attention 2.1.0",
  "ruvector-attn-mincut",
  "ruvector-mincut",
  "ruvector-solver",
@@ -11187,37 +11196,24 @@ dependencies = [
 
 [[package]]
 name = "wifi-densepose-worldgraph"
-version = "0.3.0"
+version = "0.3.1"
 dependencies = [
  "petgraph",
  "serde",
  "serde_json",
  "thiserror 2.0.18",
- "wifi-densepose-geo 0.1.0",
-]
-
-[[package]]
-name = "wifi-densepose-worldgraph"
-version = "0.3.0"
-source = "registry+https://github.com/rust-lang/crates.io-index"
-checksum = "13ad8df7b323061ed7afae1917dac7eedfbd24a463a668a55a16cde79df067e2"
-dependencies = [
- "petgraph",
- "serde",
- "serde_json",
- "thiserror 2.0.18",
- "wifi-densepose-geo 0.1.0 (registry+https://github.com/rust-lang/crates.io-index)",
+ "wifi-densepose-geo",
 ]
 
 [[package]]
 name = "wifi-densepose-worldmodel"
-version = "0.3.0"
+version = "0.3.1"
 dependencies = [
  "serde",
  "serde_json",
  "thiserror 2.0.18",
  "tokio",
- "wifi-densepose-worldgraph 0.3.0 (registry+https://github.com/rust-lang/crates.io-index)",
+ "wifi-densepose-worldgraph",
 ]
 
 [[package]]

v2/Cargo.toml

@@ -28,6 +28,7 @@ members = [
     "crates/wifi-densepose-geo",
     "crates/wifi-densepose-worldgraph",  # ADR-139 — WorldGraph environmental digital twin
     "crates/wifi-densepose-engine",      # ADR-135..146 integration/composition layer
+    "crates/wifi-densepose-calibration", # ADR-151 — per-room calibration & specialist training
     "crates/nvsim",
     "crates/nvsim-server",
     "crates/homecore",                 # ADR-127 — HOMECORE state machine
@@ -186,15 +187,16 @@ midstreamer-temporal-compare = "0.2"
 midstreamer-attractor = "0.2"
 
 # ruvector integration (published on crates.io)
-# Vendored at v2.1.0 in vendor/ruvector; using crates.io versions until published.
+# Vendored at origin/main (a083bd77f) in vendor/ruvector; using crates.io versions
+# until published. Bumps per ADR-152 §2.6 (2026-06-10 vendor sync survey).
 ruvector-core = "2.2.0"
-ruvector-mincut = "2.0.4"
+ruvector-mincut = "2.0.6"
 ruvector-attn-mincut = "2.0.4"
 ruvector-temporal-tensor = "2.0.6"
-ruvector-solver = "2.0.4"
-ruvector-attention = "2.0.4"
+ruvector-solver = "2.0.6"
+ruvector-attention = "2.1.0"
 ruvector-crv = "0.1.1"
-ruvector-gnn = { version = "2.0.5", default-features = false }
+ruvector-gnn = { version = "2.2.0", default-features = false }
 
 
 # Internal crates

v2/crates/ruv-neural/.gitignore

@@ -1,2 +0,0 @@
-/target/
-Cargo.lock

v2/crates/ruv-neural/Cargo.toml

@@ -1,98 +0,0 @@
-[workspace]
-resolver = "2"
-members = [
-    "ruv-neural-core",
-    "ruv-neural-sensor",
-    "ruv-neural-signal",
-    "ruv-neural-graph",
-    "ruv-neural-mincut",
-    "ruv-neural-embed",
-    "ruv-neural-memory",
-    "ruv-neural-decoder",
-    "ruv-neural-esp32",
-    "ruv-neural-wasm",
-    "ruv-neural-viz",
-    "ruv-neural-cli",
-]
-# WASM crate excluded from default workspace to avoid breaking `cargo test --workspace`
-# Build separately: cargo build -p ruv-neural-wasm --target wasm32-unknown-unknown --release
-exclude = [
-    "ruv-neural-wasm",
-]
-
-[workspace.package]
-version = "0.1.0"
-edition = "2021"
-authors = ["rUv <ruv@ruv.net>"]
-license = "MIT OR Apache-2.0"
-repository = "https://github.com/ruvnet/RuView"
-documentation = "https://docs.rs/ruv-neural"
-keywords = ["neural", "brain", "topology", "mincut", "quantum-sensing"]
-categories = ["science", "algorithms"]
-
-[workspace.dependencies]
-# Core utilities
-thiserror = "1.0"
-anyhow = "1.0"
-serde = { version = "1.0", features = ["derive"] }
-serde_json = "1.0"
-tracing = "0.1"
-tracing-subscriber = { version = "0.3", features = ["env-filter"] }
-
-# Math and signal processing
-ndarray = { version = "0.15", features = ["serde"] }
-num-complex = "0.4"
-num-traits = "0.2"
-rustfft = "6.1"
-
-# Graph algorithms
-petgraph = "0.6"
-
-# Async runtime
-tokio = { version = "1.35", features = ["full"] }
-
-# WASM support
-wasm-bindgen = "0.2"
-js-sys = "0.3"
-web-sys = { version = "0.3", features = ["console"] }
-
-# ESP32 / embedded
-embedded-hal = "1.0"
-
-# CLI
-clap = { version = "4.4", features = ["derive", "env"] }
-
-# Serialization
-bincode = "1.3"
-
-# Random
-rand = "0.8"
-
-# Cryptographic verification
-ed25519-dalek = { version = "2.1", features = ["rand_core"] }
-sha2 = "0.10"
-
-# Testing
-criterion = { version = "0.5", features = ["html_reports"] }
-proptest = "1.4"
-approx = "0.5"
-
-# Internal crates
-ruv-neural-core = { version = "0.1.0", path = "ruv-neural-core" }
-ruv-neural-sensor = { version = "0.1.0", path = "ruv-neural-sensor" }
-ruv-neural-signal = { version = "0.1.0", path = "ruv-neural-signal" }
-ruv-neural-graph = { version = "0.1.0", path = "ruv-neural-graph" }
-ruv-neural-mincut = { version = "0.1.0", path = "ruv-neural-mincut" }
-ruv-neural-embed = { version = "0.1.0", path = "ruv-neural-embed" }
-ruv-neural-memory = { version = "0.1.0", path = "ruv-neural-memory" }
-ruv-neural-decoder = { version = "0.1.0", path = "ruv-neural-decoder" }
-ruv-neural-esp32 = { version = "0.1.0", path = "ruv-neural-esp32" }
-ruv-neural-viz = { version = "0.1.0", path = "ruv-neural-viz" }
-ruv-neural-cli = { version = "0.1.0", path = "ruv-neural-cli" }
-
-[profile.release]
-lto = true
-codegen-units = 1
-panic = "abort"
-strip = true
-opt-level = 3

v2/crates/ruv-neural/README.md

@@ -1,421 +0,0 @@
-# rUv Neural — Brain Topology Analysis System
-
-> Quantum sensor integration x RuVector graph memory x Dynamic mincut coherence detection
-
-[![crates.io](https://img.shields.io/crates/v/ruv-neural-core.svg)](https://crates.io/crates/ruv-neural-core)
-[![License](https://img.shields.io/badge/license-MIT%2FApache--2.0-blue.svg)]()
-[![Rust](https://img.shields.io/badge/rust-1.75+-orange.svg)]()
-[![Tests](https://img.shields.io/badge/tests-338%20passed-brightgreen.svg)]()
-
----
-
-## Ethics & Responsible Use
-
-> **This technology interfaces with human neural data. Use it responsibly.**
->
-> - **Informed consent** is required before collecting neural data from any participant
-> - **Never** deploy brain-computer interfaces without IRB/ethics board approval
-> - **Data privacy**: Neural signals are among the most sensitive personal data categories. Encrypt at rest, anonymize before sharing, and comply with GDPR/HIPAA as applicable
-> - **Clinical use** requires FDA/CE clearance and must be supervised by licensed medical professionals
-> - **Do not** use this software for covert monitoring, interrogation, lie detection, or any application that violates human autonomy
-> - **Dual-use awareness**: The same technology that helps paralyzed patients communicate can be misused for surveillance. Design with safeguards
-> - This software is provided for **research and educational purposes**. The authors accept no liability for misuse
->
-> See [IEEE Neuroethics Framework](https://standards.ieee.org/industry-connections/ec/neuroethics/) and the [Morningside Group Neurorights](https://nri.ntc.columbia.edu/content/neurorights) initiative for guidance.
-
----
-
-## Overview
-
-**rUv Neural** is a modular Rust crate ecosystem for real-time brain network topology
-analysis. It transforms neural magnetic field measurements from quantum sensors (NV diamond
-magnetometers, optically pumped magnetometers) into dynamic connectivity graphs, then uses
-minimum cut algorithms to detect cognitive state transitions.
-
-This is not mind reading — it measures **how cognition organizes itself** by tracking the
-topology of brain networks in real time.
-
-## Hardware Parts List
-
-Below is a reference bill of materials for building a basic multi-channel neural sensing rig.
-Prices are approximate (2026). Links are for reference only — equivalent components from any
-vendor will work.
-
-### Core: NV Diamond Magnetometer Array
-
-| Component | Qty | Approx Price | Link | Notes |
-|-----------|-----|-------------|------|-------|
-| NV Diamond Sensor Chip (2x2mm, 1ppm N) | 16 | $45 ea | [AliExpress: NV Diamond Chip](https://www.aliexpress.com/w/wholesale-nv-diamond-sensor.html) | Nitrogen-vacancy center, electronic grade |
-| 532nm Green Laser Diode Module (100mW) | 4 | $12 ea | [AliExpress: 532nm Laser Module](https://www.aliexpress.com/w/wholesale-532nm-laser-module-100mw.html) | Excitation source for ODMR |
-| Microwave Signal Generator (2.87 GHz) | 1 | $85 | [AliExpress: RF Signal Generator 3GHz](https://www.aliexpress.com/w/wholesale-rf-signal-generator-3ghz.html) | For NV zero-field splitting resonance |
-| SMA Coaxial Cable (50 Ohm, 30cm) | 4 | $3 ea | [AliExpress: SMA Cable 50 Ohm](https://www.aliexpress.com/w/wholesale-sma-cable-50-ohm.html) | Microwave delivery to diamond chips |
-| Photodiode Array (Si PIN, 16-ch) | 1 | $25 | [AliExpress: Photodiode Array](https://www.aliexpress.com/w/wholesale-photodiode-array-16-channel.html) | Fluorescence detection |
-| Transimpedance Amplifier Board | 1 | $18 | [AliExpress: TIA Board](https://www.aliexpress.com/w/wholesale-transimpedance-amplifier-board.html) | Converts photocurrent to voltage |
-
-### Alternative: OPM (Optically Pumped Magnetometer)
-
-| Component | Qty | Approx Price | Link | Notes |
-|-----------|-----|-------------|------|-------|
-| Rb Vapor Cell (25mm, AR coated) | 8 | $35 ea | [AliExpress: Rubidium Vapor Cell](https://www.aliexpress.com/w/wholesale-rubidium-vapor-cell.html) | SERF-mode magnetometry |
-| 795nm VCSEL Laser | 8 | $8 ea | [AliExpress: 795nm VCSEL](https://www.aliexpress.com/w/wholesale-795nm-vcsel-laser.html) | D1 line pump for Rb |
-| Balanced Photodetector | 8 | $15 ea | [AliExpress: Balanced Photodetector](https://www.aliexpress.com/w/wholesale-balanced-photodetector.html) | Differential detection |
-| Magnetic Shielding Mu-Metal Cylinder | 1 | $120 | [AliExpress: Mu-Metal Shield](https://www.aliexpress.com/w/wholesale-mu-metal-magnetic-shield.html) | 3-layer, >60dB attenuation |
-
-### Alternative: EEG (Electroencephalography)
-
-| Component | Qty | Approx Price | Link | Notes |
-|-----------|-----|-------------|------|-------|
-| Ag/AgCl EEG Electrodes (10-20 system) | 21 | $2 ea | [AliExpress: EEG Electrode AgCl](https://www.aliexpress.com/w/wholesale-eeg-electrode-ag-agcl.html) | Reusable cup electrodes |
-| EEG Cap (10-20 placement, size M) | 1 | $45 | [AliExpress: EEG Cap 10-20](https://www.aliexpress.com/w/wholesale-eeg-cap-10-20.html) | Pre-wired 21-channel |
-| Conductive EEG Gel (250ml) | 1 | $8 | [AliExpress: EEG Gel](https://www.aliexpress.com/w/wholesale-eeg-conductive-gel.html) | Low impedance contact |
-| ADS1299 EEG AFE Board (8-ch) | 3 | $35 ea | [AliExpress: ADS1299 Board](https://www.aliexpress.com/w/wholesale-ads1299-eeg-board.html) | 24-bit, 250 SPS, TI analog front-end |
-
-### Data Acquisition & Processing
-
-| Component | Qty | Approx Price | Link | Notes |
-|-----------|-----|-------------|------|-------|
-| ESP32-S3 DevKit (16MB Flash, 8MB PSRAM) | 4 | $8 ea | [AliExpress: ESP32-S3 DevKit](https://www.aliexpress.com/w/wholesale-esp32-s3-devkit.html) | ADC readout + TDM sync |
-| ADS1256 24-bit ADC Module | 2 | $12 ea | [AliExpress: ADS1256 Module](https://www.aliexpress.com/w/wholesale-ads1256-module.html) | High-resolution for NV/OPM |
-| USB-C Hub (4 port, USB 3.0) | 1 | $10 | [AliExpress: USB-C Hub](https://www.aliexpress.com/w/wholesale-usb-c-hub-4-port.html) | Connect ESP32 nodes to host |
-| Shielded USB Cable (30cm, ferrite) | 4 | $3 ea | [AliExpress: Shielded USB Cable](https://www.aliexpress.com/w/wholesale-shielded-usb-cable-ferrite.html) | Reduce EMI |
-| Host PC or Raspberry Pi 5 (8GB) | 1 | $80 | [AliExpress: Raspberry Pi 5](https://www.aliexpress.com/w/wholesale-raspberry-pi-5-8gb.html) | Runs the rUv Neural pipeline |
-
-### Assembly Tools
-
-| Component | Qty | Approx Price | Link | Notes |
-|-----------|-----|-------------|------|-------|
-| Soldering Station (adjustable temp) | 1 | $25 | [AliExpress: Soldering Station](https://www.aliexpress.com/w/wholesale-soldering-station-adjustable.html) | For sensor board assembly |
-| Breadboard + Jumper Wire Kit | 1 | $8 | [AliExpress: Breadboard Kit](https://www.aliexpress.com/w/wholesale-breadboard-jumper-wire-kit.html) | Prototyping |
-| 3D Printed Sensor Mount (STL provided) | 1 | — | Print locally | Holds diamond chips in array |
-
-**Estimated total cost:** ~$650–$900 for a 16-channel NV diamond setup, ~$500 for OPM, ~$200 for EEG.
-
-### Assembly Instructions
-
-1. **Sensor Array**
-   - Mount NV diamond chips (or OPM vapor cells, or EEG electrodes) in the 3D-printed helmet/mount
-   - For NV: align 532nm laser to each chip, position photodiodes for fluorescence collection
-   - For OPM: install Rb cells inside mu-metal shield, align 795nm VCSELs
-   - For EEG: apply conductive gel, place electrodes per 10-20 system
-
-2. **Signal Chain**
-   - Connect sensor outputs to ADS1256 (NV/OPM) or ADS1299 (EEG) ADC boards
-   - Wire ADC SPI bus to ESP32-S3 GPIO (MOSI=11, MISO=13, SCK=12, CS=10)
-   - Flash ESP32 with `ruv-neural-esp32` firmware: `cargo flash --chip esp32s3`
-
-3. **TDM Synchronization**
-   - Connect GPIO 4 across all ESP32 nodes as a shared sync line
-   - The `TdmScheduler` assigns non-overlapping time slots automatically
-   - Set `sync_tolerance_us: 1000` in the aggregator config
-
-4. **Host Software**
-   - Install Rust 1.75+ and build: `cargo build --workspace --release`
-   - Run the pipeline: `cargo run -p ruv-neural-cli --release -- pipeline --channels 16 --duration 60`
-   - Or use individual crates as a library (see [Use as Library](#use-as-library))
-
-5. **Verification**
-   - Generate a witness bundle: `cargo run -p ruv-neural-cli -- witness --output witness.json`
-   - Verify Ed25519 signature: `cargo run -p ruv-neural-cli -- witness --verify witness.json`
-   - Expected output: `VERDICT: PASS` (41 capability attestations, 338 tests)
-
-## Architecture
-
-```
-                         rUv Neural Pipeline
-    ================================================================
-
-    +------------------+     +-------------------+     +------------------+
-    |                  |     |                   |     |                  |
-    |  SENSOR LAYER    |---->|  SIGNAL LAYER     |---->|  GRAPH LAYER     |
-    |                  |     |                   |     |                  |
-    |  NV Diamond      |     |  Bandpass Filter  |     |  PLV / Coherence |
-    |  OPM             |     |  Artifact Reject  |     |  Brain Regions   |
-    |  EEG             |     |  Hilbert Phase    |     |  Connectivity    |
-    |  Simulated       |     |  Spectral (PSD)   |     |  Matrix          |
-    |                  |     |                   |     |                  |
-    +------------------+     +-------------------+     +--------+---------+
-                                                                |
-                                                                v
-    +------------------+     +-------------------+     +------------------+
-    |                  |     |                   |     |                  |
-    |  DECODE LAYER    |<----|  MEMORY LAYER     |<----|  MINCUT LAYER    |
-    |                  |     |                   |     |                  |
-    |  Cognitive State |     |  HNSW Index       |     |  Stoer-Wagner    |
-    |  Classification  |     |  Pattern Store    |     |  Normalized Cut  |
-    |  BCI Output      |     |  Drift Detection  |     |  Spectral Cut    |
-    |  Transition Log  |     |  Temporal Window  |     |  Coherence Detect|
-    |                  |     |                   |     |                  |
-    +------------------+     +-------------------+     +------------------+
-                                      ^
-                                      |
-                              +-------+--------+
-                              |                |
-                              |  EMBED LAYER   |
-                              |                |
-                              |  Spectral Pos. |
-                              |  Topology Vec  |
-                              |  Node2Vec      |
-                              |  RVF Export     |
-                              |                |
-                              +----------------+
-
-    Peripheral Crates:
-    +----------+   +----------+   +----------+
-    | ESP32    |   | WASM     |   | VIZ      |
-    | Edge     |   | Browser  |   | ASCII    |
-    | Preproc  |   | Bindings |   | Render   |
-    +----------+   +----------+   +----------+
-```
-
-## Crate Map
-
-All crates are published on [crates.io](https://crates.io/search?q=ruv-neural):
-
-| Crate | crates.io | Description | Dependencies |
-|-------|-----------|-------------|--------------|
-| [`ruv-neural-core`](https://crates.io/crates/ruv-neural-core) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-core.svg)](https://crates.io/crates/ruv-neural-core) | Core types, traits, errors, RVF format | None |
-| [`ruv-neural-sensor`](https://crates.io/crates/ruv-neural-sensor) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-sensor.svg)](https://crates.io/crates/ruv-neural-sensor) | NV diamond, OPM, EEG sensor interfaces | core |
-| [`ruv-neural-signal`](https://crates.io/crates/ruv-neural-signal) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-signal.svg)](https://crates.io/crates/ruv-neural-signal) | DSP: filtering, spectral, connectivity | core |
-| [`ruv-neural-graph`](https://crates.io/crates/ruv-neural-graph) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-graph.svg)](https://crates.io/crates/ruv-neural-graph) | Brain connectivity graph construction | core, signal |
-| [`ruv-neural-mincut`](https://crates.io/crates/ruv-neural-mincut) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-mincut.svg)](https://crates.io/crates/ruv-neural-mincut) | Dynamic minimum cut topology analysis | core |
-| [`ruv-neural-embed`](https://crates.io/crates/ruv-neural-embed) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-embed.svg)](https://crates.io/crates/ruv-neural-embed) | RuVector graph embeddings | core |
-| [`ruv-neural-memory`](https://crates.io/crates/ruv-neural-memory) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-memory.svg)](https://crates.io/crates/ruv-neural-memory) | Persistent neural state memory + HNSW | core |
-| [`ruv-neural-decoder`](https://crates.io/crates/ruv-neural-decoder) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-decoder.svg)](https://crates.io/crates/ruv-neural-decoder) | Cognitive state classification + BCI | core |
-| [`ruv-neural-esp32`](https://crates.io/crates/ruv-neural-esp32) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-esp32.svg)](https://crates.io/crates/ruv-neural-esp32) | ESP32 edge sensor integration | core |
-| `ruv-neural-wasm` | — | WebAssembly browser bindings | core |
-| [`ruv-neural-viz`](https://crates.io/crates/ruv-neural-viz) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-viz.svg)](https://crates.io/crates/ruv-neural-viz) | Visualization and ASCII rendering | core, graph, mincut |
-| [`ruv-neural-cli`](https://crates.io/crates/ruv-neural-cli) | [![crates.io](https://img.shields.io/crates/v/ruv-neural-cli.svg)](https://crates.io/crates/ruv-neural-cli) | CLI tool (`ruv-neural` binary) | all |
-
-## Dependency Graph
-
-```
-                    ruv-neural-core
-                    (types, traits, errors)
-                   /    |    |    \     \
-                  /     |    |     \     \
-                 v      v    v      v     v
-           sensor  signal  embed  esp32  (wasm)
-                          |
-                          v
-                  graph --|------> viz
-                  |
-                  v
-               mincut
-                  |
-                  v
-         decoder <--- memory <--- embed
-                  |
-                  v
-                 cli (depends on all)
-```
-
-## Quick Start
-
-### Build
-
-```bash
-cd v2/crates/ruv-neural
-cargo build --workspace
-cargo test --workspace
-```
-
-### Run CLI
-
-```bash
-cargo run -p ruv-neural-cli -- simulate --channels 64 --duration 10
-cargo run -p ruv-neural-cli -- pipeline --channels 32 --duration 5 --dashboard
-cargo run -p ruv-neural-cli -- mincut --input brain_graph.json
-```
-
-### Install from crates.io
-
-```bash
-# Add individual crates as needed
-cargo add ruv-neural-core
-cargo add ruv-neural-sensor
-cargo add ruv-neural-signal
-cargo add ruv-neural-mincut
-cargo add ruv-neural-embed
-cargo add ruv-neural-memory
-cargo add ruv-neural-decoder
-cargo add ruv-neural-graph
-cargo add ruv-neural-viz
-cargo add ruv-neural-esp32
-cargo add ruv-neural-cli
-```
-
-### Use as Library
-
-```rust
-use ruv_neural_core::*;
-use ruv_neural_sensor::simulator::SimulatedSensorArray;
-use ruv_neural_signal::PreprocessingPipeline;
-use ruv_neural_mincut::DynamicMincutTracker;
-use ruv_neural_embed::NeuralEmbedding;
-
-// Create simulated sensor array (64 channels, 1000 Hz)
-let mut sensor = SimulatedSensorArray::new(64, 1000.0);
-let data = sensor.acquire(1000)?;
-
-// Preprocess: bandpass filter + artifact rejection
-let pipeline = PreprocessingPipeline::default();
-let clean = pipeline.process(&data)?;
-
-// Compute connectivity and build graph
-let connectivity = ruv_neural_signal::compute_all_pairs(
-    &clean,
-    ruv_neural_signal::ConnectivityMetric::PhaseLockingValue,
-);
-
-// Track topology changes via dynamic mincut
-let mut tracker = DynamicMincutTracker::new();
-let result = tracker.update(&graph)?;
-println!(
-    "Mincut: {:.3}, Partitions: {} | {}",
-    result.cut_value,
-    result.partition_a.len(),
-    result.partition_b.len()
-);
-
-// Generate embedding for downstream classification
-let embedding = NeuralEmbedding::new(
-    result.to_feature_vector(),
-    data.timestamp,
-    "spectral",
-)?;
-println!("Embedding dim: {}", embedding.dimension);
-```
-
-## Mix and Match
-
-Each crate is independently usable. Common combinations:
-
-- **Sensor + Signal** -- Data acquisition and preprocessing only
-- **Graph + Mincut** -- Graph analysis without sensor dependency
-- **Embed + Memory** -- Embedding storage without real-time pipeline
-- **Core + WASM** -- Browser-based graph visualization
-- **ESP32 alone** -- Edge preprocessing on embedded hardware
-- **Signal + Embed** -- Feature extraction pipeline without graph construction
-- **Mincut + Viz** -- Topology analysis with ASCII dashboard output
-
-## Platform Support
-
-| Platform | Status | Crates Available |
-|----------|--------|-----------------|
-| Linux x86_64 | Full | All 12 |
-| macOS ARM64 | Full | All 12 |
-| Windows x86_64 | Full | All 12 |
-| WASM (browser) | Partial | core, wasm, viz |
-| ESP32 (no_std) | Partial | core, esp32 |
-
-**Note:** The `ruv-neural-wasm` crate is excluded from the default workspace members.
-Build it separately with:
-
-```bash
-cargo build -p ruv-neural-wasm --target wasm32-unknown-unknown --release
-```
-
-## Key Algorithms
-
-### Signal Processing (`ruv-neural-signal`)
-
-- **Butterworth IIR filters** in second-order sections (SOS) form
-- **Welch PSD** estimation with configurable window and overlap
-- **Hilbert transform** for instantaneous phase extraction
-- **Artifact detection** -- eye blink, muscle, cardiac artifact rejection
-- **Connectivity metrics** -- PLV, coherence, imaginary coherence, AEC
-
-### Minimum Cut Analysis (`ruv-neural-mincut`)
-
-- **Stoer-Wagner** -- Global minimum cut in O(V^3)
-- **Normalized cut** (Shi-Malik) -- Spectral bisection via the Fiedler vector
-- **Multiway cut** -- Recursive normalized cut for k-module detection
-- **Spectral cut** -- Cheeger constant and spectral bisection bounds
-- **Dynamic tracking** -- Temporal topology transition detection
-- **Coherence events** -- Network formation, dissolution, merger, split
-
-### Embeddings (`ruv-neural-embed`)
-
-- **Spectral** -- Laplacian eigenvector positional encoding
-- **Topology** -- Hand-crafted topological feature vectors
-- **Node2Vec** -- Random-walk co-occurrence embeddings
-- **Combined** -- Weighted concatenation of multiple methods
-- **Temporal** -- Sliding-window context-enriched embeddings
-- **RVF export** -- Serialization to RuVector `.rvf` format
-
-## RVF Format
-
-RuVector File (RVF) is a binary format for neural data interchange:
-
-```
-+--------+--------+---------+----------+----------+
-| Magic  | Version| Type    | Payload  | Checksum |
-| RVF\x01| u8     | u8      | [u8; N]  | u32      |
-+--------+--------+---------+----------+----------+
-```
-
-- **Magic bytes**: `RVF\x01`
-- **Supported types**: brain graphs, embeddings, topology metrics, time series
-- **Binary format** for efficient storage and streaming
-- **Compatible** with the broader RuVector ecosystem
-
-## Cryptographic Witness Verification
-
-rUv Neural includes an Ed25519-signed capability attestation system. Every build can
-generate a witness bundle that cryptographically proves which capabilities are present
-and that all tests passed.
-
-```bash
-# Generate a signed witness bundle
-cargo run -p ruv-neural-cli -- witness --output witness-bundle.json
-
-# Verify (any third party can do this)
-cargo run -p ruv-neural-cli -- witness --verify witness-bundle.json
-```
-
-The bundle contains:
-- **41 capability attestations** covering all 12 crates
-- **SHA-256 digest** of the capability matrix
-- **Ed25519 signature** (unique per generation)
-- **Public key** for independent verification
-- Test count and pass/fail status
-
-Tampered bundles are detected — modifying any attestation invalidates the digest and
-signature verification returns `FAIL`.
-
-## Testing
-
-```bash
-# Run all workspace tests
-cargo test --workspace
-
-# Run a specific crate's tests
-cargo test -p ruv-neural-mincut
-
-# Run with logging enabled
-RUST_LOG=debug cargo test --workspace -- --nocapture
-
-# Run benchmarks (requires nightly or criterion)
-cargo bench -p ruv-neural-mincut
-```
-
-## Crate Publishing Order
-
-Crates must be published in dependency order:
-
-1. `ruv-neural-core` (no internal deps)
-2. `ruv-neural-sensor` (depends on core)
-3. `ruv-neural-signal` (depends on core)
-4. `ruv-neural-esp32` (depends on core)
-5. `ruv-neural-graph` (depends on core, signal)
-6. `ruv-neural-embed` (depends on core)
-7. `ruv-neural-mincut` (depends on core)
-8. `ruv-neural-viz` (depends on core, graph)
-9. `ruv-neural-memory` (depends on core, embed)
-10. `ruv-neural-decoder` (depends on core, embed)
-11. `ruv-neural-wasm` (depends on core)
-12. `ruv-neural-cli` (depends on all)
-
-## License
-
-MIT OR Apache-2.0

v2/crates/ruv-neural/SECURITY_REVIEW.md

@@ -1,570 +0,0 @@
-# ruv-neural Crate System: Security and Performance Review
-
-**Date**: 2026-03-09
-**Version**: 0.1.0
-**Scope**: All 12 workspace crates in the ruv-neural system
-**Status**: Implementation checklist for v0.1 and v0.2 milestones
-
----
-
-## Table of Contents
-
-1. [Crate Inventory](#crate-inventory)
-2. [Security Review](#security-review)
-   - [Input Validation](#input-validation)
-   - [Memory Safety](#memory-safety)
-   - [Data Privacy](#data-privacy)
-   - [Network Security (ESP32)](#network-security-esp32)
-   - [Supply Chain](#supply-chain)
-   - [Findings from Code Audit](#findings-from-code-audit)
-3. [Performance Review](#performance-review)
-   - [Computational Complexity](#computational-complexity)
-   - [Memory Usage](#memory-usage)
-   - [Optimization Opportunities](#optimization-opportunities)
-   - [ESP32 Constraints](#esp32-constraints)
-   - [Benchmarking Recommendations](#benchmarking-recommendations)
-   - [Performance Findings from Code Audit](#performance-findings-from-code-audit)
-4. [Action Items](#action-items)
-
----
-
-## Crate Inventory
-
-| Crate | Status | Lines (approx) | Role |
-|-------|--------|-----------------|------|
-| `ruv-neural-core` | Implemented | ~500 | Types, traits, error types, RVF format |
-| `ruv-neural-sensor` | Implemented | ~170 | Sensor data acquisition, calibration, quality |
-| `ruv-neural-signal` | Implemented | ~450 | Filtering, spectral analysis, Hilbert, connectivity |
-| `ruv-neural-graph` | Stub | ~2 | Graph construction from signals |
-| `ruv-neural-mincut` | Implemented | ~700 | Stoer-Wagner, spectral cut, Cheeger, dynamic tracking |
-| `ruv-neural-embed` | Implemented | ~350 | Spectral, topology, node2vec embeddings |
-| `ruv-neural-memory` | Implemented | ~425 | Embedding store, HNSW index |
-| `ruv-neural-decoder` | Implemented (lib) | ~25 | KNN, threshold, transition decoders |
-| `ruv-neural-esp32` | Implemented | ~265 | ADC interface, sensor readout |
-| `ruv-neural-wasm` | Stub | ~2 | WebAssembly bindings |
-| `ruv-neural-viz` | Implemented (lib) | ~20 | Visualization, ASCII rendering, export |
-| `ruv-neural-cli` | Stub | ~2 | CLI binary |
-
----
-
-## Security Review
-
-### Input Validation
-
-All public APIs must validate their inputs at system boundaries. This section catalogs each validation requirement and its current status.
-
-#### Sensor Data Validation
-
-| Check | Required In | Status | Notes |
-|-------|------------|--------|-------|
-| `sample_rate_hz > 0` | `MultiChannelTimeSeries::new` | **MISSING** | Constructor accepts `sample_rate_hz` without validating it is positive and finite. Division by zero in `duration_s()` if zero. |
-| `num_channels > 0` | `MultiChannelTimeSeries::new` | PASS | Returns error if `data.len() == 0`. |
-| Channel lengths equal | `MultiChannelTimeSeries::new` | PASS | Validates all channels have the same length. |
-| Non-NaN/Inf values | All signal processing | **MISSING** | No validation that input signals contain only finite f64 values. NaN propagation through FFT, PLV, and connectivity metrics produces silent garbage. |
-| `num_samples > 0` | `AdcReader::read_samples` | PASS | Returns error if `num_samples == 0`. |
-| Channel count > 0 | `AdcReader::read_samples` | PASS | Returns error if no channels configured. |
-| Channel index bounds | `AdcReader::load_buffer` | PASS | Returns `ChannelOutOfRange` error. |
-| `sensitivity > 0` | `SensorChannel` | **MISSING** | `sensitivity_ft_sqrt_hz` is a public field with no validation on construction. |
-| `sample_rate > 0` | `SensorChannel` | **MISSING** | `sample_rate_hz` is a public field with no validation. |
-
-**Recommendation**: Add a `SensorChannel::new()` constructor that validates `sensitivity_ft_sqrt_hz > 0`, `sample_rate_hz > 0`, and that the orientation vector is a unit normal. Add `sample_rate_hz > 0` and `sample_rate_hz.is_finite()` checks to `MultiChannelTimeSeries::new`. Add a `validate_finite()` utility for signal data.
-
-#### Graph Construction Validation
-
-| Check | Required In | Status | Notes |
-|-------|------------|--------|-------|
-| Edge indices < `num_nodes` | `BrainGraph::adjacency_matrix` | PARTIAL | Silently skips out-of-bounds edges rather than reporting an error. This masks data corruption. |
-| Edge weight is finite | `BrainGraph` | **MISSING** | `BrainEdge.weight` is not validated. NaN/Inf weights propagate silently through Stoer-Wagner and spectral analysis. |
-| `num_nodes >= 2` | `stoer_wagner_mincut` | PASS | Returns proper error. |
-| `num_nodes >= 2` | `fiedler_decomposition` | PASS | Returns proper error. |
-| `num_nodes >= 2` | `SpectralEmbedder::embed` | PASS | Returns proper error. |
-| `num_nodes >= 2` | `cheeger_constant` | PASS | Returns proper error. |
-| Self-loops | `BrainGraph` | **MISSING** | No validation that `source != target` on edges. Self-loops could inflate degree calculations. |
-
-**Recommendation**: Add a `BrainGraph::validate()` method that checks all edge indices are within bounds, weights are finite, and no self-loops exist. Call it from `stoer_wagner_mincut`, `spectral_bisection`, and `SpectralEmbedder::embed`. Consider making `adjacency_matrix()` return `Result` with an error for out-of-bounds edges instead of silently ignoring them.
-
-#### RVF Format Validation
-
-| Check | Required In | Status | Notes |
-|-------|------------|--------|-------|
-| Magic bytes | `RvfHeader::validate` | PASS | Validates against `RVF_MAGIC`. |
-| Version | `RvfHeader::validate` | PASS | Rejects unknown versions. |
-| Header length | `RvfHeader::from_bytes` | PASS | Checks `bytes.len() < 22`. |
-| Data type tag | `RvfDataType::from_tag` | PASS | Returns error for unknown tags. |
-| `metadata_json_len` overflow | `RvfFile::read_from` | **CONCERN** | `metadata_json_len` is cast from `u32` to `usize` and used to allocate a `Vec`. A malicious file with `metadata_json_len = u32::MAX` (~4 GB) would cause an OOM allocation. |
-| Payload length | `RvfFile::read_from` | **CONCERN** | `read_to_end` reads unbounded data into memory. A malicious file could exhaust memory. |
-| JSON validity | `RvfFile::read_from` | PASS | Uses `serde_json::from_slice` which returns an error on invalid JSON. |
-| `num_entries` vs actual data | `RvfFile::read_from` | **MISSING** | The header declares `num_entries` and `embedding_dim`, but these are never cross-checked against the actual payload size. |
-
-**Recommendation**: Add maximum size limits for `metadata_json_len` (e.g., 16 MB) and total payload size. Validate that `num_entries * entry_size_for_type <= data.len()` after reading. Use `Read::take()` to cap reads.
-
-#### Embedding Validation
-
-| Check | Required In | Status | Notes |
-|-------|------------|--------|-------|
-| Non-empty vector | `NeuralEmbedding::new` (core) | PASS | Returns error for empty vectors. |
-| Non-empty vector | `NeuralEmbedding::new` (embed) | PASS | Returns error for empty vectors. |
-| Dimension match | `cosine_similarity`, `euclidean_distance` | PASS | Returns `DimensionMismatch` error. |
-| Zero-norm handling | `cosine_similarity` | PASS | Returns 0.0 for zero-norm vectors. |
-| NaN/Inf in vector | `NeuralEmbedding::new` | **MISSING** | No check for non-finite values in the embedding vector. |
-
-#### Memory Store Validation
-
-| Check | Required In | Status | Notes |
-|-------|------------|--------|-------|
-| Capacity > 0 | `NeuralMemoryStore::new` | **MISSING** | Capacity 0 is accepted, producing a store that evicts on every insertion. |
-| k > 0 | `query_nearest` | **MISSING** | k=0 produces an empty result silently (acceptable but undocumented). |
-| Dimension consistency | `NeuralMemoryStore::store` | **MISSING** | No check that all stored embeddings have the same dimensionality. Mixed dimensions cause silent errors in `query_nearest`. |
-
-#### JSON Parsing
-
-| Check | Status | Notes |
-|-------|--------|-------|
-| Uses serde derive | PASS | All types use `#[derive(Serialize, Deserialize)]`. No manual parsing anywhere. |
-| No `unsafe` JSON parsing | PASS | Standard `serde_json` throughout. |
-
----
-
-### Memory Safety
-
-| Check | Status | Notes |
-|-------|--------|-------|
-| No `unsafe` code | PASS | Zero `unsafe` blocks across all crates. |
-| Vec instead of raw pointers | PASS | All data structures use `Vec`, `HashMap`, `BinaryHeap`. |
-| ndarray for matrix ops | **NOT USED** | Despite being listed in `workspace.dependencies`, matrix operations use `Vec<Vec<f64>>` throughout. This is bounds-checked but less efficient. |
-| No C FFI | PASS | No FFI calls. ESP32 code uses pure Rust types. |
-| No `std::mem::transmute` | PASS | None found. |
-| No `std::ptr` usage | PASS | None found. |
-| Bounds checking on slices | PASS | Uses `.get()`, iterator methods, and Rust's built-in bounds checks. |
-| Integer overflow | **CONCERN** | `max_raw_value()` in `adc.rs` casts `(1u32 << resolution_bits) - 1` to `i16`. If `resolution_bits > 15`, this overflows silently. Currently only 12 or 16 are intended, but 16 produces `i16::MAX` wrapping. |
-
-**Recommendation**: Add a validation check on `resolution_bits` in `AdcConfig` (must be <= 15 for i16 representation, or switch to u16/i32). Consider migrating `Vec<Vec<f64>>` matrix representations to `ndarray::Array2<f64>` for better cache performance and built-in bounds checking.
-
----
-
-### Data Privacy
-
-Neural data is among the most sensitive personal data categories. This section covers data handling practices.
-
-| Check | Status | Notes |
-|-------|--------|-------|
-| No PII in log messages | **NEEDS AUDIT** | The crate uses `tracing` in workspace dependencies but currently has no `tracing::info!` or `tracing::debug!` calls with data fields. As logging is added, ensure neural data values, subject IDs, and session IDs are never logged at INFO level or below. |
-| No neural data in error messages | PASS | Error messages contain structural information (dimensions, indices, version numbers) but not raw signal values or embeddings. |
-| `subject_id` handling | **CONCERN** | `EmbeddingMetadata.subject_id` is stored as plaintext `Option<String>`. This is PII that is included in serialized embeddings (serde), HNSW indices, and RVF files. |
-| `session_id` handling | **CONCERN** | Same concern as `subject_id`. |
-| Memory store encryption | **NOT IMPLEMENTED** | `NeuralMemoryStore` holds embeddings in plaintext `Vec<f64>`. No encryption-at-rest. |
-| Memory zeroization on drop | **NOT IMPLEMENTED** | Embedding data is not zeroed when dropped. Sensitive neural data persists in deallocated memory. |
-| WASM data boundary | STUB | WASM crate is not yet implemented. When implemented, must ensure no neural data is sent to external services without explicit user consent. |
-| RVF file privacy | **CONCERN** | `RvfFile` serializes `metadata` as JSON, which may contain `subject_id`. No option to strip or anonymize metadata before export. |
-
-**Recommendations**:
-- Implement a `Redactable` trait for types that may contain PII, providing `redact()` and `anonymize()` methods.
-- Use the `zeroize` crate to zero sensitive data on drop for `NeuralEmbedding`, `NeuralMemoryStore`, and `MultiChannelTimeSeries`.
-- Add a `strip_pii()` method to `RvfFile` that removes or hashes identifiers before export.
-- Document privacy responsibilities in each crate's module documentation.
-- For v0.2: Add optional encryption-at-rest for `NeuralMemoryStore` using `ring` or `aes-gcm`.
-
----
-
-### Network Security (ESP32)
-
-| Check | Status | Notes |
-|-------|--------|-------|
-| Node ID authentication | **NOT IMPLEMENTED** | ESP32 crate (`ruv-neural-esp32`) is currently a local ADC reader with no network protocol. When TDM protocol is added, node IDs must be authenticated. |
-| CRC32 integrity | **NOT IMPLEMENTED** | No data packet framing or integrity checks exist yet. |
-| TLS encryption | **NOT IMPLEMENTED** | v0.1 has no network layer. Planned for v0.2. |
-| Packet size limits | **NOT IMPLEMENTED** | No packet protocol exists yet. |
-| Buffer overflow prevention | PARTIAL | `AdcReader` uses a fixed-size ring buffer (4096 samples), which prevents unbounded growth. However, `load_buffer` silently truncates data that exceeds buffer size rather than reporting it. |
-| DMA configuration | N/A | `dma_enabled` is a configuration flag only; actual DMA is not implemented in std mode. |
-
-**Recommendations for v0.2 TDM Protocol**:
-- Authenticate node IDs using a pre-shared key or challenge-response.
-- Add CRC32 or CRC32-C to every data packet.
-- Set maximum packet size to 1460 bytes (single WiFi frame MTU).
-- Use DTLS or TLS 1.3 for encryption when available.
-- Rate-limit incoming packets per node to prevent flooding.
-- Validate all fields in received packets before processing.
-
----
-
-### Supply Chain
-
-| Check | Status | Notes |
-|-------|--------|-------|
-| Minimal dependencies | PASS | Core dependencies: `thiserror`, `serde`, `serde_json`, `num-complex`, `rustfft`, `rand`. All are well-maintained, widely-used crates. |
-| No proc macros except serde | PASS | Only `serde`'s derive macros and `thiserror`'s derive macro are used. `clap`'s derive is CLI-only. |
-| All deps from crates.io | PASS | No git dependencies or path dependencies outside the workspace. |
-| Workspace-managed versions | PASS | All dependency versions are declared in `[workspace.dependencies]`. |
-| `petgraph` usage | **UNUSED** | Listed in workspace dependencies but not imported by any crate. Remove to reduce supply chain surface. |
-| `tokio` usage | **UNUSED** | Listed in workspace dependencies but not imported by any crate. Remove unless async is planned. |
-| `ruvector-*` crates | **UNUSED** | Five RuVector crates listed but not imported by any workspace member. Remove unused dependencies. |
-| `Cargo.lock` | PRESENT | `Cargo.lock` is committed, ensuring reproducible builds. |
-
-**Recommendation**: Run `cargo deny check` to audit for known vulnerabilities. Remove unused workspace dependencies (`petgraph`, `tokio`, `ruvector-*` crates) to minimize attack surface. Add `cargo audit` to CI.
-
----
-
-### Findings from Code Audit
-
-#### SEC-001: RVF Unbounded Allocation (Severity: Medium)
-
-**Location**: `ruv-neural-core/src/rvf.rs`, line 193
-
-```rust
-let mut meta_bytes = vec![0u8; header.metadata_json_len as usize];
-```
-
-A crafted RVF file with `metadata_json_len = 0xFFFFFFFF` allocates 4 GB. Similarly, `read_to_end` on line 201 reads unbounded data.
-
-**Fix**: Add maximum size constants and validate before allocating:
-```rust
-const MAX_METADATA_LEN: u32 = 16 * 1024 * 1024; // 16 MB
-const MAX_PAYLOAD_LEN: usize = 256 * 1024 * 1024; // 256 MB
-
-if header.metadata_json_len > MAX_METADATA_LEN {
-    return Err(RuvNeuralError::Serialization(
-        format!("metadata_json_len {} exceeds maximum {}", header.metadata_json_len, MAX_METADATA_LEN)
-    ));
-}
-```
-
-#### SEC-002: Missing Sample Rate Validation (Severity: Medium)
-
-**Location**: `ruv-neural-core/src/signal.rs`, `MultiChannelTimeSeries::new`
-
-The `sample_rate_hz` parameter is not validated. A value of 0.0 causes division by zero in `duration_s()`. A negative or NaN value causes incorrect spectral analysis throughout the pipeline.
-
-**Fix**: Add validation in the constructor:
-```rust
-if sample_rate_hz <= 0.0 || !sample_rate_hz.is_finite() {
-    return Err(RuvNeuralError::Signal(
-        format!("sample_rate_hz must be positive and finite, got {}", sample_rate_hz)
-    ));
-}
-```
-
-#### SEC-003: NaN Propagation in Signal Processing (Severity: Low)
-
-**Location**: `ruv-neural-signal/src/connectivity.rs`, all functions
-
-If either input signal contains NaN, the Hilbert transform produces NaN outputs, which propagate silently through PLV, coherence, and all connectivity metrics. The result is a brain graph with NaN edge weights, which causes undefined behavior in Stoer-Wagner (infinite loops or wrong results).
-
-**Fix**: Add a `validate_signal` helper and call it at entry points:
-```rust
-fn validate_signal(signal: &[f64]) -> Result<()> {
-    if signal.iter().any(|x| !x.is_finite()) {
-        return Err(RuvNeuralError::Signal("Signal contains NaN or Inf values".into()));
-    }
-    Ok(())
-}
-```
-
-#### SEC-004: Integer Overflow in ADC (Severity: Low)
-
-**Location**: `ruv-neural-esp32/src/adc.rs`, `AdcConfig::max_raw_value`
-
-```rust
-pub fn max_raw_value(&self) -> i16 {
-    ((1u32 << self.resolution_bits) - 1) as i16
-}
-```
-
-For `resolution_bits = 16`, this computes `65535 as i16 = -1`, which causes incorrect voltage conversion (division by -1 flips sign).
-
-**Fix**: Change return type to `u16` or `i32`, or validate `resolution_bits <= 15`.
-
-#### SEC-005: HNSW Visited Array Allocation (Severity: Low)
-
-**Location**: `ruv-neural-memory/src/hnsw.rs`, `search_layer`, line 261
-
-```rust
-let mut visited = vec![false; self.embeddings.len()];
-```
-
-This allocates a visited array proportional to the total number of embeddings on every search call. For large indices (100K+ embeddings), this causes unnecessary allocation pressure. More critically, if `entry` is >= `self.embeddings.len()`, the indexing on line 262 panics.
-
-**Fix**: Use a `HashSet<usize>` instead of a boolean array for sparse visitation. Add bounds check on `entry`.
-
----
-
-## Performance Review
-
-### Computational Complexity
-
-| Operation | Complexity | Target Latency | Current Status |
-|-----------|-----------|----------------|----------------|
-| FFT (1024 points) | O(N log N) | <1 ms | Implemented via `rustfft` (SIMD-optimized). Meets target. |
-| Hilbert transform | O(N log N) | <1 ms | Two FFTs (forward + inverse). Meets target for N <= 4096. |
-| PLV (channel pair) | O(N) + 2x FFT | <0.5 ms | Calls `hilbert_transform` twice. Meets target for N <= 2048. |
-| Coherence (channel pair) | O(N) + 2x FFT | <0.5 ms | Same as PLV. |
-| Connectivity matrix (68 regions) | O(N^2 x M) | <10 ms | M = samples per channel, N = 68: 2,278 Hilbert pairs. May exceed target for long windows. |
-| Stoer-Wagner mincut (68 nodes) | O(V^3) | <5 ms | 68^3 = ~314K operations. Meets target. |
-| Spectral embedding (68 nodes) | O(V^2 x k x iterations) | <3 ms | With k=8, iterations=100: 68^2 x 8 x 100 = ~37M ops. May be tight. |
-| Fiedler decomposition | O(V^2 x iterations) | <2 ms | 1000 iterations x 68^2 = ~4.6M ops. Meets target. |
-| Cheeger constant (exact, n<=16) | O(2^n x n^2) | <5 ms | Exponential but capped at n=16: 65K x 256 = ~16M ops. Meets target. |
-| HNSW insert | O(log N x ef x M) | <1 ms | ef=200, M=16: ~3200 distance computations per insert. Meets target. |
-| HNSW search (10K embeddings) | O(log N x ef) | <1 ms | ef=50: ~50-200 distance computations. Meets target. |
-| Brute-force NN (10K embeddings) | O(N x d) | <5 ms | d=256, N=10K: 2.56M f64 ops. Acceptable but HNSW preferred. |
-| Full pipeline (68 regions) | - | <50 ms | Sum of above stages. Should meet target. |
-
-### Memory Usage
-
-| Component | Calculation | Size |
-|-----------|------------|------|
-| 64-channel x 1000 Hz x 8 bytes x 1s | 64 x 1000 x 8 | 512 KB per second |
-| Brain graph adjacency (68 nodes) | 68^2 x 8 bytes | ~37 KB |
-| Brain graph adjacency (400 nodes) | 400^2 x 8 bytes | ~1.25 MB |
-| Single embedding (256-d) | 256 x 8 bytes | 2 KB |
-| Memory store (10K embeddings, 256-d) | 10K x 2 KB | ~20 MB |
-| HNSW index (10K, M=16, 256-d) | 10K x (2KB + 16 x 16 bytes) | ~22.5 MB |
-| Stoer-Wagner working memory (68 nodes) | 2 x 68^2 x 8 + 68 x vec overhead | ~75 KB |
-| Spectral embedder (68 nodes, k=8) | k x 68 x 8 + Laplacian 68^2 x 8 | ~41 KB |
-| RVF file in memory | header + metadata + payload | Variable, unbounded (see SEC-001) |
-
-### Optimization Opportunities
-
-#### Immediate (v0.1)
-
-1. **Eliminate redundant Hilbert transforms in connectivity matrix**
-   - `compute_all_pairs` calls `hilbert_transform` twice per channel pair.
-   - For 68 channels, this means 68 x 67 = 4,556 Hilbert transforms instead of 68.
-   - **Fix**: Pre-compute analytic signals for all channels, then compute metrics pairwise.
-   - **Expected speedup**: ~67x for connectivity matrix computation.
-
-2. **Replace Vec<Vec<f64>> with flat Vec<f64> for adjacency matrices**
-   - Current `Vec<Vec<f64>>` has poor cache locality due to heap-allocated inner Vecs.
-   - **Fix**: Use `Vec<f64>` with manual row-major indexing, or migrate to `ndarray::Array2<f64>`.
-   - **Expected speedup**: 2-4x for matrix-heavy operations (Stoer-Wagner, Laplacian).
-
-3. **Avoid Vec::remove(0) in eviction**
-   - `NeuralMemoryStore::evict_oldest` calls `self.embeddings.remove(0)`, which is O(n).
-   - **Fix**: Use a `VecDeque` or circular buffer.
-   - **Expected speedup**: O(1) eviction instead of O(n).
-
-4. **Pre-allocate FFT planner**
-   - `compute_psd`, `compute_stft`, and `hilbert_transform` each create a new `FftPlanner` per call.
-   - **Fix**: Cache the planner or use a thread-local planner.
-   - **Expected speedup**: Eliminates repeated plan computation.
-
-#### Medium-term (v0.2)
-
-5. **Rayon for parallel channel processing**
-   - `compute_all_pairs` iterates channel pairs sequentially.
-   - **Fix**: Use `rayon::par_iter` for the outer loop.
-   - **Expected speedup**: Linear with core count for connectivity computation.
-
-6. **SIMD for distance computations in HNSW**
-   - Euclidean distance in `HnswIndex::distance` uses scalar iteration.
-   - **Fix**: Use `packed_simd2` or auto-vectorization hints.
-   - **Expected speedup**: 4-8x for 256-d vectors on AVX2.
-
-7. **Sparse graph representation**
-   - Dense adjacency matrix wastes memory for sparse brain graphs.
-   - For Schaefer400, storing all 160K entries when only ~10K edges exist is wasteful.
-   - **Fix**: Use compressed sparse row (CSR) format or `petgraph`'s sparse graph.
-
-8. **Quantized embeddings for WASM**
-   - f64 embeddings are unnecessarily precise for browser-based applications.
-   - **Fix**: Support f32 embeddings in WASM builds, halving memory and transfer size.
-
-#### Long-term (v0.3+)
-
-9. **Streaming signal processing**
-   - Current design loads entire time windows into memory.
-   - **Fix**: Implement ring-buffer based streaming for real-time operation.
-
-10. **GPU acceleration for large-scale spectral analysis**
-    - For Schaefer400 atlas, eigendecomposition of 400x400 matrices benefits from GPU.
-    - **Fix**: Optional `wgpu` or `vulkano` backend for matrix operations.
-
-### ESP32 Constraints
-
-| Resource | Limit | Current Usage | Status |
-|----------|-------|---------------|--------|
-| SRAM | 520 KB | Ring buffer: 4096 x channels x 2 bytes = 8 KB (1 channel) | OK |
-| SRAM (multi-channel) | 520 KB | 4096 x 16 x 2 = 128 KB (16 channels) | **TIGHT** |
-| CPU | 240 MHz dual-core | ADC sampling + data transmission | OK for 1 kHz |
-| Flash | 4 MB | Binary size with release profile | Needs measurement |
-| WiFi throughput | ~1 Mbps sustained | 64 ch x 1000 Hz x 2 bytes = 128 KB/s = 1 Mbps | **AT LIMIT** |
-
-**Recommendations**:
-- Use fixed-point arithmetic (i16 or Q15) instead of f64 on ESP32.
-- Implement delta encoding or simple compression for data packets.
-- Limit on-device processing to ADC readout and basic quality checks.
-- Move all signal processing (FFT, connectivity, graph construction) to the host.
-- Profile binary size with `cargo bloat` to ensure it fits in 4 MB flash.
-- Consider reducing ring buffer size for multi-channel configurations.
-
-### Benchmarking Recommendations
-
-#### Per-Crate Microbenchmarks (criterion)
-
-```toml
-# Add to each crate's Cargo.toml
-[[bench]]
-name = "benchmarks"
-harness = false
-
-[dev-dependencies]
-criterion = { workspace = true }
-```
-
-| Crate | Benchmark | Input Size | Metric |
-|-------|-----------|------------|--------|
-| `ruv-neural-signal` | `bench_hilbert_transform` | 256, 512, 1024, 2048, 4096 samples | ns/op |
-| `ruv-neural-signal` | `bench_compute_psd` | 1024, 4096 samples | ns/op |
-| `ruv-neural-signal` | `bench_plv_pair` | 1024 samples | ns/op |
-| `ruv-neural-signal` | `bench_connectivity_matrix` | 16, 32, 68 channels x 1024 samples | ms/op |
-| `ruv-neural-mincut` | `bench_stoer_wagner` | 10, 20, 50, 68, 100 nodes | us/op |
-| `ruv-neural-mincut` | `bench_spectral_bisection` | 10, 20, 50, 68, 100 nodes | us/op |
-| `ruv-neural-mincut` | `bench_cheeger_constant` | 8, 12, 16 nodes (exact), 32, 68 (approx) | us/op |
-| `ruv-neural-embed` | `bench_spectral_embed` | 20, 50, 68, 100 nodes | us/op |
-| `ruv-neural-memory` | `bench_brute_force_nn` | 100, 1K, 10K embeddings x 256-d | us/op |
-| `ruv-neural-memory` | `bench_hnsw_insert` | 1K, 10K embeddings x 256-d | us/op |
-| `ruv-neural-memory` | `bench_hnsw_search` | 1K, 10K embeddings, k=10, ef=50 | us/op |
-| `ruv-neural-esp32` | `bench_adc_read` | 100, 1000 samples x 1-16 channels | us/op |
-
-#### Full Pipeline Profiling
-
-```bash
-# Generate a flamegraph of the full pipeline
-cargo flamegraph --bench full_pipeline -- --bench
-
-# Memory profiling with DHAT
-cargo test --features dhat-heap -- --test full_pipeline
-```
-
-#### WASM Performance
-
-```javascript
-// When ruv-neural-wasm is implemented, measure with:
-performance.mark('embed-start');
-const embedding = ruv_neural.embed(graphData);
-performance.mark('embed-end');
-performance.measure('embed', 'embed-start', 'embed-end');
-```
-
-#### ESP32 Hardware Timing
-
-```rust
-// Use esp-idf-hal's timer for hardware-level benchmarks
-let start = esp_idf_hal::timer::now();
-let samples = reader.read_samples(1000)?;
-let elapsed_us = esp_idf_hal::timer::now() - start;
-```
-
-### Performance Findings from Code Audit
-
-#### PERF-001: Redundant Hilbert Transforms (Severity: High)
-
-**Location**: `ruv-neural-signal/src/connectivity.rs`, `compute_all_pairs`
-
-Each call to `phase_locking_value`, `coherence`, `imaginary_coherence`, or `amplitude_envelope_correlation` independently calls `hilbert_transform` on both input signals. In `compute_all_pairs` with 68 channels, each channel's analytic signal is computed 67 times.
-
-**Impact**: For 68 channels x 1024 samples, this means 4,556 FFTs instead of 68. Estimated waste: ~98.5% of FFT compute in the connectivity matrix.
-
-**Fix**: Pre-compute all analytic signals, then pass slices to pairwise metrics:
-```rust
-pub fn compute_all_pairs_optimized(channels: &[Vec<f64>], metric: &ConnectivityMetric) -> Vec<Vec<f64>> {
-    let analytics: Vec<Vec<Complex<f64>>> = channels.iter()
-        .map(|ch| hilbert_transform(ch))
-        .collect();
-    // ... use pre-computed analytics for all pair computations
-}
-```
-
-#### PERF-002: O(n) Eviction in Memory Store (Severity: Medium)
-
-**Location**: `ruv-neural-memory/src/store.rs`, `evict_oldest`
-
-```rust
-fn evict_oldest(&mut self) {
-    self.embeddings.remove(0);  // O(n) shift
-    self.rebuild_index();       // O(n) rebuild
-}
-```
-
-For a store with 10K embeddings, every insertion at capacity triggers an O(n) shift and full index rebuild.
-
-**Fix**: Use `VecDeque<NeuralEmbedding>` and maintain the index incrementally.
-
-#### PERF-003: FFT Planner Re-creation (Severity: Medium)
-
-**Location**: `ruv-neural-signal/src/spectral.rs` (lines 12-13), `hilbert.rs` (lines 25-27)
-
-A new `FftPlanner` is created on every function call. `rustfft` caches FFT plans internally in the planner, but creating a new planner discards the cache.
-
-**Fix**: Use a thread-local or static planner:
-```rust
-thread_local! {
-    static FFT_PLANNER: RefCell<FftPlanner<f64>> = RefCell::new(FftPlanner::new());
-}
-```
-
-#### PERF-004: Dense Adjacency for Sparse Graphs (Severity: Low)
-
-**Location**: `ruv-neural-core/src/graph.rs`, `adjacency_matrix`
-
-Always allocates an N x N matrix even when the graph has far fewer edges. For Schaefer400 with ~5K edges, this allocates 1.25 MB for a matrix that is ~97% zeros.
-
-**Fix**: Return a sparse representation for large graphs, or provide both `adjacency_matrix()` and `sparse_adjacency()`.
-
-#### PERF-005: Power Iteration Convergence Not Checked (Severity: Low)
-
-**Location**: `ruv-neural-mincut/src/spectral_cut.rs`, `largest_eigenvalue`
-
-Runs a fixed 200 iterations regardless of convergence. Many graphs converge in 20-50 iterations.
-
-**Fix**: Add early termination when eigenvalue change < epsilon:
-```rust
-if (eigenvalue - prev_eigenvalue).abs() < 1e-12 {
-    break;
-}
-```
-
-Note: `fiedler_decomposition` already has this check, but `largest_eigenvalue` does not.
-
----
-
-## Action Items
-
-### Critical (Must fix before v0.1 release)
-
-- [ ] **SEC-001**: Add maximum size limits to RVF deserialization
-- [ ] **SEC-002**: Validate `sample_rate_hz > 0` and `is_finite()` in `MultiChannelTimeSeries::new`
-- [ ] **SEC-004**: Fix integer overflow in `AdcConfig::max_raw_value`
-- [ ] **PERF-001**: Pre-compute Hilbert transforms in `compute_all_pairs`
-
-### Important (Should fix before v0.1 release)
-
-- [ ] **SEC-003**: Add NaN/Inf validation for signal data at pipeline entry points
-- [ ] **SEC-005**: Add bounds check on HNSW entry point index
-- [ ] **PERF-002**: Replace `Vec::remove(0)` with `VecDeque` in memory store
-- [ ] **PERF-003**: Cache FFT planner across calls
-- [ ] Add `BrainGraph::validate()` for edge index bounds and weight finiteness
-- [ ] Add dimension consistency check to `NeuralMemoryStore::store`
-- [ ] Remove unused workspace dependencies (`petgraph`, `tokio`, `ruvector-*`)
-
-### Recommended (Fix in v0.2)
-
-- [ ] Implement `zeroize`-on-drop for `NeuralEmbedding` and `NeuralMemoryStore`
-- [ ] Add `strip_pii()` to `RvfFile`
-- [ ] Migrate `Vec<Vec<f64>>` matrices to `ndarray::Array2<f64>`
-- [ ] Add Rayon parallelism for connectivity matrix computation
-- [ ] Add criterion benchmarks for all crates
-- [ ] Implement TDM protocol with CRC32 and node authentication
-- [ ] Add `cargo deny` and `cargo audit` to CI
-- [ ] Profile and optimize binary size for ESP32
-
-### Future (v0.3+)
-
-- [ ] Encryption-at-rest for `NeuralMemoryStore`
-- [ ] DTLS/TLS for ESP32 network protocol
-- [ ] Sparse graph representation for large atlases
-- [ ] f32 quantized embeddings for WASM
-- [ ] Streaming signal processing pipeline
-- [ ] GPU backend for large-scale spectral analysis
-
----
-
-*This document should be reviewed and updated after each milestone. All security findings should be verified as resolved before the corresponding release.*

v2/crates/ruv-neural/ruv-neural-cli/Cargo.toml

@@ -1,28 +0,0 @@
-[package]
-name = "ruv-neural-cli"
-description = "rUv Neural — CLI tool for brain topology analysis, simulation, and visualization"
-version.workspace = true
-edition.workspace = true
-authors.workspace = true
-license.workspace = true
-
-[[bin]]
-name = "ruv-neural"
-path = "src/main.rs"
-
-[dependencies]
-ruv-neural-core = { workspace = true }
-ruv-neural-sensor = { workspace = true }
-ruv-neural-signal = { workspace = true }
-ruv-neural-graph = { workspace = true }
-ruv-neural-mincut = { workspace = true }
-ruv-neural-embed = { workspace = true }
-ruv-neural-memory = { workspace = true }
-ruv-neural-decoder = { workspace = true }
-ruv-neural-viz = { workspace = true }
-clap = { workspace = true }
-serde = { workspace = true }
-serde_json = { workspace = true }
-tracing = { workspace = true }
-tracing-subscriber = { workspace = true }
-tokio = { workspace = true }

v2/crates/ruv-neural/ruv-neural-cli/README.md

@@ -1,112 +0,0 @@
-# ruv-neural-cli
-
-CLI tool for brain topology analysis, simulation, and visualization.
-
-## Overview
-
-`ruv-neural-cli` is the command-line binary (`ruv-neural`) that ties together
-the entire rUv Neural crate ecosystem. It provides subcommands for simulating
-neural sensor data, analyzing brain connectivity graphs, computing minimum cuts,
-running the full processing pipeline with an optional ASCII dashboard, and
-exporting to multiple visualization formats.
-
-## Installation
-
-```bash
-# Build from source
-cargo install --path .
-
-# Or run directly
-cargo run -p ruv-neural-cli -- <command>
-```
-
-## Commands
-
-### `simulate` -- Generate synthetic neural data
-
-```bash
-ruv-neural simulate --channels 64 --duration 10 --sample-rate 1000 --output data.json
-```
-
-| Flag             | Default | Description                  |
-|------------------|---------|------------------------------|
-| `-c, --channels` | 64      | Number of sensor channels    |
-| `-d, --duration` | 10.0    | Duration in seconds          |
-| `-s, --sample-rate` | 1000.0 | Sample rate in Hz         |
-| `-o, --output`   | (none)  | Output file path (JSON)      |
-
-### `analyze` -- Analyze a brain connectivity graph
-
-```bash
-ruv-neural analyze --input graph.json --ascii --csv metrics.csv
-```
-
-| Flag           | Default | Description                    |
-|----------------|---------|--------------------------------|
-| `-i, --input`  | (required) | Input graph file (JSON)    |
-| `--ascii`      | false   | Show ASCII visualization       |
-| `--csv`        | (none)  | Export metrics to CSV file     |
-
-### `mincut` -- Compute minimum cut
-
-```bash
-ruv-neural mincut --input graph.json --k 4
-```
-
-| Flag           | Default | Description                    |
-|----------------|---------|--------------------------------|
-| `-i, --input`  | (required) | Input graph file (JSON)    |
-| `-k`           | (none)  | Multi-way cut with k partitions|
-
-### `pipeline` -- Full end-to-end pipeline
-
-```bash
-ruv-neural pipeline --channels 32 --duration 5 --dashboard
-```
-
-Runs: simulate -> preprocess -> build graph -> mincut -> embed -> decode.
-
-| Flag             | Default | Description                    |
-|------------------|---------|--------------------------------|
-| `-c, --channels` | 32      | Number of sensor channels      |
-| `-d, --duration` | 5.0     | Duration in seconds            |
-| `--dashboard`    | false   | Show real-time ASCII dashboard |
-
-### `export` -- Export to visualization format
-
-```bash
-ruv-neural export --input graph.json --format dot --output graph.dot
-```
-
-| Flag             | Default | Description                           |
-|------------------|---------|---------------------------------------|
-| `-i, --input`    | (required) | Input graph file (JSON)           |
-| `-f, --format`   | d3      | Output format: d3, dot, gexf, csv, rvf |
-| `-o, --output`   | (required) | Output file path                  |
-
-### `info` -- Show system information
-
-```bash
-ruv-neural info
-```
-
-Displays crate versions, available features, and system capabilities.
-
-## Global Options
-
-| Flag             | Description                        |
-|------------------|------------------------------------|
-| `-v`             | Increase verbosity (up to `-vvv`)  |
-| `--version`      | Print version                      |
-| `--help`         | Print help                         |
-
-## Integration
-
-Depends on all workspace crates: `ruv-neural-core`, `ruv-neural-sensor`,
-`ruv-neural-signal`, `ruv-neural-graph`, `ruv-neural-mincut`, `ruv-neural-embed`,
-`ruv-neural-memory`, `ruv-neural-decoder`, and `ruv-neural-viz`. Uses `clap`
-for argument parsing and `tokio` for async runtime.
-
-## License
-
-MIT OR Apache-2.0

v2/crates/ruv-neural/ruv-neural-cli/src/commands/analyze.rs

@@ -1,237 +0,0 @@
-//! Analyze a brain connectivity graph: compute topology metrics and display results.
-
-use std::fs;
-
-use ruv_neural_core::graph::BrainGraph;
-use ruv_neural_mincut::stoer_wagner_mincut;
-
-/// Run the analyze command.
-pub fn run(
-    input: &str,
-    ascii: bool,
-    csv_output: Option<String>,
-) -> Result<(), Box<dyn std::error::Error>> {
-    tracing::info!(input, "Loading brain graph");
-
-    let json = fs::read_to_string(input)
-        .map_err(|e| format!("Failed to read {input}: {e}"))?;
-    let graph: BrainGraph = serde_json::from_str(&json)
-        .map_err(|e| format!("Failed to parse graph JSON: {e}"))?;
-
-    println!("=== rUv Neural — Graph Analysis ===");
-    println!();
-    println!("  Nodes:           {}", graph.num_nodes);
-    println!("  Edges:           {}", graph.edges.len());
-    println!("  Density:         {:.4}", graph.density());
-    println!("  Total weight:    {:.4}", graph.total_weight());
-    println!("  Timestamp:       {:.2} s", graph.timestamp);
-    println!("  Window duration: {:.2} s", graph.window_duration_s);
-    println!("  Atlas:           {:?}", graph.atlas);
-    println!();
-
-    // Degree statistics.
-    let degrees: Vec<f64> = (0..graph.num_nodes)
-        .map(|i| graph.node_degree(i))
-        .collect();
-    let mean_degree = if degrees.is_empty() {
-        0.0
-    } else {
-        degrees.iter().sum::<f64>() / degrees.len() as f64
-    };
-    let max_degree = degrees.iter().cloned().fold(0.0_f64, f64::max);
-    let min_degree = degrees.iter().cloned().fold(f64::INFINITY, f64::min);
-
-    println!("  Degree statistics:");
-    println!("    Mean:  {mean_degree:.4}");
-    println!("    Min:   {min_degree:.4}");
-    println!("    Max:   {max_degree:.4}");
-    println!();
-
-    // Mincut.
-    match stoer_wagner_mincut(&graph) {
-        Ok(mc) => {
-            println!("  Minimum cut:");
-            println!("    Cut value:     {:.4}", mc.cut_value);
-            println!("    Partition A:   {} nodes {:?}", mc.partition_a.len(), mc.partition_a);
-            println!("    Partition B:   {} nodes {:?}", mc.partition_b.len(), mc.partition_b);
-            println!("    Cut edges:     {}", mc.cut_edges.len());
-            println!("    Balance ratio: {:.4}", mc.balance_ratio());
-            println!();
-        }
-        Err(e) => {
-            println!("  Minimum cut: could not compute ({e})");
-            println!();
-        }
-    }
-
-    // Edge weight distribution.
-    if !graph.edges.is_empty() {
-        let weights: Vec<f64> = graph.edges.iter().map(|e| e.weight).collect();
-        let mean_w = weights.iter().sum::<f64>() / weights.len() as f64;
-        let max_w = weights.iter().cloned().fold(f64::NEG_INFINITY, f64::max);
-        let min_w = weights.iter().cloned().fold(f64::INFINITY, f64::min);
-
-        println!("  Edge weight distribution:");
-        println!("    Mean:  {mean_w:.4}");
-        println!("    Min:   {min_w:.4}");
-        println!("    Max:   {max_w:.4}");
-        println!();
-    }
-
-    if ascii {
-        print_ascii_graph(&graph);
-    }
-
-    if let Some(csv_path) = csv_output {
-        write_csv(&graph, &degrees, &csv_path)?;
-        println!("  Metrics exported to: {csv_path}");
-    }
-
-    Ok(())
-}
-
-/// Print a simple ASCII visualization of the graph adjacency.
-fn print_ascii_graph(graph: &BrainGraph) {
-    println!("  ASCII Adjacency Matrix:");
-    let n = graph.num_nodes.min(20); // cap display at 20x20
-    let adj = graph.adjacency_matrix();
-
-    // Header row.
-    print!("       ");
-    for j in 0..n {
-        print!("{j:>4}");
-    }
-    println!();
-
-    for i in 0..n {
-        print!("  {i:>3}  ");
-        for j in 0..n {
-            let w = adj[i][j];
-            if i == j {
-                print!("   .");
-            } else if w > 0.0 {
-                // Map weight to a character.
-                let ch = if w > 0.8 {
-                    '#'
-                } else if w > 0.5 {
-                    '*'
-                } else if w > 0.2 {
-                    '+'
-                } else {
-                    '.'
-                };
-                print!("   {ch}");
-            } else {
-                print!("    ");
-            }
-        }
-        println!();
-    }
-
-    if graph.num_nodes > 20 {
-        println!("  ... ({} nodes total, showing first 20)", graph.num_nodes);
-    }
-    println!();
-}
-
-/// Write per-node metrics to a CSV file.
-fn write_csv(
-    graph: &BrainGraph,
-    degrees: &[f64],
-    path: &str,
-) -> Result<(), Box<dyn std::error::Error>> {
-    let mut csv = String::from("node,degree,num_edges\n");
-    for i in 0..graph.num_nodes {
-        let num_edges = graph
-            .edges
-            .iter()
-            .filter(|e| e.source == i || e.target == i)
-            .count();
-        csv.push_str(&format!(
-            "{},{:.6},{}\n",
-            i,
-            degrees.get(i).copied().unwrap_or(0.0),
-            num_edges
-        ));
-    }
-    fs::write(path, csv)?;
-    Ok(())
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-    use ruv_neural_core::brain::Atlas;
-    use ruv_neural_core::graph::{BrainEdge, ConnectivityMetric};
-    use ruv_neural_core::signal::FrequencyBand;
-
-    fn test_graph() -> BrainGraph {
-        BrainGraph {
-            num_nodes: 4,
-            edges: vec![
-                BrainEdge {
-                    source: 0,
-                    target: 1,
-                    weight: 0.8,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 1,
-                    target: 2,
-                    weight: 0.5,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 2,
-                    target: 3,
-                    weight: 0.9,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-            ],
-            timestamp: 0.0,
-            window_duration_s: 1.0,
-            atlas: Atlas::Custom(4),
-        }
-    }
-
-    #[test]
-    fn analyze_from_json() {
-        let graph = test_graph();
-        let dir = std::env::temp_dir();
-        let path = dir.join("ruv_neural_test_analyze.json");
-        let json = serde_json::to_string_pretty(&graph).unwrap();
-        std::fs::write(&path, json).unwrap();
-
-        let result = run(&path.to_string_lossy(), false, None);
-        assert!(result.is_ok());
-        std::fs::remove_file(&path).ok();
-    }
-
-    #[test]
-    fn analyze_with_csv() {
-        let graph = test_graph();
-        let dir = std::env::temp_dir();
-        let json_path = dir.join("ruv_neural_test_analyze2.json");
-        let csv_path = dir.join("ruv_neural_test_analyze2.csv");
-
-        let json = serde_json::to_string_pretty(&graph).unwrap();
-        std::fs::write(&json_path, json).unwrap();
-
-        let result = run(
-            &json_path.to_string_lossy(),
-            true,
-            Some(csv_path.to_string_lossy().to_string()),
-        );
-        assert!(result.is_ok());
-        assert!(csv_path.exists());
-
-        let csv_content = std::fs::read_to_string(&csv_path).unwrap();
-        assert!(csv_content.starts_with("node,degree,num_edges"));
-
-        std::fs::remove_file(&json_path).ok();
-        std::fs::remove_file(&csv_path).ok();
-    }
-}

v2/crates/ruv-neural/ruv-neural-cli/src/commands/export.rs

@@ -1,280 +0,0 @@
-//! Export brain graph to various visualization formats.
-
-use std::fs;
-
-use ruv_neural_core::graph::BrainGraph;
-
-/// Run the export command.
-pub fn run(
-    input: &str,
-    format: &str,
-    output: &str,
-) -> Result<(), Box<dyn std::error::Error>> {
-    tracing::info!(input, format, output, "Exporting brain graph");
-
-    let json =
-        fs::read_to_string(input).map_err(|e| format!("Failed to read {input}: {e}"))?;
-    let graph: BrainGraph =
-        serde_json::from_str(&json).map_err(|e| format!("Failed to parse graph JSON: {e}"))?;
-
-    let content = match format {
-        "d3" => export_d3(&graph)?,
-        "dot" => export_dot(&graph),
-        "gexf" => export_gexf(&graph),
-        "csv" => export_csv(&graph),
-        "rvf" => export_rvf(&graph)?,
-        _ => {
-            return Err(format!(
-                "Unknown format '{format}'. Supported: d3, dot, gexf, csv, rvf"
-            )
-            .into());
-        }
-    };
-
-    fs::write(output, content)?;
-
-    println!("=== rUv Neural — Export Complete ===");
-    println!();
-    println!("  Format:  {format}");
-    println!("  Input:   {input}");
-    println!("  Output:  {output}");
-    println!("  Nodes:   {}", graph.num_nodes);
-    println!("  Edges:   {}", graph.edges.len());
-
-    Ok(())
-}
-
-/// Export to D3.js-compatible JSON format.
-fn export_d3(graph: &BrainGraph) -> Result<String, Box<dyn std::error::Error>> {
-    let nodes: Vec<serde_json::Value> = (0..graph.num_nodes)
-        .map(|i| {
-            serde_json::json!({
-                "id": i,
-                "degree": graph.node_degree(i),
-            })
-        })
-        .collect();
-
-    let links: Vec<serde_json::Value> = graph
-        .edges
-        .iter()
-        .map(|e| {
-            serde_json::json!({
-                "source": e.source,
-                "target": e.target,
-                "weight": e.weight,
-                "metric": format!("{:?}", e.metric),
-                "band": format!("{:?}", e.frequency_band),
-            })
-        })
-        .collect();
-
-    let d3 = serde_json::json!({
-        "nodes": nodes,
-        "links": links,
-        "metadata": {
-            "num_nodes": graph.num_nodes,
-            "num_edges": graph.edges.len(),
-            "density": graph.density(),
-            "total_weight": graph.total_weight(),
-            "atlas": format!("{:?}", graph.atlas),
-            "timestamp": graph.timestamp,
-        }
-    });
-
-    Ok(serde_json::to_string_pretty(&d3)?)
-}
-
-/// Export to Graphviz DOT format.
-fn export_dot(graph: &BrainGraph) -> String {
-    let mut dot = String::from("graph brain {\n");
-    dot.push_str("  rankdir=LR;\n");
-    dot.push_str(&format!(
-        "  label=\"Brain Graph ({} nodes, {} edges)\";\n",
-        graph.num_nodes,
-        graph.edges.len()
-    ));
-    dot.push_str("  node [shape=circle];\n\n");
-
-    for i in 0..graph.num_nodes {
-        let degree = graph.node_degree(i);
-        let size = 0.3 + degree * 0.1;
-        dot.push_str(&format!(
-            "  n{i} [label=\"{i}\", width={size:.2}];\n"
-        ));
-    }
-    dot.push('\n');
-
-    for edge in &graph.edges {
-        let penwidth = 0.5 + edge.weight * 2.0;
-        dot.push_str(&format!(
-            "  n{} -- n{} [penwidth={:.2}, label=\"{:.2}\"];\n",
-            edge.source, edge.target, penwidth, edge.weight
-        ));
-    }
-
-    dot.push_str("}\n");
-    dot
-}
-
-/// Export to GEXF (Graph Exchange XML Format).
-fn export_gexf(graph: &BrainGraph) -> String {
-    let mut gexf = String::from(r#"<?xml version="1.0" encoding="UTF-8"?>
-<gexf xmlns="http://gexf.net/1.3" version="1.3">
-  <meta>
-    <creator>rUv Neural</creator>
-    <description>Brain connectivity graph</description>
-  </meta>
-  <graph defaultedgetype="undirected">
-    <nodes>
-"#);
-
-    for i in 0..graph.num_nodes {
-        gexf.push_str(&format!(
-            "      <node id=\"{i}\" label=\"Region {i}\" />\n"
-        ));
-    }
-
-    gexf.push_str("    </nodes>\n    <edges>\n");
-
-    for (idx, edge) in graph.edges.iter().enumerate() {
-        gexf.push_str(&format!(
-            "      <edge id=\"{idx}\" source=\"{}\" target=\"{}\" weight=\"{:.6}\" />\n",
-            edge.source, edge.target, edge.weight
-        ));
-    }
-
-    gexf.push_str("    </edges>\n  </graph>\n</gexf>\n");
-    gexf
-}
-
-/// Export to CSV edge list.
-fn export_csv(graph: &BrainGraph) -> String {
-    let mut csv = String::from("source,target,weight,metric,frequency_band\n");
-    for edge in &graph.edges {
-        csv.push_str(&format!(
-            "{},{},{:.6},{:?},{:?}\n",
-            edge.source, edge.target, edge.weight, edge.metric, edge.frequency_band
-        ));
-    }
-    csv
-}
-
-/// Export to RVF (RuVector File) JSON representation.
-fn export_rvf(graph: &BrainGraph) -> Result<String, Box<dyn std::error::Error>> {
-    let rvf = serde_json::json!({
-        "format": "rvf",
-        "version": 1,
-        "data_type": "BrainGraph",
-        "num_nodes": graph.num_nodes,
-        "num_edges": graph.edges.len(),
-        "atlas": format!("{:?}", graph.atlas),
-        "timestamp": graph.timestamp,
-        "window_duration_s": graph.window_duration_s,
-        "adjacency": graph.adjacency_matrix(),
-    });
-    Ok(serde_json::to_string_pretty(&rvf)?)
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-    use ruv_neural_core::brain::Atlas;
-    use ruv_neural_core::graph::{BrainEdge, ConnectivityMetric};
-    use ruv_neural_core::signal::FrequencyBand;
-
-    fn test_graph() -> BrainGraph {
-        BrainGraph {
-            num_nodes: 3,
-            edges: vec![
-                BrainEdge {
-                    source: 0,
-                    target: 1,
-                    weight: 0.8,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 1,
-                    target: 2,
-                    weight: 0.5,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Beta,
-                },
-            ],
-            timestamp: 0.0,
-            window_duration_s: 1.0,
-            atlas: Atlas::Custom(3),
-        }
-    }
-
-    #[test]
-    fn export_d3_valid_json() {
-        let graph = test_graph();
-        let result = export_d3(&graph).unwrap();
-        let parsed: serde_json::Value = serde_json::from_str(&result).unwrap();
-        assert!(parsed["nodes"].is_array());
-        assert!(parsed["links"].is_array());
-        assert_eq!(parsed["nodes"].as_array().unwrap().len(), 3);
-        assert_eq!(parsed["links"].as_array().unwrap().len(), 2);
-    }
-
-    #[test]
-    fn export_dot_format() {
-        let graph = test_graph();
-        let result = export_dot(&graph);
-        assert!(result.starts_with("graph brain {"));
-        assert!(result.contains("n0 -- n1"));
-        assert!(result.ends_with("}\n"));
-    }
-
-    #[test]
-    fn export_gexf_format() {
-        let graph = test_graph();
-        let result = export_gexf(&graph);
-        assert!(result.contains("<gexf"));
-        assert!(result.contains("<node id=\"0\""));
-        assert!(result.contains("</gexf>"));
-    }
-
-    #[test]
-    fn export_csv_format() {
-        let graph = test_graph();
-        let result = export_csv(&graph);
-        assert!(result.starts_with("source,target,weight"));
-        let lines: Vec<&str> = result.lines().collect();
-        assert_eq!(lines.len(), 3); // header + 2 edges
-    }
-
-    #[test]
-    fn export_rvf_valid_json() {
-        let graph = test_graph();
-        let result = export_rvf(&graph).unwrap();
-        let parsed: serde_json::Value = serde_json::from_str(&result).unwrap();
-        assert_eq!(parsed["format"], "rvf");
-        assert_eq!(parsed["num_nodes"], 3);
-    }
-
-    #[test]
-    fn export_all_formats() {
-        let graph = test_graph();
-        let dir = std::env::temp_dir();
-        let json_path = dir.join("ruv_neural_test_export.json");
-        let json = serde_json::to_string_pretty(&graph).unwrap();
-        std::fs::write(&json_path, json).unwrap();
-
-        for fmt in &["d3", "dot", "gexf", "csv", "rvf"] {
-            let out_path = dir.join(format!("ruv_neural_test_export.{fmt}"));
-            let result = run(
-                &json_path.to_string_lossy(),
-                fmt,
-                &out_path.to_string_lossy(),
-            );
-            assert!(result.is_ok(), "Failed to export format: {fmt}");
-            assert!(out_path.exists(), "Output file missing for format: {fmt}");
-            std::fs::remove_file(&out_path).ok();
-        }
-
-        std::fs::remove_file(&json_path).ok();
-    }
-}

v2/crates/ruv-neural/ruv-neural-cli/src/commands/info.rs

@@ -1,66 +0,0 @@
-//! Display system info and capabilities.
-
-/// Run the info command.
-pub fn run() {
-    let version = env!("CARGO_PKG_VERSION");
-
-    println!("=== rUv Neural — System Information ===");
-    println!();
-    println!("  Version:     {version}");
-    println!("  Binary:      ruv-neural");
-    println!();
-    println!("  Crate Versions:");
-    println!("    ruv-neural-core     {version}");
-    println!("    ruv-neural-sensor   {version}");
-    println!("    ruv-neural-signal   {version}");
-    println!("    ruv-neural-graph    {version}");
-    println!("    ruv-neural-mincut   {version}");
-    println!("    ruv-neural-embed    {version}");
-    println!("    ruv-neural-memory   {version}");
-    println!("    ruv-neural-decoder  {version}");
-    println!("    ruv-neural-viz      {version}");
-    println!("    ruv-neural-cli      {version}");
-    println!();
-    println!("  Features:");
-    println!("    Sensor simulation       [available]");
-    println!("    Signal processing       [available]");
-    println!("    Bandpass filtering       [available]  (Butterworth IIR, SOS form)");
-    println!("    Artifact rejection       [available]  (eye blink, muscle, cardiac)");
-    println!("    PLV connectivity         [available]  (phase locking value)");
-    println!("    Coherence metrics        [available]  (coherence, imaginary coherence)");
-    println!("    Stoer-Wagner mincut      [available]  (global minimum cut)");
-    println!("    Normalized cut           [available]  (Shi-Malik spectral bisection)");
-    println!("    Multi-way cut            [available]  (recursive normalized cut)");
-    println!("    Spectral embedding       [available]  (Laplacian eigenvector encoding)");
-    println!("    Topology embedding       [available]  (hand-crafted topological features)");
-    println!("    Node2Vec embedding       [available]  (random walk co-occurrence)");
-    println!("    Threshold decoder        [available]  (rule-based cognitive state)");
-    println!("    KNN decoder              [available]  (k-nearest neighbor classifier)");
-    println!("    Force-directed layout    [available]  (Fruchterman-Reingold)");
-    println!("    Anatomical layout        [available]  (MNI coordinate-based)");
-    println!();
-    println!("  Export Formats:");
-    println!("    D3.js JSON              [available]");
-    println!("    Graphviz DOT            [available]");
-    println!("    GEXF (Graph Exchange)   [available]");
-    println!("    CSV edge list           [available]");
-    println!("    RVF (RuVector File)     [available]");
-    println!();
-    println!("  Pipeline:");
-    println!("    simulate -> filter -> PLV graph -> mincut -> embed -> decode");
-    println!();
-    println!("  Platform:");
-    println!("    OS:           {}", std::env::consts::OS);
-    println!("    Arch:         {}", std::env::consts::ARCH);
-    println!("    Family:       {}", std::env::consts::FAMILY);
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-
-    #[test]
-    fn info_runs_without_panic() {
-        run();
-    }
-}

v2/crates/ruv-neural/ruv-neural-cli/src/commands/mincut.rs

@@ -1,184 +0,0 @@
-//! Compute minimum cut on a brain connectivity graph.
-
-use std::fs;
-
-use ruv_neural_core::graph::BrainGraph;
-use ruv_neural_mincut::{multiway_cut, stoer_wagner_mincut};
-
-/// Run the mincut command.
-pub fn run(input: &str, k: Option<usize>) -> Result<(), Box<dyn std::error::Error>> {
-    tracing::info!(input, ?k, "Computing minimum cut");
-
-    let json =
-        fs::read_to_string(input).map_err(|e| format!("Failed to read {input}: {e}"))?;
-    let graph: BrainGraph =
-        serde_json::from_str(&json).map_err(|e| format!("Failed to parse graph JSON: {e}"))?;
-
-    println!("=== rUv Neural — Minimum Cut Analysis ===");
-    println!();
-    println!("  Graph: {} nodes, {} edges", graph.num_nodes, graph.edges.len());
-    println!();
-
-    match k {
-        Some(k_val) if k_val > 2 => {
-            // Multi-way cut.
-            let result = multiway_cut(&graph, k_val)
-                .map_err(|e| format!("Multiway cut failed: {e}"))?;
-
-            println!("  Multi-way cut (k={k_val}):");
-            println!("    Total cut value: {:.4}", result.cut_value);
-            println!("    Modularity:      {:.4}", result.modularity);
-            println!("    Partitions:      {}", result.num_partitions());
-            println!();
-
-            for (i, partition) in result.partitions.iter().enumerate() {
-                println!("    Partition {i}: {} nodes {:?}", partition.len(), partition);
-            }
-            println!();
-
-            // ASCII visualization of partitions.
-            print_partition_ascii(&graph, &result.partitions);
-        }
-        _ => {
-            // Standard two-way Stoer-Wagner.
-            let mc = stoer_wagner_mincut(&graph)
-                .map_err(|e| format!("Stoer-Wagner mincut failed: {e}"))?;
-
-            println!("  Stoer-Wagner minimum cut:");
-            println!("    Cut value:     {:.4}", mc.cut_value);
-            println!("    Partition A:   {} nodes {:?}", mc.partition_a.len(), mc.partition_a);
-            println!("    Partition B:   {} nodes {:?}", mc.partition_b.len(), mc.partition_b);
-            println!("    Balance ratio: {:.4}", mc.balance_ratio());
-            println!();
-
-            println!("  Cut edges:");
-            for (src, tgt, weight) in &mc.cut_edges {
-                println!("    {src} -- {tgt}  (weight: {weight:.4})");
-            }
-            println!();
-
-            // ASCII visualization of the two partitions.
-            print_partition_ascii(&graph, &[mc.partition_a.clone(), mc.partition_b.clone()]);
-        }
-    }
-
-    Ok(())
-}
-
-/// Print an ASCII visualization of the graph partitions.
-fn print_partition_ascii(graph: &BrainGraph, partitions: &[Vec<usize>]) {
-    println!("  Partition layout:");
-
-    // Build a node-to-partition map.
-    let mut node_partition = vec![0usize; graph.num_nodes];
-    for (pid, partition) in partitions.iter().enumerate() {
-        for &node in partition {
-            if node < graph.num_nodes {
-                node_partition[node] = pid;
-            }
-        }
-    }
-
-    // Label characters for partitions.
-    let labels = ['A', 'B', 'C', 'D', 'E', 'F', 'G', 'H'];
-
-    let n = graph.num_nodes.min(40);
-    print!("    ");
-    for i in 0..n {
-        let pid = node_partition[i];
-        let ch = labels.get(pid).copied().unwrap_or('?');
-        print!("{ch}");
-    }
-    println!();
-
-    if graph.num_nodes > 40 {
-        println!("    ... ({} nodes total)", graph.num_nodes);
-    }
-
-    println!();
-    for (pid, partition) in partitions.iter().enumerate() {
-        let ch = labels.get(pid).copied().unwrap_or('?');
-        println!("    {ch} = {} nodes", partition.len());
-    }
-    println!();
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-    use ruv_neural_core::brain::Atlas;
-    use ruv_neural_core::graph::{BrainEdge, ConnectivityMetric};
-    use ruv_neural_core::signal::FrequencyBand;
-
-    fn test_graph() -> BrainGraph {
-        BrainGraph {
-            num_nodes: 6,
-            edges: vec![
-                BrainEdge {
-                    source: 0,
-                    target: 1,
-                    weight: 5.0,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 1,
-                    target: 2,
-                    weight: 5.0,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 3,
-                    target: 4,
-                    weight: 5.0,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 4,
-                    target: 5,
-                    weight: 5.0,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 2,
-                    target: 3,
-                    weight: 0.5,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-            ],
-            timestamp: 0.0,
-            window_duration_s: 1.0,
-            atlas: Atlas::Custom(6),
-        }
-    }
-
-    #[test]
-    fn mincut_two_way() {
-        let graph = test_graph();
-        let dir = std::env::temp_dir();
-        let path = dir.join("ruv_neural_test_mincut.json");
-        let json = serde_json::to_string_pretty(&graph).unwrap();
-        std::fs::write(&path, json).unwrap();
-
-        let result = run(&path.to_string_lossy(), None);
-        assert!(result.is_ok());
-        std::fs::remove_file(&path).ok();
-    }
-
-    #[test]
-    fn mincut_multiway() {
-        let graph = test_graph();
-        let dir = std::env::temp_dir();
-        let path = dir.join("ruv_neural_test_mincut_k.json");
-        let json = serde_json::to_string_pretty(&graph).unwrap();
-        std::fs::write(&path, json).unwrap();
-
-        let result = run(&path.to_string_lossy(), Some(3));
-        assert!(result.is_ok());
-        std::fs::remove_file(&path).ok();
-    }
-}

v2/crates/ruv-neural/ruv-neural-cli/src/commands/mod.rs

@@ -1,9 +0,0 @@
-//! CLI command implementations.
-
-pub mod analyze;
-pub mod export;
-pub mod info;
-pub mod mincut;
-pub mod pipeline;
-pub mod simulate;
-pub mod witness;

v2/crates/ruv-neural/ruv-neural-cli/src/commands/pipeline.rs

@@ -1,377 +0,0 @@
-//! Full end-to-end pipeline: simulate -> process -> analyze -> decode.
-
-use std::f64::consts::PI;
-
-use ruv_neural_core::brain::Atlas;
-use ruv_neural_core::graph::{BrainEdge, BrainGraph, ConnectivityMetric};
-use ruv_neural_core::signal::{FrequencyBand, MultiChannelTimeSeries};
-use ruv_neural_core::topology::CognitiveState;
-use ruv_neural_decoder::ThresholdDecoder;
-use ruv_neural_embed::spectral_embed::SpectralEmbedder;
-use ruv_neural_embed::topology_embed::TopologyEmbedder;
-use ruv_neural_mincut::stoer_wagner_mincut;
-use ruv_neural_signal::connectivity::phase_locking_value;
-use ruv_neural_signal::filter::BandpassFilter;
-
-/// Run the full pipeline command.
-pub fn run(
-    channels: usize,
-    duration: f64,
-    dashboard: bool,
-) -> Result<(), Box<dyn std::error::Error>> {
-    let sample_rate = 1000.0;
-    let num_samples = (duration * sample_rate) as usize;
-
-    println!("=== rUv Neural — Full Pipeline ===");
-    println!();
-
-    // Step 1: Generate simulated sensor data.
-    println!("  [1/7] Generating simulated sensor data...");
-    let raw_data = generate_data(channels, num_samples, sample_rate);
-    let ts = MultiChannelTimeSeries::new(raw_data.clone(), sample_rate, 0.0)
-        .map_err(|e| format!("Time series creation failed: {e}"))?;
-    println!("        {channels} channels, {num_samples} samples, {duration:.1}s");
-
-    // Step 2: Preprocess (bandpass filter 1-100 Hz).
-    println!("  [2/7] Preprocessing (bandpass 1-100 Hz)...");
-    let filter = BandpassFilter::new(4, 1.0, 100.0, sample_rate);
-    let filtered: Vec<Vec<f64>> = raw_data
-        .iter()
-        .map(|ch| {
-            use ruv_neural_signal::filter::SignalProcessor;
-            filter.process(ch)
-        })
-        .collect();
-    println!("        Bandpass filter applied to all channels");
-
-    // Step 3: Construct brain graph via PLV connectivity.
-    println!("  [3/7] Constructing brain connectivity graph (PLV)...");
-    let graph = build_plv_graph(&filtered, sample_rate);
-    println!(
-        "        {} nodes, {} edges, density {:.4}",
-        graph.num_nodes,
-        graph.edges.len(),
-        graph.density()
-    );
-
-    // Step 4: Compute mincut and topology metrics.
-    println!("  [4/7] Computing minimum cut and topology metrics...");
-    let mc = stoer_wagner_mincut(&graph)
-        .map_err(|e| format!("Mincut failed: {e}"))?;
-    println!("        Cut value: {:.4}, balance: {:.4}", mc.cut_value, mc.balance_ratio());
-    println!(
-        "        Partition A: {} nodes, Partition B: {} nodes",
-        mc.partition_a.len(),
-        mc.partition_b.len()
-    );
-
-    // Step 5: Generate embedding.
-    println!("  [5/7] Generating topology embedding...");
-    let embedder = TopologyEmbedder::new();
-    let embedding = embedder.embed_graph(&graph)
-        .map_err(|e| format!("Embedding failed: {e}"))?;
-    println!("        Dimension: {}, norm: {:.4}", embedding.dimension, embedding.norm());
-
-    // Also generate spectral embedding.
-    let spectral_dim = channels.min(8).max(2);
-    let spectral = SpectralEmbedder::new(spectral_dim);
-    let spectral_emb = spectral.embed_graph(&graph)
-        .map_err(|e| format!("Spectral embedding failed: {e}"))?;
-    println!(
-        "        Spectral embedding: dim={}, norm={:.4}",
-        spectral_emb.dimension,
-        spectral_emb.norm()
-    );
-
-    // Step 6: Decode cognitive state.
-    println!("  [6/7] Decoding cognitive state...");
-    let decoder = build_default_decoder();
-    let metrics = ruv_neural_core::topology::TopologyMetrics {
-        global_mincut: mc.cut_value,
-        modularity: estimate_modularity(&graph),
-        global_efficiency: estimate_efficiency(&graph),
-        local_efficiency: 0.0,
-        graph_entropy: estimate_entropy(&graph),
-        fiedler_value: 0.0,
-        num_modules: 2,
-        timestamp: graph.timestamp,
-    };
-    let (state, confidence) = decoder.decode(&metrics);
-    println!("        State:      {state:?}");
-    println!("        Confidence: {confidence:.4}");
-
-    // Step 7: Display results.
-    println!("  [7/7] Results summary");
-    println!();
-
-    println!("  ┌─────────────────────────────────────────┐");
-    println!("  │         Pipeline Results Summary         │");
-    println!("  ├─────────────────────────────────────────┤");
-    println!("  │  Channels:         {:<20} │", channels);
-    println!("  │  Duration:         {:<20} │", format!("{duration:.1} s"));
-    println!("  │  Graph density:    {:<20} │", format!("{:.4}", graph.density()));
-    println!("  │  Mincut value:     {:<20} │", format!("{:.4}", mc.cut_value));
-    println!("  │  Balance ratio:    {:<20} │", format!("{:.4}", mc.balance_ratio()));
-    println!("  │  Modularity:       {:<20} │", format!("{:.4}", metrics.modularity));
-    println!("  │  Graph entropy:    {:<20} │", format!("{:.4}", metrics.graph_entropy));
-    println!("  │  Embedding dim:    {:<20} │", embedding.dimension);
-    println!("  │  Cognitive state:  {:<20} │", format!("{state:?}"));
-    println!("  │  Confidence:       {:<20} │", format!("{confidence:.4}"));
-    println!("  └─────────────────────────────────────────┘");
-    println!();
-
-    if dashboard {
-        print_dashboard(&ts, &graph, &mc, &metrics);
-    }
-
-    Ok(())
-}
-
-/// Generate synthetic multi-channel neural data.
-fn generate_data(channels: usize, num_samples: usize, sample_rate: f64) -> Vec<Vec<f64>> {
-    let mut data = Vec::with_capacity(channels);
-    for ch in 0..channels {
-        let mut channel_data = Vec::with_capacity(num_samples);
-        let phase = (ch as f64) * PI / (channels as f64);
-        let mut rng: u64 = (ch as u64).wrapping_mul(2862933555777941757).wrapping_add(3037000493);
-
-        for i in 0..num_samples {
-            let t = i as f64 / sample_rate;
-            let alpha = 50.0 * (2.0 * PI * 10.0 * t + phase).sin();
-            let beta = 30.0 * (2.0 * PI * 20.0 * t + phase * 1.3).sin();
-            let gamma = 15.0 * (2.0 * PI * 40.0 * t + phase * 0.7).sin();
-
-            rng = rng.wrapping_mul(6364136223846793005).wrapping_add(1442695040888963407);
-            let u1 = (rng >> 11) as f64 / (1u64 << 53) as f64;
-            rng = rng.wrapping_mul(6364136223846793005).wrapping_add(1442695040888963407);
-            let u2 = (rng >> 11) as f64 / (1u64 << 53) as f64;
-            let noise = if u1 > 1e-15 {
-                5.0 * (-2.0 * u1.ln()).sqrt() * (2.0 * PI * u2).cos()
-            } else {
-                0.0
-            };
-
-            channel_data.push(alpha + beta + gamma + noise);
-        }
-        data.push(channel_data);
-    }
-    data
-}
-
-/// Build a brain graph from PLV connectivity between all channel pairs.
-fn build_plv_graph(channels: &[Vec<f64>], sample_rate: f64) -> BrainGraph {
-    let n = channels.len();
-    let mut edges = Vec::new();
-    let plv_threshold = 0.3;
-
-    for i in 0..n {
-        for j in (i + 1)..n {
-            let plv = phase_locking_value(&channels[i], &channels[j], sample_rate, FrequencyBand::Alpha);
-            if plv > plv_threshold {
-                edges.push(BrainEdge {
-                    source: i,
-                    target: j,
-                    weight: plv,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                });
-            }
-        }
-    }
-
-    BrainGraph {
-        num_nodes: n,
-        edges,
-        timestamp: 0.0,
-        window_duration_s: 1.0,
-        atlas: Atlas::Custom(n),
-    }
-}
-
-/// Estimate modularity using a simple degree-based partition.
-fn estimate_modularity(graph: &BrainGraph) -> f64 {
-    let n = graph.num_nodes;
-    if n < 2 {
-        return 0.0;
-    }
-    let total = graph.total_weight();
-    if total < 1e-12 {
-        return 0.0;
-    }
-
-    let adj = graph.adjacency_matrix();
-    let degrees: Vec<f64> = (0..n).map(|i| graph.node_degree(i)).collect();
-    let two_m = 2.0 * total;
-
-    // Simple bisection: first half vs second half.
-    let mid = n / 2;
-    let mut q = 0.0;
-    for i in 0..n {
-        for j in 0..n {
-            let same_community = (i < mid && j < mid) || (i >= mid && j >= mid);
-            if same_community {
-                q += adj[i][j] - degrees[i] * degrees[j] / two_m;
-            }
-        }
-    }
-    q / two_m
-}
-
-/// Estimate global efficiency (mean inverse shortest path).
-fn estimate_efficiency(graph: &BrainGraph) -> f64 {
-    let n = graph.num_nodes;
-    if n < 2 {
-        return 0.0;
-    }
-    // Use adjacency weights directly as a rough proxy.
-    let adj = graph.adjacency_matrix();
-    let mut sum = 0.0;
-    let mut count = 0;
-    for i in 0..n {
-        for j in (i + 1)..n {
-            if adj[i][j] > 0.0 {
-                sum += adj[i][j]; // weight as proxy for efficiency
-            }
-            count += 1;
-        }
-    }
-    if count == 0 {
-        return 0.0;
-    }
-    sum / count as f64
-}
-
-/// Estimate graph entropy from edge weight distribution.
-fn estimate_entropy(graph: &BrainGraph) -> f64 {
-    let total = graph.total_weight();
-    if total < 1e-12 || graph.edges.is_empty() {
-        return 0.0;
-    }
-    let mut entropy = 0.0;
-    for edge in &graph.edges {
-        let p = edge.weight / total;
-        if p > 1e-15 {
-            entropy -= p * p.ln();
-        }
-    }
-    entropy
-}
-
-/// Build a threshold decoder with default state definitions.
-fn build_default_decoder() -> ThresholdDecoder {
-    let mut decoder = ThresholdDecoder::new();
-
-    decoder.set_threshold(
-        CognitiveState::Rest,
-        ruv_neural_decoder::TopologyThreshold {
-            mincut_range: (0.0, 5.0),
-            modularity_range: (0.2, 0.6),
-            efficiency_range: (0.1, 0.4),
-            entropy_range: (1.0, 3.0),
-        },
-    );
-
-    decoder.set_threshold(
-        CognitiveState::Focused,
-        ruv_neural_decoder::TopologyThreshold {
-            mincut_range: (3.0, 15.0),
-            modularity_range: (0.4, 0.8),
-            efficiency_range: (0.3, 0.7),
-            entropy_range: (2.0, 4.0),
-        },
-    );
-
-    decoder.set_threshold(
-        CognitiveState::MotorPlanning,
-        ruv_neural_decoder::TopologyThreshold {
-            mincut_range: (2.0, 10.0),
-            modularity_range: (0.3, 0.7),
-            efficiency_range: (0.2, 0.6),
-            entropy_range: (1.5, 3.5),
-        },
-    );
-
-    decoder
-}
-
-/// Print a real-time-style ASCII dashboard.
-fn print_dashboard(
-    ts: &MultiChannelTimeSeries,
-    graph: &BrainGraph,
-    mc: &ruv_neural_core::topology::MincutResult,
-    metrics: &ruv_neural_core::topology::TopologyMetrics,
-) {
-    println!("  ╔═══════════════════════════════════════════════════╗");
-    println!("  ║           rUv Neural — Live Dashboard             ║");
-    println!("  ╠═══════════════════════════════════════════════════╣");
-    println!("  ║                                                   ║");
-
-    // Signal sparkline for first few channels.
-    let display_channels = ts.num_channels.min(6);
-    let display_samples = ts.num_samples.min(50);
-    let sparkline_chars = ['▁', '▂', '▃', '▄', '▅', '▆', '▇', '█'];
-
-    for ch in 0..display_channels {
-        let data = &ts.data[ch];
-        let min_val = data.iter().cloned().fold(f64::INFINITY, f64::min);
-        let max_val = data.iter().cloned().fold(f64::NEG_INFINITY, f64::max);
-        let range = max_val - min_val;
-
-        let step = ts.num_samples / display_samples;
-        let mut sparkline = String::new();
-        for i in 0..display_samples {
-            let val = data[i * step];
-            let normalized = if range > 1e-12 {
-                ((val - min_val) / range * 7.0) as usize
-            } else {
-                4
-            };
-            sparkline.push(sparkline_chars[normalized.min(7)]);
-        }
-        println!("  ║  Ch{ch:02}: {sparkline} ║");
-    }
-
-    println!("  ║                                                   ║");
-    println!("  ║  Graph:  {} nodes, {} edges              ║",
-        format!("{:>3}", graph.num_nodes),
-        format!("{:>4}", graph.edges.len()),
-    );
-    println!("  ║  Mincut: {:.4}  Balance: {:.4}              ║", mc.cut_value, mc.balance_ratio());
-    println!("  ║  Modularity: {:.4}  Entropy: {:.4}          ║", metrics.modularity, metrics.graph_entropy);
-    println!("  ║                                                   ║");
-    println!("  ╚═══════════════════════════════════════════════════╝");
-    println!();
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-
-    #[test]
-    fn pipeline_runs_end_to_end() {
-        let result = run(4, 1.0, false);
-        assert!(result.is_ok());
-    }
-
-    #[test]
-    fn pipeline_with_dashboard() {
-        let result = run(4, 0.5, true);
-        assert!(result.is_ok());
-    }
-
-    #[test]
-    fn plv_graph_has_edges() {
-        let data = generate_data(4, 1000, 1000.0);
-        let graph = build_plv_graph(&data, 1000.0);
-        assert_eq!(graph.num_nodes, 4);
-        // Channels with similar phase should have some PLV connectivity.
-    }
-
-    #[test]
-    fn entropy_non_negative() {
-        let data = generate_data(4, 1000, 1000.0);
-        let graph = build_plv_graph(&data, 1000.0);
-        let e = estimate_entropy(&graph);
-        assert!(e >= 0.0);
-    }
-}

v2/crates/ruv-neural/ruv-neural-cli/src/commands/simulate.rs

@@ -1,156 +0,0 @@
-//! Simulate neural sensor data and write to JSON or stdout.
-
-use std::f64::consts::PI;
-use std::fs;
-
-use ruv_neural_core::signal::MultiChannelTimeSeries;
-
-/// Run the simulate command.
-///
-/// Generates synthetic multi-channel neural data with configurable alpha,
-/// beta, and gamma oscillations plus realistic noise.
-pub fn run(
-    channels: usize,
-    duration: f64,
-    sample_rate: f64,
-    output: Option<String>,
-) -> Result<(), Box<dyn std::error::Error>> {
-    let num_samples = (duration * sample_rate) as usize;
-    if num_samples == 0 {
-        return Err("Duration and sample rate must produce at least one sample".into());
-    }
-
-    tracing::info!(
-        channels,
-        num_samples,
-        sample_rate,
-        duration,
-        "Generating simulated neural data"
-    );
-
-    let data = generate_neural_data(channels, num_samples, sample_rate);
-
-    let ts = MultiChannelTimeSeries::new(data.clone(), sample_rate, 0.0).map_err(|e| {
-        Box::<dyn std::error::Error>::from(format!("Failed to create time series: {e}"))
-    })?;
-
-    // Compute summary statistics.
-    let mut channel_rms = Vec::with_capacity(channels);
-    for ch in 0..channels {
-        let rms = (data[ch].iter().map(|x| x * x).sum::<f64>() / num_samples as f64).sqrt();
-        channel_rms.push(rms);
-    }
-    let mean_rms = channel_rms.iter().sum::<f64>() / channels as f64;
-
-    println!("=== rUv Neural — Simulation Complete ===");
-    println!();
-    println!("  Channels:      {channels}");
-    println!("  Samples:       {num_samples}");
-    println!("  Duration:      {duration:.2} s");
-    println!("  Sample rate:   {sample_rate:.1} Hz");
-    println!("  Mean RMS:      {mean_rms:.4} fT");
-    println!();
-
-    // Show frequency content summary.
-    println!("  Frequency content:");
-    println!("    Alpha (8-13 Hz):   10 Hz sinusoid, 50 fT amplitude");
-    println!("    Beta  (13-30 Hz):  20 Hz sinusoid, 30 fT amplitude");
-    println!("    Gamma (30-100 Hz): 40 Hz sinusoid, 15 fT amplitude");
-    println!("    Noise floor:       ~10 fT/sqrt(Hz) white noise");
-    println!();
-
-    match output {
-        Some(ref path) => {
-            let json = serde_json::to_string_pretty(&ts)?;
-            fs::write(path, json)?;
-            println!("  Output written to: {path}");
-        }
-        None => {
-            println!("  (Use -o <file> to save output to JSON)");
-        }
-    }
-
-    Ok(())
-}
-
-/// Generate synthetic neural data with realistic oscillations and noise.
-fn generate_neural_data(channels: usize, num_samples: usize, sample_rate: f64) -> Vec<Vec<f64>> {
-    // Use a deterministic seed based on channel index for reproducibility.
-    let mut data = Vec::with_capacity(channels);
-
-    for ch in 0..channels {
-        let mut channel_data = Vec::with_capacity(num_samples);
-        // Phase offsets vary by channel to simulate spatial diversity.
-        let phase_offset = (ch as f64) * PI / (channels as f64);
-
-        // Simple LCG for deterministic pseudo-random noise per channel.
-        let mut rng_state: u64 = (ch as u64).wrapping_mul(6364136223846793005).wrapping_add(1);
-
-        for i in 0..num_samples {
-            let t = i as f64 / sample_rate;
-
-            // Alpha rhythm: 10 Hz, 50 fT
-            let alpha = 50.0 * (2.0 * PI * 10.0 * t + phase_offset).sin();
-
-            // Beta rhythm: 20 Hz, 30 fT
-            let beta = 30.0 * (2.0 * PI * 20.0 * t + phase_offset * 1.3).sin();
-
-            // Gamma rhythm: 40 Hz, 15 fT
-            let gamma = 15.0 * (2.0 * PI * 40.0 * t + phase_offset * 0.7).sin();
-
-            // White noise (~10 fT/sqrt(Hz) density).
-            // Approximate Gaussian via Box-Muller with LCG.
-            rng_state = rng_state.wrapping_mul(6364136223846793005).wrapping_add(1442695040888963407);
-            let u1 = (rng_state >> 11) as f64 / (1u64 << 53) as f64;
-            rng_state = rng_state.wrapping_mul(6364136223846793005).wrapping_add(1442695040888963407);
-            let u2 = (rng_state >> 11) as f64 / (1u64 << 53) as f64;
-
-            let noise_amplitude = 10.0 * (sample_rate / 2.0).sqrt();
-            let gaussian = if u1 > 1e-15 {
-                (-2.0 * u1.ln()).sqrt() * (2.0 * PI * u2).cos()
-            } else {
-                0.0
-            };
-            let noise = noise_amplitude * gaussian / (num_samples as f64).sqrt() * 0.1;
-
-            channel_data.push(alpha + beta + gamma + noise);
-        }
-
-        data.push(channel_data);
-    }
-
-    data
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-
-    #[test]
-    fn generate_correct_shape() {
-        let data = generate_neural_data(8, 500, 1000.0);
-        assert_eq!(data.len(), 8);
-        for ch in &data {
-            assert_eq!(ch.len(), 500);
-        }
-    }
-
-    #[test]
-    fn simulate_produces_output() {
-        let result = run(4, 1.0, 500.0, None);
-        assert!(result.is_ok());
-    }
-
-    #[test]
-    fn simulate_writes_json() {
-        let dir = std::env::temp_dir();
-        let path = dir.join("ruv_neural_test_sim.json");
-        let path_str = path.to_string_lossy().to_string();
-        let result = run(2, 0.5, 250.0, Some(path_str.clone()));
-        assert!(result.is_ok());
-        assert!(path.exists());
-        let contents = std::fs::read_to_string(&path).unwrap();
-        let _ts: MultiChannelTimeSeries = serde_json::from_str(&contents).unwrap();
-        std::fs::remove_file(&path).ok();
-    }
-}

v2/crates/ruv-neural/ruv-neural-cli/src/commands/witness.rs

@@ -1,91 +0,0 @@
-//! Generate and verify Ed25519-signed capability witness bundles.
-
-use ruv_neural_core::witness::{attest_capabilities, WitnessBundle};
-use std::path::PathBuf;
-
-/// Run the witness command.
-pub fn run(
-    output: Option<PathBuf>,
-    verify: Option<PathBuf>,
-) -> Result<(), Box<dyn std::error::Error>> {
-    if let Some(path) = verify {
-        // Verify mode
-        let json = std::fs::read_to_string(&path)?;
-        let bundle: WitnessBundle = serde_json::from_str(&json)?;
-
-        println!("=== rUv Neural \u{2014} Witness Verification ===\n");
-        println!("  Version:   {}", bundle.version);
-        println!("  Commit:    {}", bundle.commit);
-        println!(
-            "  Tests:     {}/{} passed",
-            bundle.tests_passed, bundle.total_tests
-        );
-        println!("  Caps:      {} attestations", bundle.capabilities.len());
-        println!(
-            "  Public Key: {}...{}",
-            &bundle.public_key[..8],
-            &bundle.public_key[bundle.public_key.len() - 8..]
-        );
-        println!();
-
-        // Verify digest
-        let digest_ok = bundle.verify_digest();
-        println!(
-            "  Digest integrity: {}",
-            if digest_ok { "PASS" } else { "FAIL" }
-        );
-
-        // Verify signature
-        match bundle.verify() {
-            Ok(true) => println!("  Ed25519 signature: PASS"),
-            Ok(false) => println!("  Ed25519 signature: FAIL"),
-            Err(e) => println!("  Ed25519 signature: ERROR ({e})"),
-        }
-
-        let verdict = match bundle.verify_full() {
-            Ok(true) => "PASS",
-            _ => "FAIL",
-        };
-        println!("\n  VERDICT: {verdict}");
-
-        if verdict == "FAIL" {
-            std::process::exit(1);
-        }
-    } else {
-        // Generate mode
-        let caps = attest_capabilities();
-        let bundle = WitnessBundle::new(
-            env!("CARGO_PKG_VERSION"),
-            "0.1.0",
-            333,
-            333,
-            0,
-            caps,
-        );
-
-        let json = serde_json::to_string_pretty(&bundle)?;
-
-        if let Some(path) = output {
-            std::fs::write(&path, &json)?;
-            println!("Witness bundle written to {}", path.display());
-        } else {
-            println!("{json}");
-        }
-
-        println!("\n  Attestations: {}", bundle.capabilities.len());
-        println!("  Digest: {}", bundle.capabilities_digest);
-        println!(
-            "  Signature: {}...{}",
-            &bundle.signature[..16],
-            &bundle.signature[bundle.signature.len() - 16..]
-        );
-        println!(
-            "  Public Key: {}...{}",
-            &bundle.public_key[..8],
-            &bundle.public_key[bundle.public_key.len() - 8..]
-        );
-        println!("\n  VERDICT: SIGNED");
-    }
-
-    Ok(())
-}

v2/crates/ruv-neural/ruv-neural-cli/src/main.rs

@@ -1,301 +0,0 @@
-//! rUv Neural CLI — Brain topology analysis, simulation, and visualization.
-
-mod commands;
-
-use clap::{Parser, Subcommand};
-
-#[derive(Parser)]
-#[command(name = "ruv-neural")]
-#[command(about = "rUv Neural — Brain Topology Analysis System")]
-#[command(version)]
-struct Cli {
-    #[command(subcommand)]
-    command: Commands,
-
-    /// Verbosity level
-    #[arg(short, long, action = clap::ArgAction::Count)]
-    verbose: u8,
-}
-
-#[derive(Subcommand)]
-enum Commands {
-    /// Simulate neural sensor data
-    Simulate {
-        /// Number of channels
-        #[arg(short, long, default_value = "64")]
-        channels: usize,
-        /// Duration in seconds
-        #[arg(short, long, default_value = "10.0")]
-        duration: f64,
-        /// Sample rate in Hz
-        #[arg(short, long, default_value = "1000.0")]
-        sample_rate: f64,
-        /// Output file (JSON)
-        #[arg(short, long)]
-        output: Option<String>,
-    },
-    /// Analyze a brain connectivity graph
-    Analyze {
-        /// Input graph file (JSON)
-        #[arg(short, long)]
-        input: String,
-        /// Show ASCII visualization
-        #[arg(long)]
-        ascii: bool,
-        /// Export metrics to CSV
-        #[arg(long)]
-        csv: Option<String>,
-    },
-    /// Compute minimum cut on brain graph
-    Mincut {
-        /// Input graph file (JSON)
-        #[arg(short, long)]
-        input: String,
-        /// Multi-way cut with k partitions
-        #[arg(short, long)]
-        k: Option<usize>,
-    },
-    /// Run full pipeline: simulate -> process -> analyze -> decode
-    Pipeline {
-        /// Number of channels
-        #[arg(short, long, default_value = "32")]
-        channels: usize,
-        /// Duration in seconds
-        #[arg(short, long, default_value = "5.0")]
-        duration: f64,
-        /// Show real-time ASCII dashboard
-        #[arg(long)]
-        dashboard: bool,
-    },
-    /// Export brain graph to visualization format
-    Export {
-        /// Input graph file (JSON)
-        #[arg(short, long)]
-        input: String,
-        /// Output format: d3, dot, gexf, csv, rvf
-        #[arg(short, long, default_value = "d3")]
-        format: String,
-        /// Output file
-        #[arg(short, long)]
-        output: String,
-    },
-    /// Show system info and capabilities
-    Info,
-    /// Generate or verify Ed25519-signed capability witness bundles
-    Witness {
-        /// Output file path for generated witness bundle (JSON)
-        #[arg(short, long)]
-        output: Option<String>,
-        /// Path to a witness bundle to verify
-        #[arg(long)]
-        verify: Option<String>,
-    },
-}
-
-fn init_tracing(verbose: u8) {
-    let level = match verbose {
-        0 => tracing::Level::WARN,
-        1 => tracing::Level::INFO,
-        2 => tracing::Level::DEBUG,
-        _ => tracing::Level::TRACE,
-    };
-    tracing_subscriber::fmt()
-        .with_max_level(level)
-        .with_target(false)
-        .init();
-}
-
-#[tokio::main]
-async fn main() {
-    let cli = Cli::parse();
-    init_tracing(cli.verbose);
-
-    let result = match cli.command {
-        Commands::Simulate {
-            channels,
-            duration,
-            sample_rate,
-            output,
-        } => commands::simulate::run(channels, duration, sample_rate, output),
-        Commands::Analyze { input, ascii, csv } => commands::analyze::run(&input, ascii, csv),
-        Commands::Mincut { input, k } => commands::mincut::run(&input, k),
-        Commands::Pipeline {
-            channels,
-            duration,
-            dashboard,
-        } => commands::pipeline::run(channels, duration, dashboard),
-        Commands::Export {
-            input,
-            format,
-            output,
-        } => commands::export::run(&input, &format, &output),
-        Commands::Info => {
-            commands::info::run();
-            Ok(())
-        }
-        Commands::Witness { output, verify } => {
-            commands::witness::run(
-                output.map(std::path::PathBuf::from),
-                verify.map(std::path::PathBuf::from),
-            )
-        }
-    };
-
-    if let Err(e) = result {
-        eprintln!("Error: {e}");
-        std::process::exit(1);
-    }
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-    use clap::CommandFactory;
-
-    #[test]
-    fn verify_cli() {
-        Cli::command().debug_assert();
-    }
-
-    #[test]
-    fn parse_simulate_defaults() {
-        let cli = Cli::try_parse_from(["ruv-neural", "simulate"]).unwrap();
-        match cli.command {
-            Commands::Simulate {
-                channels,
-                duration,
-                sample_rate,
-                output,
-            } => {
-                assert_eq!(channels, 64);
-                assert!((duration - 10.0).abs() < 1e-9);
-                assert!((sample_rate - 1000.0).abs() < 1e-9);
-                assert!(output.is_none());
-            }
-            _ => panic!("Expected Simulate command"),
-        }
-    }
-
-    #[test]
-    fn parse_simulate_with_args() {
-        let cli = Cli::try_parse_from([
-            "ruv-neural",
-            "simulate",
-            "-c",
-            "32",
-            "-d",
-            "5.0",
-            "-s",
-            "500.0",
-            "-o",
-            "out.json",
-        ])
-        .unwrap();
-        match cli.command {
-            Commands::Simulate {
-                channels,
-                duration,
-                sample_rate,
-                output,
-            } => {
-                assert_eq!(channels, 32);
-                assert!((duration - 5.0).abs() < 1e-9);
-                assert!((sample_rate - 500.0).abs() < 1e-9);
-                assert_eq!(output.as_deref(), Some("out.json"));
-            }
-            _ => panic!("Expected Simulate command"),
-        }
-    }
-
-    #[test]
-    fn parse_analyze() {
-        let cli =
-            Cli::try_parse_from(["ruv-neural", "analyze", "-i", "graph.json", "--ascii"]).unwrap();
-        match cli.command {
-            Commands::Analyze { input, ascii, csv } => {
-                assert_eq!(input, "graph.json");
-                assert!(ascii);
-                assert!(csv.is_none());
-            }
-            _ => panic!("Expected Analyze command"),
-        }
-    }
-
-    #[test]
-    fn parse_mincut() {
-        let cli = Cli::try_parse_from(["ruv-neural", "mincut", "-i", "graph.json", "-k", "4"])
-            .unwrap();
-        match cli.command {
-            Commands::Mincut { input, k } => {
-                assert_eq!(input, "graph.json");
-                assert_eq!(k, Some(4));
-            }
-            _ => panic!("Expected Mincut command"),
-        }
-    }
-
-    #[test]
-    fn parse_pipeline() {
-        let cli = Cli::try_parse_from([
-            "ruv-neural",
-            "pipeline",
-            "-c",
-            "16",
-            "-d",
-            "3.0",
-            "--dashboard",
-        ])
-        .unwrap();
-        match cli.command {
-            Commands::Pipeline {
-                channels,
-                duration,
-                dashboard,
-            } => {
-                assert_eq!(channels, 16);
-                assert!((duration - 3.0).abs() < 1e-9);
-                assert!(dashboard);
-            }
-            _ => panic!("Expected Pipeline command"),
-        }
-    }
-
-    #[test]
-    fn parse_export() {
-        let cli = Cli::try_parse_from([
-            "ruv-neural",
-            "export",
-            "-i",
-            "graph.json",
-            "-f",
-            "dot",
-            "-o",
-            "out.dot",
-        ])
-        .unwrap();
-        match cli.command {
-            Commands::Export {
-                input,
-                format,
-                output,
-            } => {
-                assert_eq!(input, "graph.json");
-                assert_eq!(format, "dot");
-                assert_eq!(output, "out.dot");
-            }
-            _ => panic!("Expected Export command"),
-        }
-    }
-
-    #[test]
-    fn parse_info() {
-        let cli = Cli::try_parse_from(["ruv-neural", "info"]).unwrap();
-        assert!(matches!(cli.command, Commands::Info));
-    }
-
-    #[test]
-    fn parse_verbose() {
-        let cli = Cli::try_parse_from(["ruv-neural", "-vvv", "info"]).unwrap();
-        assert_eq!(cli.verbose, 3);
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/Cargo.toml

@@ -1,25 +0,0 @@
-[package]
-name = "ruv-neural-core"
-description = "rUv Neural — Core types, traits, and error types for brain topology analysis"
-version.workspace = true
-edition.workspace = true
-authors.workspace = true
-license.workspace = true
-repository.workspace = true
-keywords = ["neural", "brain", "topology", "types", "core"]
-
-[features]
-default = ["std"]
-std = []
-no_std = []  # For ESP32/embedded targets
-wasm = []    # For WASM targets
-rvf = []     # RuVector RVF format support
-
-[dependencies]
-thiserror = { workspace = true }
-serde = { workspace = true }
-serde_json = { workspace = true }
-num-traits = { workspace = true }
-ed25519-dalek = { workspace = true }
-sha2 = { workspace = true }
-rand = { workspace = true }

v2/crates/ruv-neural/ruv-neural-core/README.md

@@ -1,102 +0,0 @@
-# ruv-neural-core
-
-Core types, traits, and error types for the rUv Neural brain topology analysis system.
-
-## Overview
-
-`ruv-neural-core` is the foundation crate of the rUv Neural workspace. It defines all
-shared data types, trait interfaces, and the RVF binary file format used across the
-other eleven crates. This crate has **zero** internal dependencies -- every other
-ruv-neural crate depends on it.
-
-## Features
-
-- **Sensor types**: `SensorType`, `SensorChannel`, `SensorArray` with sensitivity specs
-  for NV diamond, OPM, SQUID MEG, and EEG sensors
-- **Signal types**: `MultiChannelTimeSeries`, `FrequencyBand` (delta through gamma + custom),
-  `SpectralFeatures`, `TimeFrequencyMap`
-- **Brain atlas**: `Atlas` (Desikan-Killiany 68, Destrieux 148, Schaefer 100/200/400, custom),
-  `BrainRegion`, `Parcellation` with hemisphere and lobe queries
-- **Graph types**: `BrainGraph` with adjacency matrix, density, and degree methods;
-  `BrainEdge`, `ConnectivityMetric`, `BrainGraphSequence`
-- **Topology types**: `MincutResult`, `MultiPartition`, `TopologyMetrics`, `CognitiveState`,
-  `SleepStage`
-- **Embedding types**: `NeuralEmbedding` with cosine similarity and Euclidean distance,
-  `EmbeddingTrajectory`, `EmbeddingMetadata`
-- **RVF format**: Binary RuVector File format with magic bytes, versioned headers,
-  typed payloads, and read/write round-trip support
-- **Trait definitions**: `SensorSource`, `SignalProcessor`, `GraphConstructor`,
-  `TopologyAnalyzer`, `EmbeddingGenerator`, `NeuralMemory`, `StateDecoder`,
-  `RvfSerializable`
-- **Error handling**: `RuvNeuralError` enum with `DimensionMismatch`, `ChannelOutOfRange`,
-  `InsufficientData`, and domain-specific variants
-- **Feature flags**: `std` (default), `no_std` (ESP32/embedded), `wasm`, `rvf`
-
-## Usage
-
-```rust
-use ruv_neural_core::{
-    BrainGraph, BrainEdge, ConnectivityMetric, FrequencyBand, Atlas,
-    NeuralEmbedding, EmbeddingMetadata, CognitiveState,
-    MultiChannelTimeSeries, RvfFile, RvfDataType,
-};
-
-// Create a brain graph
-let graph = BrainGraph {
-    num_nodes: 3,
-    edges: vec![BrainEdge {
-        source: 0, target: 1, weight: 0.8,
-        metric: ConnectivityMetric::PhaseLockingValue,
-        frequency_band: FrequencyBand::Alpha,
-    }],
-    timestamp: 0.0,
-    window_duration_s: 1.0,
-    atlas: Atlas::DesikanKilliany68,
-};
-let matrix = graph.adjacency_matrix();
-let density = graph.density();
-
-// Create a neural embedding
-let meta = EmbeddingMetadata {
-    subject_id: Some("sub-01".into()),
-    session_id: None,
-    cognitive_state: Some(CognitiveState::Focused),
-    source_atlas: Atlas::Schaefer100,
-    embedding_method: "spectral".into(),
-};
-let emb = NeuralEmbedding::new(vec![3.0, 4.0], 1000.0, meta).unwrap();
-assert_eq!(emb.dimension, 2);
-assert!((emb.norm() - 5.0).abs() < 1e-10);
-
-// Write/read RVF files
-let mut rvf = RvfFile::new(RvfDataType::BrainGraph);
-rvf.data = serde_json::to_vec(&graph).unwrap();
-let mut buf = Vec::new();
-rvf.write_to(&mut buf).unwrap();
-```
-
-## API Reference
-
-| Module      | Key Types                                                      |
-|-------------|----------------------------------------------------------------|
-| `sensor`    | `SensorType`, `SensorChannel`, `SensorArray`                   |
-| `signal`    | `MultiChannelTimeSeries`, `FrequencyBand`, `SpectralFeatures`  |
-| `brain`     | `Atlas`, `BrainRegion`, `Parcellation`, `Hemisphere`, `Lobe`   |
-| `graph`     | `BrainGraph`, `BrainEdge`, `ConnectivityMetric`                |
-| `topology`  | `MincutResult`, `TopologyMetrics`, `CognitiveState`            |
-| `embedding` | `NeuralEmbedding`, `EmbeddingTrajectory`, `EmbeddingMetadata`  |
-| `rvf`       | `RvfFile`, `RvfHeader`, `RvfDataType`                          |
-| `traits`    | `SensorSource`, `SignalProcessor`, `EmbeddingGenerator`, etc.  |
-| `error`     | `RuvNeuralError`, `Result<T>`                                  |
-
-## Integration
-
-This crate is a dependency of every other crate in the ruv-neural workspace.
-It provides the shared type vocabulary that allows crates to interoperate --
-for example, `ruv-neural-signal` produces `MultiChannelTimeSeries` values,
-`ruv-neural-graph` consumes them, and `ruv-neural-embed` outputs
-`NeuralEmbedding` values that `ruv-neural-memory` stores.
-
-## License
-
-MIT OR Apache-2.0

v2/crates/ruv-neural/ruv-neural-core/src/brain.rs

@@ -1,103 +0,0 @@
-//! Brain region and atlas types for parcellation.
-
-use serde::{Deserialize, Serialize};
-
-/// Brain atlas defining a parcellation scheme.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum Atlas {
-    /// Desikan-Killiany atlas (68 cortical regions).
-    DesikanKilliany68,
-    /// Destrieux atlas (148 cortical regions).
-    Destrieux148,
-    /// Schaefer 100-parcel atlas.
-    Schaefer100,
-    /// Schaefer 200-parcel atlas.
-    Schaefer200,
-    /// Schaefer 400-parcel atlas.
-    Schaefer400,
-    /// Custom atlas with a specified number of regions.
-    Custom(usize),
-}
-
-impl Atlas {
-    /// Number of regions in this atlas.
-    pub fn num_regions(&self) -> usize {
-        match self {
-            Atlas::DesikanKilliany68 => 68,
-            Atlas::Destrieux148 => 148,
-            Atlas::Schaefer100 => 100,
-            Atlas::Schaefer200 => 200,
-            Atlas::Schaefer400 => 400,
-            Atlas::Custom(n) => *n,
-        }
-    }
-}
-
-/// Cerebral hemisphere.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum Hemisphere {
-    Left,
-    Right,
-    Midline,
-}
-
-/// Brain lobe classification.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum Lobe {
-    Frontal,
-    Parietal,
-    Temporal,
-    Occipital,
-    Limbic,
-    Subcortical,
-    Cerebellar,
-}
-
-/// A single brain region (parcel) within an atlas.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct BrainRegion {
-    /// Region index within the atlas.
-    pub id: usize,
-    /// Human-readable name (e.g., "superiorfrontal").
-    pub name: String,
-    /// Hemisphere.
-    pub hemisphere: Hemisphere,
-    /// Lobe classification.
-    pub lobe: Lobe,
-    /// Centroid in MNI coordinates (x, y, z in mm).
-    pub centroid: [f64; 3],
-}
-
-/// A full brain parcellation (atlas + all regions).
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct Parcellation {
-    /// Atlas used.
-    pub atlas: Atlas,
-    /// All regions in the parcellation.
-    pub regions: Vec<BrainRegion>,
-}
-
-impl Parcellation {
-    /// Number of regions.
-    pub fn num_regions(&self) -> usize {
-        self.regions.len()
-    }
-
-    /// Get a region by its id.
-    pub fn get_region(&self, id: usize) -> Option<&BrainRegion> {
-        self.regions.iter().find(|r| r.id == id)
-    }
-
-    /// Get all regions in a given hemisphere.
-    pub fn regions_in_hemisphere(&self, hemisphere: Hemisphere) -> Vec<&BrainRegion> {
-        self.regions
-            .iter()
-            .filter(|r| r.hemisphere == hemisphere)
-            .collect()
-    }
-
-    /// Get all regions in a given lobe.
-    pub fn regions_in_lobe(&self, lobe: Lobe) -> Vec<&BrainRegion> {
-        self.regions.iter().filter(|r| r.lobe == lobe).collect()
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/embedding.rs

@@ -1,126 +0,0 @@
-//! Vector embedding types for neural state representations.
-
-use serde::{Deserialize, Serialize};
-
-use crate::brain::Atlas;
-use crate::error::{Result, RuvNeuralError};
-use crate::topology::CognitiveState;
-
-/// Neural state embedding vector.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct NeuralEmbedding {
-    /// The embedding vector.
-    pub vector: Vec<f64>,
-    /// Dimensionality of the embedding.
-    pub dimension: usize,
-    /// Timestamp (Unix time).
-    pub timestamp: f64,
-    /// Associated metadata.
-    pub metadata: EmbeddingMetadata,
-}
-
-impl NeuralEmbedding {
-    /// Create a new embedding, validating dimension consistency.
-    pub fn new(vector: Vec<f64>, timestamp: f64, metadata: EmbeddingMetadata) -> Result<Self> {
-        let dimension = vector.len();
-        if dimension == 0 {
-            return Err(RuvNeuralError::Embedding(
-                "Embedding vector must not be empty".into(),
-            ));
-        }
-        Ok(Self {
-            vector,
-            dimension,
-            timestamp,
-            metadata,
-        })
-    }
-
-    /// L2 norm of the embedding vector.
-    pub fn norm(&self) -> f64 {
-        self.vector.iter().map(|x| x * x).sum::<f64>().sqrt()
-    }
-
-    /// Cosine similarity to another embedding.
-    pub fn cosine_similarity(&self, other: &NeuralEmbedding) -> Result<f64> {
-        if self.dimension != other.dimension {
-            return Err(RuvNeuralError::DimensionMismatch {
-                expected: self.dimension,
-                got: other.dimension,
-            });
-        }
-        let dot: f64 = self
-            .vector
-            .iter()
-            .zip(other.vector.iter())
-            .map(|(a, b)| a * b)
-            .sum();
-        let norm_a = self.norm();
-        let norm_b = other.norm();
-        if norm_a == 0.0 || norm_b == 0.0 {
-            return Ok(0.0);
-        }
-        Ok(dot / (norm_a * norm_b))
-    }
-
-    /// Euclidean distance to another embedding.
-    pub fn euclidean_distance(&self, other: &NeuralEmbedding) -> Result<f64> {
-        if self.dimension != other.dimension {
-            return Err(RuvNeuralError::DimensionMismatch {
-                expected: self.dimension,
-                got: other.dimension,
-            });
-        }
-        let sum_sq: f64 = self
-            .vector
-            .iter()
-            .zip(other.vector.iter())
-            .map(|(a, b)| (a - b) * (a - b))
-            .sum();
-        Ok(sum_sq.sqrt())
-    }
-}
-
-/// Metadata associated with a neural embedding.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct EmbeddingMetadata {
-    /// Subject identifier.
-    pub subject_id: Option<String>,
-    /// Session identifier.
-    pub session_id: Option<String>,
-    /// Decoded cognitive state (if available).
-    pub cognitive_state: Option<CognitiveState>,
-    /// Atlas used for the source graph.
-    pub source_atlas: Atlas,
-    /// Name of the embedding method (e.g., "spectral", "node2vec").
-    pub embedding_method: String,
-}
-
-/// Temporal sequence of embeddings (trajectory through embedding space).
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct EmbeddingTrajectory {
-    /// Ordered sequence of embeddings.
-    pub embeddings: Vec<NeuralEmbedding>,
-    /// Timestamps for each embedding.
-    pub timestamps: Vec<f64>,
-}
-
-impl EmbeddingTrajectory {
-    /// Number of time points.
-    pub fn len(&self) -> usize {
-        self.embeddings.len()
-    }
-
-    /// Returns true if the trajectory is empty.
-    pub fn is_empty(&self) -> bool {
-        self.embeddings.is_empty()
-    }
-
-    /// Total duration in seconds.
-    pub fn duration_s(&self) -> f64 {
-        if self.timestamps.len() < 2 {
-            return 0.0;
-        }
-        self.timestamps.last().unwrap() - self.timestamps.first().unwrap()
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/error.rs

@@ -1,46 +0,0 @@
-//! Error types for the ruv-neural pipeline.
-
-use thiserror::Error;
-
-/// Top-level error type for the ruv-neural system.
-#[derive(Error, Debug)]
-pub enum RuvNeuralError {
-    #[error("Sensor error: {0}")]
-    Sensor(String),
-
-    #[error("Signal processing error: {0}")]
-    Signal(String),
-
-    #[error("Graph construction error: {0}")]
-    Graph(String),
-
-    #[error("Mincut computation error: {0}")]
-    Mincut(String),
-
-    #[error("Embedding error: {0}")]
-    Embedding(String),
-
-    #[error("Memory error: {0}")]
-    Memory(String),
-
-    #[error("Decoder error: {0}")]
-    Decoder(String),
-
-    #[error("Serialization error: {0}")]
-    Serialization(String),
-
-    #[error("Invalid configuration: {0}")]
-    Config(String),
-
-    #[error("Dimension mismatch: expected {expected}, got {got}")]
-    DimensionMismatch { expected: usize, got: usize },
-
-    #[error("Channel {channel} out of range (max {max})")]
-    ChannelOutOfRange { channel: usize, max: usize },
-
-    #[error("Insufficient data: need {needed} samples, have {have}")]
-    InsufficientData { needed: usize, have: usize },
-}
-
-/// Convenience result type for the ruv-neural system.
-pub type Result<T> = std::result::Result<T, RuvNeuralError>;

v2/crates/ruv-neural/ruv-neural-core/src/graph.rs

@@ -1,171 +0,0 @@
-//! Brain connectivity graph types.
-
-use serde::{Deserialize, Serialize};
-
-use crate::brain::Atlas;
-use crate::error::{Result, RuvNeuralError};
-use crate::signal::FrequencyBand;
-
-/// Connectivity metric used to compute edge weights.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum ConnectivityMetric {
-    /// Phase locking value.
-    PhaseLockingValue,
-    /// Amplitude envelope correlation.
-    AmplitudeEnvelopeCorrelation,
-    /// Weighted phase lag index.
-    WeightedPhaseLagIndex,
-    /// Coherence.
-    Coherence,
-    /// Granger causality.
-    GrangerCausality,
-    /// Transfer entropy.
-    TransferEntropy,
-    /// Mutual information.
-    MutualInformation,
-}
-
-/// An edge in the brain connectivity graph.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct BrainEdge {
-    /// Source node index.
-    pub source: usize,
-    /// Target node index.
-    pub target: usize,
-    /// Edge weight (connectivity strength).
-    pub weight: f64,
-    /// Metric used to compute this edge.
-    pub metric: ConnectivityMetric,
-    /// Frequency band for this connectivity estimate.
-    pub frequency_band: FrequencyBand,
-}
-
-/// Brain connectivity graph at a single time window.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct BrainGraph {
-    /// Number of nodes (brain regions).
-    pub num_nodes: usize,
-    /// Edges with connectivity weights.
-    pub edges: Vec<BrainEdge>,
-    /// Timestamp of this graph window (Unix time).
-    pub timestamp: f64,
-    /// Duration of the analysis window in seconds.
-    pub window_duration_s: f64,
-    /// Atlas used for parcellation.
-    pub atlas: Atlas,
-}
-
-impl BrainGraph {
-    /// Validate graph integrity: edge bounds, weight finiteness, no self-loops.
-    pub fn validate(&self) -> Result<()> {
-        for (i, edge) in self.edges.iter().enumerate() {
-            if edge.source >= self.num_nodes {
-                return Err(RuvNeuralError::Graph(format!(
-                    "Edge {i}: source {} out of bounds (num_nodes={})",
-                    edge.source, self.num_nodes
-                )));
-            }
-            if edge.target >= self.num_nodes {
-                return Err(RuvNeuralError::Graph(format!(
-                    "Edge {i}: target {} out of bounds (num_nodes={})",
-                    edge.target, self.num_nodes
-                )));
-            }
-            if edge.source == edge.target {
-                return Err(RuvNeuralError::Graph(format!(
-                    "Edge {i}: self-loop on node {}",
-                    edge.source
-                )));
-            }
-            if !edge.weight.is_finite() {
-                return Err(RuvNeuralError::Graph(format!(
-                    "Edge {i}: non-finite weight {}",
-                    edge.weight
-                )));
-            }
-        }
-        Ok(())
-    }
-
-    /// Build a dense adjacency matrix (num_nodes x num_nodes).
-    /// For duplicate edges, the last one wins.
-    pub fn adjacency_matrix(&self) -> Vec<Vec<f64>> {
-        let n = self.num_nodes;
-        let mut mat = vec![vec![0.0; n]; n];
-        for edge in &self.edges {
-            if edge.source < n && edge.target < n {
-                mat[edge.source][edge.target] = edge.weight;
-                mat[edge.target][edge.source] = edge.weight;
-            }
-        }
-        mat
-    }
-
-    /// Get the weight of the edge between source and target, if it exists.
-    pub fn edge_weight(&self, source: usize, target: usize) -> Option<f64> {
-        self.edges
-            .iter()
-            .find(|e| {
-                (e.source == source && e.target == target)
-                    || (e.source == target && e.target == source)
-            })
-            .map(|e| e.weight)
-    }
-
-    /// Weighted degree of a node (sum of incident edge weights).
-    pub fn node_degree(&self, node: usize) -> f64 {
-        self.edges
-            .iter()
-            .filter(|e| e.source == node || e.target == node)
-            .map(|e| e.weight)
-            .sum()
-    }
-
-    /// Graph density: ratio of actual edges to possible edges.
-    pub fn density(&self) -> f64 {
-        if self.num_nodes < 2 {
-            return 0.0;
-        }
-        let max_edges = self.num_nodes * (self.num_nodes - 1) / 2;
-        if max_edges == 0 {
-            return 0.0;
-        }
-        self.edges.len() as f64 / max_edges as f64
-    }
-
-    /// Total weight of all edges.
-    pub fn total_weight(&self) -> f64 {
-        self.edges.iter().map(|e| e.weight).sum()
-    }
-}
-
-/// Temporal sequence of brain graphs.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct BrainGraphSequence {
-    /// Ordered sequence of graphs.
-    pub graphs: Vec<BrainGraph>,
-    /// Step between successive windows in seconds.
-    pub window_step_s: f64,
-}
-
-impl BrainGraphSequence {
-    /// Number of time points.
-    pub fn len(&self) -> usize {
-        self.graphs.len()
-    }
-
-    /// Returns true if the sequence is empty.
-    pub fn is_empty(&self) -> bool {
-        self.graphs.is_empty()
-    }
-
-    /// Total duration covered by the sequence in seconds.
-    pub fn duration_s(&self) -> f64 {
-        if self.graphs.is_empty() {
-            return 0.0;
-        }
-        let first = self.graphs.first().unwrap();
-        let last = self.graphs.last().unwrap();
-        (last.timestamp - first.timestamp) + last.window_duration_s
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/lib.rs

@@ -1,646 +0,0 @@
-//! # ruv-neural-core
-//!
-//! Core types, traits, and error types for the ruv-neural brain topology
-//! analysis system.
-//!
-//! This crate is the foundation of the ruv-neural workspace. It has **zero**
-//! internal dependencies — all other ruv-neural crates depend on this one.
-//!
-//! ## Modules
-//!
-//! | Module      | Contents                                          |
-//! |-------------|---------------------------------------------------|
-//! | `error`     | `RuvNeuralError` enum, `Result<T>` alias           |
-//! | `sensor`    | `SensorType`, `SensorChannel`, `SensorArray`       |
-//! | `signal`    | `MultiChannelTimeSeries`, `FrequencyBand`, spectra |
-//! | `brain`     | `Atlas`, `BrainRegion`, `Parcellation`             |
-//! | `graph`     | `BrainGraph`, `BrainEdge`, `ConnectivityMetric`    |
-//! | `topology`  | `MincutResult`, `CognitiveState`, `TopologyMetrics`|
-//! | `embedding` | `NeuralEmbedding`, `EmbeddingTrajectory`           |
-//! | `rvf`       | RuVector File format header and I/O                |
-//! | `traits`    | Pipeline trait definitions for all crates          |
-
-pub mod brain;
-pub mod embedding;
-pub mod error;
-pub mod graph;
-pub mod rvf;
-pub mod sensor;
-pub mod signal;
-pub mod topology;
-pub mod traits;
-pub mod witness;
-
-// Re-export the most commonly used types at crate root.
-pub use brain::{Atlas, BrainRegion, Hemisphere, Lobe, Parcellation};
-pub use embedding::{EmbeddingMetadata, EmbeddingTrajectory, NeuralEmbedding};
-pub use error::{Result, RuvNeuralError};
-pub use graph::{BrainEdge, BrainGraph, BrainGraphSequence, ConnectivityMetric};
-pub use rvf::{RvfDataType, RvfFile, RvfHeader};
-pub use sensor::{SensorArray, SensorChannel, SensorType};
-pub use signal::{FrequencyBand, MultiChannelTimeSeries, SpectralFeatures, TimeFrequencyMap};
-pub use topology::{
-    CognitiveState, MincutResult, MultiPartition, SleepStage, TopologyMetrics,
-};
-pub use traits::{
-    EmbeddingGenerator, GraphConstructor, NeuralMemory, RvfSerializable, SensorSource,
-    SignalProcessor, StateDecoder, TopologyAnalyzer,
-};
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-
-    // ── Error tests ─────────────────────────────────────────────────
-
-    #[test]
-    fn error_display_formatting() {
-        let err = RuvNeuralError::Sensor("calibration failed".into());
-        assert!(err.to_string().contains("Sensor error"));
-        assert!(err.to_string().contains("calibration failed"));
-
-        let err = RuvNeuralError::DimensionMismatch {
-            expected: 68,
-            got: 100,
-        };
-        assert!(err.to_string().contains("68"));
-        assert!(err.to_string().contains("100"));
-
-        let err = RuvNeuralError::ChannelOutOfRange {
-            channel: 5,
-            max: 3,
-        };
-        assert!(err.to_string().contains("5"));
-        assert!(err.to_string().contains("3"));
-
-        let err = RuvNeuralError::InsufficientData {
-            needed: 1000,
-            have: 500,
-        };
-        assert!(err.to_string().contains("1000"));
-        assert!(err.to_string().contains("500"));
-    }
-
-    // ── Sensor tests ────────────────────────────────────────────────
-
-    #[test]
-    fn sensor_type_sensitivity() {
-        assert!(SensorType::SquidMeg.typical_sensitivity_ft_sqrt_hz() < 5.0);
-        assert!(SensorType::Eeg.typical_sensitivity_ft_sqrt_hz() > 100.0);
-    }
-
-    #[test]
-    fn sensor_array_operations() {
-        let array = SensorArray {
-            channels: vec![
-                SensorChannel {
-                    id: 0,
-                    sensor_type: SensorType::Opm,
-                    position: [0.0, 0.0, 0.1],
-                    orientation: [0.0, 0.0, 1.0],
-                    sensitivity_ft_sqrt_hz: 7.0,
-                    sample_rate_hz: 1000.0,
-                    label: "OPM-001".into(),
-                },
-                SensorChannel {
-                    id: 1,
-                    sensor_type: SensorType::Opm,
-                    position: [0.05, 0.0, 0.12],
-                    orientation: [0.0, 0.0, 1.0],
-                    sensitivity_ft_sqrt_hz: 7.0,
-                    sample_rate_hz: 1000.0,
-                    label: "OPM-002".into(),
-                },
-            ],
-            sensor_type: SensorType::Opm,
-            name: "OPM array".into(),
-        };
-
-        assert_eq!(array.num_channels(), 2);
-        assert!(!array.is_empty());
-        assert_eq!(array.get_channel(0).unwrap().label, "OPM-001");
-        assert!(array.get_channel(5).is_none());
-
-        let (min, max) = array.bounding_box().unwrap();
-        assert_eq!(min[0], 0.0);
-        assert_eq!(max[0], 0.05);
-    }
-
-    #[test]
-    fn sensor_serialize_roundtrip() {
-        let ch = SensorChannel {
-            id: 0,
-            sensor_type: SensorType::NvDiamond,
-            position: [1.0, 2.0, 3.0],
-            orientation: [0.0, 0.0, 1.0],
-            sensitivity_ft_sqrt_hz: 10.0,
-            sample_rate_hz: 2000.0,
-            label: "NV-001".into(),
-        };
-        let json = serde_json::to_string(&ch).unwrap();
-        let ch2: SensorChannel = serde_json::from_str(&json).unwrap();
-        assert_eq!(ch2.id, 0);
-        assert_eq!(ch2.sensor_type, SensorType::NvDiamond);
-    }
-
-    // ── Signal tests ────────────────────────────────────────────────
-
-    #[test]
-    fn frequency_band_ranges() {
-        assert_eq!(FrequencyBand::Delta.range_hz(), (1.0, 4.0));
-        assert_eq!(FrequencyBand::Alpha.range_hz(), (8.0, 13.0));
-        assert_eq!(FrequencyBand::Gamma.range_hz(), (30.0, 100.0));
-        assert_eq!(
-            FrequencyBand::Custom {
-                low_hz: 50.0,
-                high_hz: 70.0
-            }
-            .range_hz(),
-            (50.0, 70.0)
-        );
-    }
-
-    #[test]
-    fn frequency_band_center_and_bandwidth() {
-        assert!((FrequencyBand::Alpha.center_hz() - 10.5).abs() < 1e-10);
-        assert!((FrequencyBand::Alpha.bandwidth_hz() - 5.0).abs() < 1e-10);
-    }
-
-    #[test]
-    fn time_series_creation_valid() {
-        let data = vec![vec![1.0, 2.0, 3.0], vec![4.0, 5.0, 6.0]];
-        let ts = MultiChannelTimeSeries::new(data, 100.0, 1000.0).unwrap();
-        assert_eq!(ts.num_channels, 2);
-        assert_eq!(ts.num_samples, 3);
-        assert!((ts.duration_s() - 0.03).abs() < 1e-10);
-    }
-
-    #[test]
-    fn time_series_dimension_mismatch() {
-        let data = vec![vec![1.0, 2.0], vec![3.0]];
-        let result = MultiChannelTimeSeries::new(data, 100.0, 0.0);
-        assert!(result.is_err());
-    }
-
-    #[test]
-    fn time_series_channel_access() {
-        let data = vec![vec![10.0, 20.0], vec![30.0, 40.0]];
-        let ts = MultiChannelTimeSeries::new(data, 100.0, 0.0).unwrap();
-        assert_eq!(ts.channel(0).unwrap(), &[10.0, 20.0]);
-        assert!(ts.channel(5).is_err());
-    }
-
-    // ── Brain / Atlas tests ─────────────────────────────────────────
-
-    #[test]
-    fn atlas_region_counts() {
-        assert_eq!(Atlas::DesikanKilliany68.num_regions(), 68);
-        assert_eq!(Atlas::Destrieux148.num_regions(), 148);
-        assert_eq!(Atlas::Schaefer100.num_regions(), 100);
-        assert_eq!(Atlas::Schaefer200.num_regions(), 200);
-        assert_eq!(Atlas::Schaefer400.num_regions(), 400);
-        assert_eq!(Atlas::Custom(42).num_regions(), 42);
-    }
-
-    #[test]
-    fn parcellation_query() {
-        let parcellation = Parcellation {
-            atlas: Atlas::Custom(3),
-            regions: vec![
-                BrainRegion {
-                    id: 0,
-                    name: "left_frontal".into(),
-                    hemisphere: Hemisphere::Left,
-                    lobe: Lobe::Frontal,
-                    centroid: [-30.0, 20.0, 40.0],
-                },
-                BrainRegion {
-                    id: 1,
-                    name: "right_frontal".into(),
-                    hemisphere: Hemisphere::Right,
-                    lobe: Lobe::Frontal,
-                    centroid: [30.0, 20.0, 40.0],
-                },
-                BrainRegion {
-                    id: 2,
-                    name: "left_temporal".into(),
-                    hemisphere: Hemisphere::Left,
-                    lobe: Lobe::Temporal,
-                    centroid: [-50.0, -10.0, 0.0],
-                },
-            ],
-        };
-
-        assert_eq!(parcellation.num_regions(), 3);
-        assert_eq!(
-            parcellation.regions_in_hemisphere(Hemisphere::Left).len(),
-            2
-        );
-        assert_eq!(parcellation.regions_in_lobe(Lobe::Frontal).len(), 2);
-        assert_eq!(parcellation.regions_in_lobe(Lobe::Temporal).len(), 1);
-        assert!(parcellation.get_region(1).is_some());
-        assert!(parcellation.get_region(99).is_none());
-    }
-
-    #[test]
-    fn brain_region_serialize_roundtrip() {
-        let region = BrainRegion {
-            id: 42,
-            name: "postcentral".into(),
-            hemisphere: Hemisphere::Left,
-            lobe: Lobe::Parietal,
-            centroid: [-40.0, -25.0, 55.0],
-        };
-        let json = serde_json::to_string(&region).unwrap();
-        let r2: BrainRegion = serde_json::from_str(&json).unwrap();
-        assert_eq!(r2.id, 42);
-        assert_eq!(r2.hemisphere, Hemisphere::Left);
-    }
-
-    // ── Graph tests ─────────────────────────────────────────────────
-
-    #[test]
-    fn brain_graph_adjacency_matrix() {
-        let graph = BrainGraph {
-            num_nodes: 3,
-            edges: vec![
-                BrainEdge {
-                    source: 0,
-                    target: 1,
-                    weight: 0.8,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 1,
-                    target: 2,
-                    weight: 0.5,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Beta,
-                },
-            ],
-            timestamp: 100.0,
-            window_duration_s: 1.0,
-            atlas: Atlas::Custom(3),
-        };
-
-        let mat = graph.adjacency_matrix();
-        assert_eq!(mat.len(), 3);
-        assert!((mat[0][1] - 0.8).abs() < 1e-10);
-        assert!((mat[1][0] - 0.8).abs() < 1e-10);
-        assert!((mat[1][2] - 0.5).abs() < 1e-10);
-        assert!((mat[0][2] - 0.0).abs() < 1e-10);
-    }
-
-    #[test]
-    fn brain_graph_edge_weight_lookup() {
-        let graph = BrainGraph {
-            num_nodes: 2,
-            edges: vec![BrainEdge {
-                source: 0,
-                target: 1,
-                weight: 0.9,
-                metric: ConnectivityMetric::MutualInformation,
-                frequency_band: FrequencyBand::Gamma,
-            }],
-            timestamp: 0.0,
-            window_duration_s: 0.5,
-            atlas: Atlas::Custom(2),
-        };
-
-        assert!((graph.edge_weight(0, 1).unwrap() - 0.9).abs() < 1e-10);
-        assert!((graph.edge_weight(1, 0).unwrap() - 0.9).abs() < 1e-10);
-        assert!(graph.edge_weight(0, 0).is_none());
-    }
-
-    #[test]
-    fn brain_graph_node_degree() {
-        let graph = BrainGraph {
-            num_nodes: 3,
-            edges: vec![
-                BrainEdge {
-                    source: 0,
-                    target: 1,
-                    weight: 0.3,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 0,
-                    target: 2,
-                    weight: 0.7,
-                    metric: ConnectivityMetric::Coherence,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-            ],
-            timestamp: 0.0,
-            window_duration_s: 1.0,
-            atlas: Atlas::Custom(3),
-        };
-
-        assert!((graph.node_degree(0) - 1.0).abs() < 1e-10);
-        assert!((graph.node_degree(1) - 0.3).abs() < 1e-10);
-        assert!((graph.node_degree(2) - 0.7).abs() < 1e-10);
-    }
-
-    #[test]
-    fn brain_graph_density() {
-        let graph = BrainGraph {
-            num_nodes: 4,
-            edges: vec![
-                BrainEdge {
-                    source: 0,
-                    target: 1,
-                    weight: 1.0,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 2,
-                    target: 3,
-                    weight: 1.0,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-                BrainEdge {
-                    source: 0,
-                    target: 3,
-                    weight: 1.0,
-                    metric: ConnectivityMetric::PhaseLockingValue,
-                    frequency_band: FrequencyBand::Alpha,
-                },
-            ],
-            timestamp: 0.0,
-            window_duration_s: 1.0,
-            atlas: Atlas::Custom(4),
-        };
-
-        assert!((graph.density() - 0.5).abs() < 1e-10);
-    }
-
-    #[test]
-    fn graph_sequence_duration() {
-        let seq = BrainGraphSequence {
-            graphs: vec![
-                BrainGraph {
-                    num_nodes: 2,
-                    edges: vec![],
-                    timestamp: 0.0,
-                    window_duration_s: 1.0,
-                    atlas: Atlas::Custom(2),
-                },
-                BrainGraph {
-                    num_nodes: 2,
-                    edges: vec![],
-                    timestamp: 0.5,
-                    window_duration_s: 1.0,
-                    atlas: Atlas::Custom(2),
-                },
-                BrainGraph {
-                    num_nodes: 2,
-                    edges: vec![],
-                    timestamp: 1.0,
-                    window_duration_s: 1.0,
-                    atlas: Atlas::Custom(2),
-                },
-            ],
-            window_step_s: 0.5,
-        };
-
-        assert_eq!(seq.len(), 3);
-        assert!(!seq.is_empty());
-        assert!((seq.duration_s() - 2.0).abs() < 1e-10);
-    }
-
-    // ── Topology tests ──────────────────────────────────────────────
-
-    #[test]
-    fn mincut_result_properties() {
-        let result = MincutResult {
-            cut_value: 1.5,
-            partition_a: vec![0, 1],
-            partition_b: vec![2, 3, 4],
-            cut_edges: vec![(1, 2, 0.8), (0, 3, 0.7)],
-            timestamp: 100.0,
-        };
-
-        assert_eq!(result.num_nodes(), 5);
-        assert_eq!(result.num_cut_edges(), 2);
-        assert!((result.balance_ratio() - 2.0 / 3.0).abs() < 1e-10);
-    }
-
-    #[test]
-    fn multi_partition_properties() {
-        let mp = MultiPartition {
-            partitions: vec![vec![0, 1], vec![2, 3], vec![4]],
-            cut_value: 2.0,
-            modularity: 0.4,
-        };
-        assert_eq!(mp.num_partitions(), 3);
-        assert_eq!(mp.num_nodes(), 5);
-    }
-
-    #[test]
-    fn cognitive_state_serialize_roundtrip() {
-        let states = vec![
-            CognitiveState::Rest,
-            CognitiveState::Focused,
-            CognitiveState::Sleep(SleepStage::Rem),
-            CognitiveState::Unknown,
-        ];
-        let json = serde_json::to_string(&states).unwrap();
-        let deserialized: Vec<CognitiveState> = serde_json::from_str(&json).unwrap();
-        assert_eq!(states, deserialized);
-    }
-
-    // ── Embedding tests ─────────────────────────────────────────────
-
-    #[test]
-    fn embedding_creation_and_norm() {
-        let meta = EmbeddingMetadata {
-            subject_id: Some("sub-01".into()),
-            session_id: Some("ses-01".into()),
-            cognitive_state: Some(CognitiveState::Focused),
-            source_atlas: Atlas::Schaefer100,
-            embedding_method: "spectral".into(),
-        };
-        let emb = NeuralEmbedding::new(vec![3.0, 4.0], 1000.0, meta).unwrap();
-        assert_eq!(emb.dimension, 2);
-        assert!((emb.norm() - 5.0).abs() < 1e-10);
-    }
-
-    #[test]
-    fn embedding_cosine_similarity() {
-        let meta = || EmbeddingMetadata {
-            subject_id: None,
-            session_id: None,
-            cognitive_state: None,
-            source_atlas: Atlas::Custom(2),
-            embedding_method: "test".into(),
-        };
-
-        let a = NeuralEmbedding::new(vec![1.0, 0.0], 0.0, meta()).unwrap();
-        let b = NeuralEmbedding::new(vec![1.0, 0.0], 0.0, meta()).unwrap();
-        let c = NeuralEmbedding::new(vec![0.0, 1.0], 0.0, meta()).unwrap();
-
-        assert!((a.cosine_similarity(&b).unwrap() - 1.0).abs() < 1e-10);
-        assert!((a.cosine_similarity(&c).unwrap() - 0.0).abs() < 1e-10);
-    }
-
-    #[test]
-    fn embedding_euclidean_distance() {
-        let meta = || EmbeddingMetadata {
-            subject_id: None,
-            session_id: None,
-            cognitive_state: None,
-            source_atlas: Atlas::Custom(2),
-            embedding_method: "test".into(),
-        };
-
-        let a = NeuralEmbedding::new(vec![0.0, 0.0], 0.0, meta()).unwrap();
-        let b = NeuralEmbedding::new(vec![3.0, 4.0], 0.0, meta()).unwrap();
-        assert!((a.euclidean_distance(&b).unwrap() - 5.0).abs() < 1e-10);
-    }
-
-    #[test]
-    fn embedding_dimension_mismatch() {
-        let meta = || EmbeddingMetadata {
-            subject_id: None,
-            session_id: None,
-            cognitive_state: None,
-            source_atlas: Atlas::Custom(2),
-            embedding_method: "test".into(),
-        };
-
-        let a = NeuralEmbedding::new(vec![1.0, 2.0], 0.0, meta()).unwrap();
-        let b = NeuralEmbedding::new(vec![1.0, 2.0, 3.0], 0.0, meta()).unwrap();
-        assert!(a.cosine_similarity(&b).is_err());
-        assert!(a.euclidean_distance(&b).is_err());
-    }
-
-    #[test]
-    fn embedding_trajectory() {
-        let meta = || EmbeddingMetadata {
-            subject_id: None,
-            session_id: None,
-            cognitive_state: None,
-            source_atlas: Atlas::Custom(2),
-            embedding_method: "test".into(),
-        };
-
-        let traj = EmbeddingTrajectory {
-            embeddings: vec![
-                NeuralEmbedding::new(vec![1.0], 0.0, meta()).unwrap(),
-                NeuralEmbedding::new(vec![2.0], 1.0, meta()).unwrap(),
-                NeuralEmbedding::new(vec![3.0], 2.0, meta()).unwrap(),
-            ],
-            timestamps: vec![0.0, 1.0, 2.0],
-        };
-
-        assert_eq!(traj.len(), 3);
-        assert!(!traj.is_empty());
-        assert!((traj.duration_s() - 2.0).abs() < 1e-10);
-    }
-
-    // ── RVF tests ───────────────────────────────────────────────────
-
-    #[test]
-    fn rvf_data_type_tag_roundtrip() {
-        for dt in [
-            RvfDataType::BrainGraph,
-            RvfDataType::NeuralEmbedding,
-            RvfDataType::TopologyMetrics,
-            RvfDataType::MincutResult,
-            RvfDataType::TimeSeriesChunk,
-        ] {
-            let tag = dt.to_tag();
-            let recovered = RvfDataType::from_tag(tag).unwrap();
-            assert_eq!(dt, recovered);
-        }
-        assert!(RvfDataType::from_tag(255).is_err());
-    }
-
-    #[test]
-    fn rvf_header_encode_decode() {
-        let header = RvfHeader::new(RvfDataType::NeuralEmbedding, 42, 128);
-        let bytes = header.to_bytes();
-        assert_eq!(bytes.len(), 22);
-
-        let decoded = RvfHeader::from_bytes(&bytes).unwrap();
-        assert_eq!(decoded.magic, rvf::RVF_MAGIC);
-        assert_eq!(decoded.version, rvf::RVF_VERSION);
-        assert_eq!(decoded.data_type, RvfDataType::NeuralEmbedding);
-        assert_eq!(decoded.num_entries, 42);
-        assert_eq!(decoded.embedding_dim, 128);
-    }
-
-    #[test]
-    fn rvf_header_validation() {
-        let mut header = RvfHeader::new(RvfDataType::BrainGraph, 1, 0);
-        assert!(header.validate().is_ok());
-
-        header.magic = [0, 0, 0, 0];
-        assert!(header.validate().is_err());
-    }
-
-    #[test]
-    fn rvf_file_write_read_roundtrip() {
-        let mut file = RvfFile::new(RvfDataType::TopologyMetrics);
-        file.header.num_entries = 1;
-        file.metadata = serde_json::json!({ "subject": "sub-01" });
-        file.data = vec![1, 2, 3, 4, 5];
-
-        let mut buf = Vec::new();
-        file.write_to(&mut buf).unwrap();
-
-        let mut cursor = std::io::Cursor::new(buf);
-        let recovered = RvfFile::read_from(&mut cursor).unwrap();
-
-        assert_eq!(recovered.header.data_type, RvfDataType::TopologyMetrics);
-        assert_eq!(recovered.header.num_entries, 1);
-        assert_eq!(recovered.metadata["subject"], "sub-01");
-        assert_eq!(recovered.data, vec![1, 2, 3, 4, 5]);
-    }
-
-    // ── Serialization roundtrip tests ───────────────────────────────
-
-    #[test]
-    fn graph_serialize_roundtrip() {
-        let graph = BrainGraph {
-            num_nodes: 2,
-            edges: vec![BrainEdge {
-                source: 0,
-                target: 1,
-                weight: 0.42,
-                metric: ConnectivityMetric::TransferEntropy,
-                frequency_band: FrequencyBand::Theta,
-            }],
-            timestamp: 999.0,
-            window_duration_s: 2.0,
-            atlas: Atlas::Schaefer200,
-        };
-        let json = serde_json::to_string(&graph).unwrap();
-        let g2: BrainGraph = serde_json::from_str(&json).unwrap();
-        assert_eq!(g2.num_nodes, 2);
-        assert_eq!(g2.edges.len(), 1);
-        assert!((g2.edges[0].weight - 0.42).abs() < 1e-10);
-    }
-
-    #[test]
-    fn topology_metrics_serialize_roundtrip() {
-        let metrics = TopologyMetrics {
-            global_mincut: 3.14,
-            modularity: 0.55,
-            global_efficiency: 0.72,
-            local_efficiency: 0.68,
-            graph_entropy: 2.3,
-            fiedler_value: 0.12,
-            num_modules: 4,
-            timestamp: 500.0,
-        };
-        let json = serde_json::to_string(&metrics).unwrap();
-        let m2: TopologyMetrics = serde_json::from_str(&json).unwrap();
-        assert!((m2.global_mincut - 3.14).abs() < 1e-10);
-        assert_eq!(m2.num_modules, 4);
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/rvf.rs

@@ -1,232 +0,0 @@
-//! RuVector File (RVF) format types for serialization.
-
-use serde::{Deserialize, Serialize};
-
-use crate::error::{Result, RuvNeuralError};
-
-/// Magic bytes for the RVF file format.
-pub const RVF_MAGIC: [u8; 4] = [b'R', b'V', b'F', 0x01];
-
-/// Current RVF format version.
-pub const RVF_VERSION: u8 = 1;
-
-/// Maximum allowed metadata JSON length (16 MiB).
-pub const MAX_METADATA_LEN: u32 = 16 * 1024 * 1024;
-
-/// Maximum allowed payload length when reading (256 MiB).
-pub const MAX_PAYLOAD_LEN: usize = 256 * 1024 * 1024;
-
-/// Data type stored in an RVF file.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum RvfDataType {
-    /// Brain connectivity graph.
-    BrainGraph,
-    /// Neural embedding vector.
-    NeuralEmbedding,
-    /// Topology metrics snapshot.
-    TopologyMetrics,
-    /// Mincut result.
-    MincutResult,
-    /// Time series chunk.
-    TimeSeriesChunk,
-}
-
-impl RvfDataType {
-    /// Convert to a byte tag for binary encoding.
-    pub fn to_tag(&self) -> u8 {
-        match self {
-            RvfDataType::BrainGraph => 0,
-            RvfDataType::NeuralEmbedding => 1,
-            RvfDataType::TopologyMetrics => 2,
-            RvfDataType::MincutResult => 3,
-            RvfDataType::TimeSeriesChunk => 4,
-        }
-    }
-
-    /// Parse a byte tag back to a data type.
-    pub fn from_tag(tag: u8) -> Result<Self> {
-        match tag {
-            0 => Ok(RvfDataType::BrainGraph),
-            1 => Ok(RvfDataType::NeuralEmbedding),
-            2 => Ok(RvfDataType::TopologyMetrics),
-            3 => Ok(RvfDataType::MincutResult),
-            4 => Ok(RvfDataType::TimeSeriesChunk),
-            _ => Err(RuvNeuralError::Serialization(format!(
-                "Unknown RVF data type tag: {}",
-                tag
-            ))),
-        }
-    }
-}
-
-/// RVF file header (fixed-size, 20 bytes).
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct RvfHeader {
-    /// Magic bytes: `b"RVF\x01"`.
-    pub magic: [u8; 4],
-    /// Format version.
-    pub version: u8,
-    /// Type of data stored.
-    pub data_type: RvfDataType,
-    /// Number of entries in the file.
-    pub num_entries: u64,
-    /// Embedding dimensionality (0 if not applicable).
-    pub embedding_dim: u32,
-    /// Length of the JSON metadata section in bytes.
-    pub metadata_json_len: u32,
-}
-
-impl RvfHeader {
-    /// Create a new header with default magic and version.
-    pub fn new(data_type: RvfDataType, num_entries: u64, embedding_dim: u32) -> Self {
-        Self {
-            magic: RVF_MAGIC,
-            version: RVF_VERSION,
-            data_type,
-            num_entries,
-            embedding_dim,
-            metadata_json_len: 0,
-        }
-    }
-
-    /// Validate that this header has correct magic bytes and a known version.
-    pub fn validate(&self) -> Result<()> {
-        if self.magic != RVF_MAGIC {
-            return Err(RuvNeuralError::Serialization(
-                "Invalid RVF magic bytes".into(),
-            ));
-        }
-        if self.version != RVF_VERSION {
-            return Err(RuvNeuralError::Serialization(format!(
-                "Unsupported RVF version: {} (expected {})",
-                self.version, RVF_VERSION
-            )));
-        }
-        Ok(())
-    }
-
-    /// Encode the header to bytes (little-endian).
-    pub fn to_bytes(&self) -> Vec<u8> {
-        let mut buf = Vec::with_capacity(20);
-        buf.extend_from_slice(&self.magic);
-        buf.push(self.version);
-        buf.push(self.data_type.to_tag());
-        buf.extend_from_slice(&self.num_entries.to_le_bytes());
-        buf.extend_from_slice(&self.embedding_dim.to_le_bytes());
-        buf.extend_from_slice(&self.metadata_json_len.to_le_bytes());
-        buf
-    }
-
-    /// Decode a header from bytes.
-    pub fn from_bytes(bytes: &[u8]) -> Result<Self> {
-        if bytes.len() < 22 {
-            return Err(RuvNeuralError::Serialization(format!(
-                "RVF header too short: {} bytes (need 22)",
-                bytes.len()
-            )));
-        }
-        let mut magic = [0u8; 4];
-        magic.copy_from_slice(&bytes[0..4]);
-        let version = bytes[4];
-        let data_type = RvfDataType::from_tag(bytes[5])?;
-        let num_entries = u64::from_le_bytes(bytes[6..14].try_into().unwrap());
-        let embedding_dim = u32::from_le_bytes(bytes[14..18].try_into().unwrap());
-        let metadata_json_len = u32::from_le_bytes(bytes[18..22].try_into().unwrap());
-
-        Ok(Self {
-            magic,
-            version,
-            data_type,
-            num_entries,
-            embedding_dim,
-            metadata_json_len,
-        })
-    }
-}
-
-/// An RVF file containing header, metadata, and binary data.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct RvfFile {
-    /// File header.
-    pub header: RvfHeader,
-    /// JSON metadata.
-    pub metadata: serde_json::Value,
-    /// Raw binary payload.
-    pub data: Vec<u8>,
-}
-
-impl RvfFile {
-    /// Create a new empty RVF file for a given data type.
-    pub fn new(data_type: RvfDataType) -> Self {
-        Self {
-            header: RvfHeader::new(data_type, 0, 0),
-            metadata: serde_json::Value::Object(serde_json::Map::new()),
-            data: Vec::new(),
-        }
-    }
-
-    /// Write the RVF file to a writer.
-    pub fn write_to<W: std::io::Write>(&self, writer: &mut W) -> Result<()> {
-        let meta_bytes = serde_json::to_vec(&self.metadata)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-
-        let mut header = self.header.clone();
-        header.metadata_json_len = meta_bytes.len() as u32;
-
-        writer
-            .write_all(&header.to_bytes())
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-        writer
-            .write_all(&meta_bytes)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-        writer
-            .write_all(&self.data)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-
-        Ok(())
-    }
-
-    /// Read an RVF file from a reader.
-    pub fn read_from<R: std::io::Read>(reader: &mut R) -> Result<Self> {
-        let mut header_bytes = [0u8; 22];
-        reader
-            .read_exact(&mut header_bytes)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-
-        let header = RvfHeader::from_bytes(&header_bytes)?;
-        header.validate()?;
-
-        if header.metadata_json_len > MAX_METADATA_LEN {
-            return Err(RuvNeuralError::Serialization(format!(
-                "RVF metadata length {} exceeds maximum {}",
-                header.metadata_json_len, MAX_METADATA_LEN
-            )));
-        }
-
-        let mut meta_bytes = vec![0u8; header.metadata_json_len as usize];
-        reader
-            .read_exact(&mut meta_bytes)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-
-        let metadata: serde_json::Value = serde_json::from_slice(&meta_bytes)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-
-        let mut data = Vec::new();
-        reader
-            .read_to_end(&mut data)
-            .map_err(|e| RuvNeuralError::Serialization(e.to_string()))?;
-
-        if data.len() > MAX_PAYLOAD_LEN {
-            return Err(RuvNeuralError::Serialization(format!(
-                "RVF payload length {} exceeds maximum {}",
-                data.len(), MAX_PAYLOAD_LEN
-            )));
-        }
-
-        Ok(Self {
-            header,
-            metadata,
-            data,
-        })
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/sensor.rs

@@ -1,98 +0,0 @@
-//! Sensor types for brain signal acquisition.
-
-use serde::{Deserialize, Serialize};
-
-/// Sensor technology type.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum SensorType {
-    /// Nitrogen-vacancy diamond magnetometer.
-    NvDiamond,
-    /// Optically pumped magnetometer.
-    Opm,
-    /// Electroencephalography.
-    Eeg,
-    /// Superconducting quantum interference device MEG.
-    SquidMeg,
-    /// Atom interferometer for gravitational neural sensing.
-    AtomInterferometer,
-}
-
-impl SensorType {
-    /// Typical sensitivity in fT/sqrt(Hz) for this sensor technology.
-    pub fn typical_sensitivity_ft_sqrt_hz(&self) -> f64 {
-        match self {
-            SensorType::NvDiamond => 10.0,
-            SensorType::Opm => 7.0,
-            SensorType::Eeg => 1000.0,
-            SensorType::SquidMeg => 3.0,
-            SensorType::AtomInterferometer => 1.0,
-        }
-    }
-}
-
-/// Sensor channel metadata.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct SensorChannel {
-    /// Channel index.
-    pub id: usize,
-    /// Type of sensor.
-    pub sensor_type: SensorType,
-    /// Position in head-frame coordinates (x, y, z in meters).
-    pub position: [f64; 3],
-    /// Orientation unit normal vector.
-    pub orientation: [f64; 3],
-    /// Sensitivity in fT/sqrt(Hz).
-    pub sensitivity_ft_sqrt_hz: f64,
-    /// Sampling rate in Hz.
-    pub sample_rate_hz: f64,
-    /// Human-readable label (e.g., "Fz", "OPM-L01").
-    pub label: String,
-}
-
-/// Sensor array configuration (a collection of channels of one type).
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct SensorArray {
-    /// All channels in the array.
-    pub channels: Vec<SensorChannel>,
-    /// Sensor technology used by this array.
-    pub sensor_type: SensorType,
-    /// Human-readable name for the array.
-    pub name: String,
-}
-
-impl SensorArray {
-    /// Number of channels in the array.
-    pub fn num_channels(&self) -> usize {
-        self.channels.len()
-    }
-
-    /// Returns true if the array has no channels.
-    pub fn is_empty(&self) -> bool {
-        self.channels.is_empty()
-    }
-
-    /// Get a channel by its index within this array.
-    pub fn get_channel(&self, index: usize) -> Option<&SensorChannel> {
-        self.channels.get(index)
-    }
-
-    /// Get the bounding box of channel positions as ([min_x, min_y, min_z], [max_x, max_y, max_z]).
-    pub fn bounding_box(&self) -> Option<([f64; 3], [f64; 3])> {
-        if self.channels.is_empty() {
-            return None;
-        }
-        let mut min = [f64::INFINITY; 3];
-        let mut max = [f64::NEG_INFINITY; 3];
-        for ch in &self.channels {
-            for i in 0..3 {
-                if ch.position[i] < min[i] {
-                    min[i] = ch.position[i];
-                }
-                if ch.position[i] > max[i] {
-                    max[i] = ch.position[i];
-                }
-            }
-        }
-        Some((min, max))
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/signal.rs

@@ -1,157 +0,0 @@
-//! Time series and signal types for neural data.
-
-use serde::{Deserialize, Serialize};
-
-use crate::error::{Result, RuvNeuralError};
-
-/// Multi-channel time series data.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct MultiChannelTimeSeries {
-    /// Raw data: `data[channel][sample]`.
-    pub data: Vec<Vec<f64>>,
-    /// Sampling rate in Hz.
-    pub sample_rate_hz: f64,
-    /// Number of channels.
-    pub num_channels: usize,
-    /// Number of samples per channel.
-    pub num_samples: usize,
-    /// Unix timestamp of the first sample.
-    pub timestamp_start: f64,
-}
-
-impl MultiChannelTimeSeries {
-    /// Create a new time series, validating dimensions.
-    pub fn new(data: Vec<Vec<f64>>, sample_rate_hz: f64, timestamp_start: f64) -> Result<Self> {
-        if !sample_rate_hz.is_finite() || sample_rate_hz <= 0.0 {
-            return Err(RuvNeuralError::Signal(
-                "sample_rate_hz must be finite and positive".into(),
-            ));
-        }
-        let num_channels = data.len();
-        if num_channels == 0 {
-            return Err(RuvNeuralError::Signal(
-                "Time series must have at least one channel".into(),
-            ));
-        }
-        let num_samples = data[0].len();
-        for (i, ch) in data.iter().enumerate() {
-            if ch.len() != num_samples {
-                return Err(RuvNeuralError::DimensionMismatch {
-                    expected: num_samples,
-                    got: ch.len(),
-                });
-            }
-            let _ = i; // suppress unused warning
-        }
-        Ok(Self {
-            data,
-            sample_rate_hz,
-            num_channels,
-            num_samples,
-            timestamp_start,
-        })
-    }
-
-    /// Duration in seconds.
-    pub fn duration_s(&self) -> f64 {
-        self.num_samples as f64 / self.sample_rate_hz
-    }
-
-    /// Get a single channel's data.
-    pub fn channel(&self, index: usize) -> Result<&[f64]> {
-        if index >= self.num_channels {
-            return Err(RuvNeuralError::ChannelOutOfRange {
-                channel: index,
-                max: self.num_channels.saturating_sub(1),
-            });
-        }
-        Ok(&self.data[index])
-    }
-}
-
-/// Frequency band definition for neural oscillations.
-#[derive(Debug, Clone, Copy, PartialEq, Serialize, Deserialize)]
-pub enum FrequencyBand {
-    /// Delta: 1-4 Hz (deep sleep, unconscious processing).
-    Delta,
-    /// Theta: 4-8 Hz (memory, navigation, meditation).
-    Theta,
-    /// Alpha: 8-13 Hz (relaxation, idling, inhibition).
-    Alpha,
-    /// Beta: 13-30 Hz (active thinking, focus, motor planning).
-    Beta,
-    /// Gamma: 30-100 Hz (binding, perception, consciousness).
-    Gamma,
-    /// High gamma: 100-200 Hz (cortical processing, fine motor).
-    HighGamma,
-    /// Custom frequency range.
-    Custom {
-        /// Lower bound in Hz.
-        low_hz: f64,
-        /// Upper bound in Hz.
-        high_hz: f64,
-    },
-}
-
-impl FrequencyBand {
-    /// Returns the (low, high) frequency range in Hz.
-    pub fn range_hz(&self) -> (f64, f64) {
-        match self {
-            FrequencyBand::Delta => (1.0, 4.0),
-            FrequencyBand::Theta => (4.0, 8.0),
-            FrequencyBand::Alpha => (8.0, 13.0),
-            FrequencyBand::Beta => (13.0, 30.0),
-            FrequencyBand::Gamma => (30.0, 100.0),
-            FrequencyBand::HighGamma => (100.0, 200.0),
-            FrequencyBand::Custom { low_hz, high_hz } => (*low_hz, *high_hz),
-        }
-    }
-
-    /// Center frequency in Hz.
-    pub fn center_hz(&self) -> f64 {
-        let (lo, hi) = self.range_hz();
-        (lo + hi) / 2.0
-    }
-
-    /// Bandwidth in Hz.
-    pub fn bandwidth_hz(&self) -> f64 {
-        let (lo, hi) = self.range_hz();
-        hi - lo
-    }
-}
-
-/// Spectral features for one channel at one time window.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct SpectralFeatures {
-    /// Power in each frequency band.
-    pub band_powers: Vec<(FrequencyBand, f64)>,
-    /// Spectral entropy (measure of signal complexity).
-    pub spectral_entropy: f64,
-    /// Peak frequency in Hz.
-    pub peak_frequency_hz: f64,
-    /// Total power across all bands.
-    pub total_power: f64,
-}
-
-/// Time-frequency representation (spectrogram-like).
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct TimeFrequencyMap {
-    /// Data matrix: `data[time_window][frequency_bin]`.
-    pub data: Vec<Vec<f64>>,
-    /// Time points in seconds.
-    pub time_points: Vec<f64>,
-    /// Frequency bin centers in Hz.
-    pub frequency_bins: Vec<f64>,
-}
-
-impl TimeFrequencyMap {
-    /// Number of time windows.
-    pub fn num_time_points(&self) -> usize {
-        self.time_points.len()
-    }
-
-    /// Number of frequency bins.
-    pub fn num_frequency_bins(&self) -> usize {
-        self.frequency_bins.len()
-    }
-}

v2/crates/ruv-neural/ruv-neural-core/src/topology.rs

@@ -1,110 +0,0 @@
-//! Topology analysis result types (mincut, partition, metrics).
-
-use serde::{Deserialize, Serialize};
-
-/// Result of a minimum cut computation on a brain graph.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct MincutResult {
-    /// Value of the minimum cut.
-    pub cut_value: f64,
-    /// Node indices in partition A.
-    pub partition_a: Vec<usize>,
-    /// Node indices in partition B.
-    pub partition_b: Vec<usize>,
-    /// Cut edges: (source, target, weight).
-    pub cut_edges: Vec<(usize, usize, f64)>,
-    /// Timestamp of the source graph.
-    pub timestamp: f64,
-}
-
-impl MincutResult {
-    /// Total number of nodes across both partitions.
-    pub fn num_nodes(&self) -> usize {
-        self.partition_a.len() + self.partition_b.len()
-    }
-
-    /// Number of edges crossing the cut.
-    pub fn num_cut_edges(&self) -> usize {
-        self.cut_edges.len()
-    }
-
-    /// Balance ratio: min(|A|, |B|) / max(|A|, |B|).
-    pub fn balance_ratio(&self) -> f64 {
-        let a = self.partition_a.len() as f64;
-        let b = self.partition_b.len() as f64;
-        if a == 0.0 || b == 0.0 {
-            return 0.0;
-        }
-        a.min(b) / a.max(b)
-    }
-}
-
-/// Multi-way partition result.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct MultiPartition {
-    /// Each inner vec is a set of node indices forming one partition.
-    pub partitions: Vec<Vec<usize>>,
-    /// Total cut value.
-    pub cut_value: f64,
-    /// Newman-Girvan modularity score.
-    pub modularity: f64,
-}
-
-impl MultiPartition {
-    /// Number of partitions (modules).
-    pub fn num_partitions(&self) -> usize {
-        self.partitions.len()
-    }
-
-    /// Total number of nodes.
-    pub fn num_nodes(&self) -> usize {
-        self.partitions.iter().map(|p| p.len()).sum()
-    }
-}
-
-/// Cognitive state derived from brain topology analysis.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum CognitiveState {
-    Rest,
-    Focused,
-    MotorPlanning,
-    SpeechProcessing,
-    MemoryEncoding,
-    MemoryRetrieval,
-    Creative,
-    Stressed,
-    Fatigued,
-    Sleep(SleepStage),
-    Unknown,
-}
-
-/// Sleep stage classification.
-#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash, Serialize, Deserialize)]
-pub enum SleepStage {
-    Wake,
-    N1,
-    N2,
-    N3,
-    Rem,
-}
-
-/// Topology metrics computed from a brain graph at a single time point.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct TopologyMetrics {
-    /// Global minimum cut value.
-    pub global_mincut: f64,
-    /// Newman-Girvan modularity.
-    pub modularity: f64,
-    /// Global efficiency (inverse path length).
-    pub global_efficiency: f64,
-    /// Mean local efficiency.
-    pub local_efficiency: f64,
-    /// Graph entropy (edge weight distribution).
-    pub graph_entropy: f64,
-    /// Fiedler value (algebraic connectivity, second smallest Laplacian eigenvalue).
-    pub fiedler_value: f64,
-    /// Number of detected modules.
-    pub num_modules: usize,
-    /// Timestamp of the source graph.
-    pub timestamp: f64,
-}

v2/crates/ruv-neural/ruv-neural-core/src/traits.rs

@@ -1,93 +0,0 @@
-//! Pipeline trait definitions that downstream crates implement.
-
-use crate::embedding::NeuralEmbedding;
-use crate::error::Result;
-use crate::graph::BrainGraph;
-use crate::rvf::RvfFile;
-use crate::sensor::SensorType;
-use crate::signal::MultiChannelTimeSeries;
-use crate::topology::{CognitiveState, MincutResult, TopologyMetrics};
-
-/// Trait for sensor data sources (hardware or simulated).
-pub trait SensorSource {
-    /// The sensor technology used by this source.
-    fn sensor_type(&self) -> SensorType;
-
-    /// Number of channels available.
-    fn num_channels(&self) -> usize;
-
-    /// Sampling rate in Hz.
-    fn sample_rate_hz(&self) -> f64;
-
-    /// Read a chunk of `num_samples` from the source.
-    fn read_chunk(&mut self, num_samples: usize) -> Result<MultiChannelTimeSeries>;
-}
-
-/// Trait for signal processors (filters, artifact removal, etc.).
-pub trait SignalProcessor {
-    /// Process input time series, returning transformed output.
-    fn process(&self, input: &MultiChannelTimeSeries) -> Result<MultiChannelTimeSeries>;
-}
-
-/// Trait for graph constructors (builds connectivity graphs from signals).
-pub trait GraphConstructor {
-    /// Construct a brain graph from multi-channel time series data.
-    fn construct(&self, signals: &MultiChannelTimeSeries) -> Result<BrainGraph>;
-}
-
-/// Trait for topology analyzers (computes graph-theoretic metrics).
-pub trait TopologyAnalyzer {
-    /// Compute full topology metrics for a brain graph.
-    fn analyze(&self, graph: &BrainGraph) -> Result<TopologyMetrics>;
-
-    /// Compute the minimum cut of a brain graph.
-    fn mincut(&self, graph: &BrainGraph) -> Result<MincutResult>;
-}
-
-/// Trait for embedding generators (maps brain graphs to vector space).
-pub trait EmbeddingGenerator {
-    /// Generate an embedding vector from a brain graph.
-    fn embed(&self, graph: &BrainGraph) -> Result<NeuralEmbedding>;
-
-    /// Dimensionality of the output embedding.
-    fn embedding_dim(&self) -> usize;
-}
-
-/// Trait for state decoders (classifies cognitive state from embeddings).
-pub trait StateDecoder {
-    /// Decode the most likely cognitive state from an embedding.
-    fn decode(&self, embedding: &NeuralEmbedding) -> Result<CognitiveState>;
-
-    /// Decode with a confidence score in [0, 1].
-    fn decode_with_confidence(
-        &self,
-        embedding: &NeuralEmbedding,
-    ) -> Result<(CognitiveState, f64)>;
-}
-
-/// Trait for neural state memory (stores and queries embedding history).
-pub trait NeuralMemory {
-    /// Store an embedding in memory.
-    fn store(&mut self, embedding: &NeuralEmbedding) -> Result<()>;
-
-    /// Find the k nearest embeddings to the query.
-    fn query_nearest(
-        &self,
-        embedding: &NeuralEmbedding,
-        k: usize,
-    ) -> Result<Vec<NeuralEmbedding>>;
-
-    /// Find all stored embeddings matching a cognitive state.
-    fn query_by_state(&self, state: CognitiveState) -> Result<Vec<NeuralEmbedding>>;
-}
-
-/// Trait for RVF serialization support.
-pub trait RvfSerializable {
-    /// Serialize this value to an RVF file.
-    fn to_rvf(&self) -> Result<RvfFile>;
-
-    /// Deserialize from an RVF file.
-    fn from_rvf(file: &RvfFile) -> Result<Self>
-    where
-        Self: Sized;
-}

v2/crates/ruv-neural/ruv-neural-core/src/witness.rs

@@ -1,543 +0,0 @@
-//! Cryptographic witness attestation for capability verification.
-//!
-//! Generates Ed25519-signed proof bundles that attest to the capabilities
-//! present in this build. Third parties can verify the signature against
-//! the embedded public key to confirm that capability tests passed at
-//! build time.
-
-use serde::{Deserialize, Serialize};
-use sha2::{Digest, Sha256};
-
-/// A single capability attestation.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct CapabilityAttestation {
-    /// Crate that provides this capability.
-    pub crate_name: String,
-    /// Human-readable capability name.
-    pub capability: String,
-    /// Evidence: function or test that proves this capability.
-    pub evidence: String,
-    /// SHA-256 hash of the source file containing the evidence.
-    pub source_hash: String,
-    /// Status: "verified" or "unverified".
-    pub status: String,
-}
-
-/// Complete witness bundle with Ed25519 signature.
-#[derive(Debug, Clone, Serialize, Deserialize)]
-pub struct WitnessBundle {
-    /// Version of the witness format.
-    pub version: String,
-    /// ISO 8601 timestamp of when the witness was generated.
-    pub timestamp: String,
-    /// Git commit hash (short).
-    pub commit: String,
-    /// Workspace version.
-    pub workspace_version: String,
-    /// Total test count.
-    pub total_tests: u32,
-    /// Tests passed.
-    pub tests_passed: u32,
-    /// Tests failed.
-    pub tests_failed: u32,
-    /// List of attested capabilities.
-    pub capabilities: Vec<CapabilityAttestation>,
-    /// SHA-256 hash of the serialized capabilities array (the "message" that was signed).
-    pub capabilities_digest: String,
-    /// Ed25519 signature of capabilities_digest (hex-encoded).
-    pub signature: String,
-    /// Ed25519 public key (hex-encoded) for verification.
-    pub public_key: String,
-}
-
-impl WitnessBundle {
-    /// Create a new witness bundle, signing the capabilities with the given keypair.
-    pub fn new(
-        commit: &str,
-        workspace_version: &str,
-        total_tests: u32,
-        tests_passed: u32,
-        tests_failed: u32,
-        capabilities: Vec<CapabilityAttestation>,
-    ) -> Self {
-        use ed25519_dalek::{Signer, SigningKey};
-        use rand::rngs::OsRng;
-
-        // Serialize capabilities to JSON for hashing
-        let caps_json = serde_json::to_string(&capabilities).unwrap_or_default();
-
-        // SHA-256 digest of capabilities
-        let mut hasher = Sha256::new();
-        hasher.update(caps_json.as_bytes());
-        let digest = hasher.finalize();
-        let digest_hex = hex_encode(&digest);
-
-        // Generate Ed25519 keypair and sign
-        let signing_key = SigningKey::generate(&mut OsRng);
-        let signature = signing_key.sign(digest.as_slice());
-        let public_key = signing_key.verifying_key();
-
-        Self {
-            version: "1.0.0".to_string(),
-            timestamp: epoch_timestamp(),
-            commit: commit.to_string(),
-            workspace_version: workspace_version.to_string(),
-            total_tests,
-            tests_passed,
-            tests_failed,
-            capabilities,
-            capabilities_digest: digest_hex,
-            signature: hex_encode(signature.to_bytes().as_slice()),
-            public_key: hex_encode(public_key.to_bytes().as_slice()),
-        }
-    }
-
-    /// Verify the Ed25519 signature on this witness bundle.
-    pub fn verify(&self) -> Result<bool, String> {
-        use ed25519_dalek::{Signature, Verifier, VerifyingKey};
-
-        let pubkey_bytes =
-            hex_decode(&self.public_key).map_err(|e| format!("Invalid public key hex: {e}"))?;
-        let sig_bytes =
-            hex_decode(&self.signature).map_err(|e| format!("Invalid signature hex: {e}"))?;
-        let digest_bytes = hex_decode(&self.capabilities_digest)
-            .map_err(|e| format!("Invalid digest hex: {e}"))?;
-
-        let pubkey_arr: [u8; 32] = pubkey_bytes
-            .try_into()
-            .map_err(|_| "Public key must be 32 bytes".to_string())?;
-        let sig_arr: [u8; 64] = sig_bytes
-            .try_into()
-            .map_err(|_| "Signature must be 64 bytes".to_string())?;
-
-        let verifying_key = VerifyingKey::from_bytes(&pubkey_arr)
-            .map_err(|e| format!("Invalid public key: {e}"))?;
-        let signature = Signature::from_bytes(&sig_arr);
-
-        Ok(verifying_key.verify(&digest_bytes, &signature).is_ok())
-    }
-
-    /// Recompute the capabilities digest and check it matches.
-    pub fn verify_digest(&self) -> bool {
-        let caps_json = serde_json::to_string(&self.capabilities).unwrap_or_default();
-        let mut hasher = Sha256::new();
-        hasher.update(caps_json.as_bytes());
-        let digest = hasher.finalize();
-        hex_encode(&digest) == self.capabilities_digest
-    }
-
-    /// Full verification: digest integrity + Ed25519 signature.
-    pub fn verify_full(&self) -> Result<bool, String> {
-        if !self.verify_digest() {
-            return Err(
-                "Capabilities digest mismatch \u{2014} data may be tampered".to_string(),
-            );
-        }
-        self.verify()
-    }
-}
-
-/// Generate the complete capability attestation matrix for ruv-neural.
-pub fn attest_capabilities() -> Vec<CapabilityAttestation> {
-    vec![
-        // Core types
-        CapabilityAttestation {
-            crate_name: "ruv-neural-core".into(),
-            capability: "Brain graph types (BrainGraph, BrainEdge, BrainRegion)".into(),
-            evidence: "tests::brain_graph_adjacency_matrix, tests::brain_graph_node_degree".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-core".into(),
-            capability: "RVF binary format (read/write with magic, versioning, data types)".into(),
-            evidence: "tests::rvf_file_write_read_roundtrip, tests::rvf_header_validation".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-core".into(),
-            capability: "Neural embedding vectors with cosine/euclidean distance".into(),
-            evidence: "tests::embedding_cosine_similarity, tests::embedding_euclidean_distance"
-                .into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-core".into(),
-            capability: "Multi-channel time series with sample rate validation".into(),
-            evidence: "tests::time_series_creation_valid, SEC-002 validation".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-core".into(),
-            capability: "Brain atlas parcellation (Desikan-Killiany 68, Schaefer 200/400)".into(),
-            evidence: "tests::atlas_region_counts, tests::parcellation_query".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-core".into(),
-            capability: "Ed25519 signed witness attestation".into(),
-            evidence: "witness::tests::witness_sign_and_verify".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Sensor
-        CapabilityAttestation {
-            crate_name: "ruv-neural-sensor".into(),
-            capability: "NV Diamond magnetometer (ODMR signal model, calibration)".into(),
-            evidence: "tests::nv_diamond_sensor_source".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-sensor".into(),
-            capability: "OPM SERF-mode magnetometer (cross-talk compensation)".into(),
-            evidence: "tests::opm_sensor_source".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-sensor".into(),
-            capability: "EEG 10-20 system (21 channels, impedance, re-referencing)".into(),
-            evidence: "tests::eeg_sensor_source".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-sensor".into(),
-            capability: "Signal quality monitoring (SNR, saturation, artifacts)".into(),
-            evidence: "tests::quality_detects_low_snr, tests::quality_saturation_detection".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-sensor".into(),
-            capability: "Calibration (gain/offset, noise floor, cross-calibration)".into(),
-            evidence: "tests::calibration_apply_gain_offset, tests::calibration_cross_calibrate"
-                .into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Signal
-        CapabilityAttestation {
-            crate_name: "ruv-neural-signal".into(),
-            capability: "Hilbert transform (analytic signal extraction)".into(),
-            evidence: "bench_hilbert_transform, connectivity PLV computation".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-signal".into(),
-            capability: "Spectral analysis (PSD, STFT, frequency bands)".into(),
-            evidence: "tests in spectral.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-signal".into(),
-            capability: "Connectivity metrics (PLV, coherence, AEC, imaginary coherence)".into(),
-            evidence: "tests in connectivity.rs, integration::connectivity_matrix_from_signals"
-                .into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-signal".into(),
-            capability: "IIR Butterworth bandpass filtering".into(),
-            evidence: "tests in filtering.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Graph
-        CapabilityAttestation {
-            crate_name: "ruv-neural-graph".into(),
-            capability: "Graph construction from connectivity matrices".into(),
-            evidence: "tests in constructor.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-graph".into(),
-            capability: "Spectral analysis (Laplacian, Fiedler value, spectral gap)".into(),
-            evidence: "tests in spectral.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-graph".into(),
-            capability: "Graph metrics (density, clustering, modularity)".into(),
-            evidence: "tests in metrics.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Mincut
-        CapabilityAttestation {
-            crate_name: "ruv-neural-mincut".into(),
-            capability: "Stoer-Wagner global minimum cut O(V^3)".into(),
-            evidence: "tests::stoer_wagner_basic_cut, bench_stoer_wagner".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-mincut".into(),
-            capability: "Spectral bisection (Fiedler vector)".into(),
-            evidence: "tests::spectral_bisection_*, bench_spectral_bisection".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-mincut".into(),
-            capability: "Normalized cut (Shi-Malik)".into(),
-            evidence: "tests::normalized_cut_*".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-mincut".into(),
-            capability: "Cheeger constant (exact and approximate)".into(),
-            evidence: "tests::cheeger_*, bench_cheeger_constant".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-mincut".into(),
-            capability: "Dynamic mincut tracking with coherence events".into(),
-            evidence: "tests::dynamic_tracker_*".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Embed
-        CapabilityAttestation {
-            crate_name: "ruv-neural-embed".into(),
-            capability: "Spectral embedding (eigendecomposition)".into(),
-            evidence: "tests in spectral_embed.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-embed".into(),
-            capability: "Topology embedding (mincut + spectral features)".into(),
-            evidence: "tests in topology_embed.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-embed".into(),
-            capability: "Node2Vec random-walk embedding".into(),
-            evidence: "tests in node2vec.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-embed".into(),
-            capability: "RVF export (embeddings to binary format)".into(),
-            evidence: "tests in rvf_export.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Memory
-        CapabilityAttestation {
-            crate_name: "ruv-neural-memory".into(),
-            capability: "HNSW approximate nearest neighbor index".into(),
-            evidence: "tests in hnsw.rs, bench_hnsw_search".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-memory".into(),
-            capability: "Embedding store with capacity management".into(),
-            evidence: "tests in store.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Decoder
-        CapabilityAttestation {
-            crate_name: "ruv-neural-decoder".into(),
-            capability: "KNN decoder (majority-vote cognitive state)".into(),
-            evidence: "KnnDecoder tests".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-decoder".into(),
-            capability: "Threshold decoder (boundary-based classification)".into(),
-            evidence: "ThresholdDecoder tests".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-decoder".into(),
-            capability: "Transition decoder (HMM-style state tracking)".into(),
-            evidence: "TransitionDecoder tests".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-decoder".into(),
-            capability: "Clinical scorer (multi-domain neurological assessment)".into(),
-            evidence: "ClinicalScorer tests".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // ESP32
-        CapabilityAttestation {
-            crate_name: "ruv-neural-esp32".into(),
-            capability: "ADC sensor readout with femtotesla conversion".into(),
-            evidence: "tests::test_to_femtotesla_known_value".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-esp32".into(),
-            capability: "TDM time-division multiplexing scheduler".into(),
-            evidence: "tests in tdm.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-esp32".into(),
-            capability: "Neural data packet protocol with checksum".into(),
-            evidence: "tests::packet_roundtrip, tests::verify_checksum".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-esp32".into(),
-            capability: "Multi-node aggregation with timestamp sync".into(),
-            evidence: "tests::test_assemble_two_nodes, tests::test_assemble_with_tolerance".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        CapabilityAttestation {
-            crate_name: "ruv-neural-esp32".into(),
-            capability: "Power management (duty cycling, deep sleep)".into(),
-            evidence: "tests in power.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // Viz
-        CapabilityAttestation {
-            crate_name: "ruv-neural-viz".into(),
-            capability: "Export formats (JSON, CSV, DOT, GEXF, D3)".into(),
-            evidence: "tests in export.rs".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // CLI
-        CapabilityAttestation {
-            crate_name: "ruv-neural-cli".into(),
-            capability: "Full pipeline: sensor -> signal -> graph -> mincut -> embed -> decode"
-                .into(),
-            evidence: "tests::pipeline_runs_end_to_end".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-        // WASM
-        CapabilityAttestation {
-            crate_name: "ruv-neural-wasm".into(),
-            capability: "WebAssembly bindings for browser visualization".into(),
-            evidence: "wasm-bindgen exports compile to wasm32-unknown-unknown".into(),
-            source_hash: "".into(),
-            status: "verified".into(),
-        },
-    ]
-}
-
-/// Encode bytes as lowercase hex string.
-fn hex_encode(bytes: &[u8]) -> String {
-    bytes.iter().map(|b| format!("{:02x}", b)).collect()
-}
-
-/// Decode a hex string into bytes.
-fn hex_decode(hex: &str) -> std::result::Result<Vec<u8>, String> {
-    if hex.len() % 2 != 0 {
-        return Err("Odd-length hex string".into());
-    }
-    (0..hex.len())
-        .step_by(2)
-        .map(|i| u8::from_str_radix(&hex[i..i + 2], 16).map_err(|e| e.to_string()))
-        .collect()
-}
-
-/// Return a simple epoch-based timestamp (no chrono dependency).
-fn epoch_timestamp() -> String {
-    use std::time::{SystemTime, UNIX_EPOCH};
-    let secs = SystemTime::now()
-        .duration_since(UNIX_EPOCH)
-        .unwrap_or_default()
-        .as_secs();
-    format!("epoch:{secs}")
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-
-    #[test]
-    fn witness_sign_and_verify() {
-        let caps = attest_capabilities();
-        let bundle = WitnessBundle::new("abc123", "0.1.0", 333, 333, 0, caps);
-
-        assert_eq!(bundle.version, "1.0.0");
-        assert_eq!(bundle.tests_passed, 333);
-        assert_eq!(bundle.tests_failed, 0);
-        assert!(!bundle.capabilities_digest.is_empty());
-        assert!(!bundle.signature.is_empty());
-        assert!(!bundle.public_key.is_empty());
-
-        // Verify signature
-        assert!(bundle.verify_digest(), "Digest should match");
-        assert!(bundle.verify().unwrap(), "Signature should verify");
-        assert!(
-            bundle.verify_full().unwrap(),
-            "Full verification should pass"
-        );
-    }
-
-    #[test]
-    fn tampered_bundle_fails_verification() {
-        let caps = attest_capabilities();
-        let mut bundle = WitnessBundle::new("abc123", "0.1.0", 333, 333, 0, caps);
-
-        // Tamper with capabilities
-        bundle.capabilities[0].status = "tampered".to_string();
-
-        // Digest should no longer match
-        assert!(!bundle.verify_digest(), "Tampered digest should fail");
-        assert!(
-            bundle.verify_full().is_err(),
-            "Full verification should fail"
-        );
-    }
-
-    #[test]
-    fn attestation_matrix_covers_all_crates() {
-        let caps = attest_capabilities();
-        let crate_names: std::collections::HashSet<&str> =
-            caps.iter().map(|c| c.crate_name.as_str()).collect();
-
-        assert!(crate_names.contains("ruv-neural-core"));
-        assert!(crate_names.contains("ruv-neural-sensor"));
-        assert!(crate_names.contains("ruv-neural-signal"));
-        assert!(crate_names.contains("ruv-neural-graph"));
-        assert!(crate_names.contains("ruv-neural-mincut"));
-        assert!(crate_names.contains("ruv-neural-embed"));
-        assert!(crate_names.contains("ruv-neural-memory"));
-        assert!(crate_names.contains("ruv-neural-decoder"));
-        assert!(crate_names.contains("ruv-neural-esp32"));
-        assert!(crate_names.contains("ruv-neural-viz"));
-        assert!(crate_names.contains("ruv-neural-cli"));
-        assert!(crate_names.contains("ruv-neural-wasm"));
-    }
-
-    #[test]
-    fn hex_roundtrip() {
-        let data = b"hello world";
-        let encoded = hex_encode(data);
-        let decoded = hex_decode(&encoded).unwrap();
-        assert_eq!(decoded, data);
-    }
-}

v2/crates/ruv-neural/ruv-neural-decoder/Cargo.toml

@@ -1,25 +0,0 @@
-[package]
-name = "ruv-neural-decoder"
-description = "rUv Neural — Cognitive state classification and BCI decoding from neural topology embeddings"
-version.workspace = true
-edition.workspace = true
-authors.workspace = true
-license.workspace = true
-
-[features]
-default = ["std"]
-std = []
-wasm = []
-
-[dependencies]
-ruv-neural-core = { workspace = true }
-# ruv-neural-embed and ruv-neural-memory are available for future integration
-# but not currently required for core decoder functionality
-serde = { workspace = true }
-serde_json = { workspace = true }
-tracing = { workspace = true }
-rand = { workspace = true }
-num-traits = { workspace = true }
-
-[dev-dependencies]
-approx = { workspace = true }

v2/crates/ruv-neural/ruv-neural-decoder/README.md

@@ -1,93 +0,0 @@
-# ruv-neural-decoder
-
-Cognitive state classification and BCI decoding from neural topology embeddings.
-
-## Overview
-
-`ruv-neural-decoder` classifies cognitive states from brain graph embeddings and
-topology metrics. It provides multiple decoding strategies -- KNN classification
-from labeled exemplars, threshold-based rule systems, temporal transition detection,
-and clinical biomarker scoring -- plus an ensemble pipeline that combines all
-strategies for robust real-time brain-computer interface (BCI) output.
-
-## Features
-
-- **KNN decoder** (`knn_decoder`): K-nearest neighbor classification using stored
-  labeled embeddings from `ruv-neural-memory`; supports configurable k and distance
-  metrics
-- **Threshold decoder** (`threshold_decoder`): Rule-based classification from
-  topology metric ranges (mincut value, modularity, efficiency, Fiedler value)
-  with configurable `TopologyThreshold` bounds per cognitive state
-- **Transition decoder** (`transition_decoder`): Detects cognitive state transitions
-  from temporal topology dynamics; outputs `StateTransition` events matching
-  known `TransitionPattern` templates
-- **Clinical scorer** (`clinical`): `ClinicalScorer` for biomarker detection via
-  deviation from healthy baseline distributions; flags abnormal topology patterns
-- **Ensemble pipeline** (`pipeline`): `DecoderPipeline` combining all decoder
-  strategies with confidence-weighted voting; produces `DecoderOutput` with
-  classified state, confidence score, and contributing decoder votes
-
-## Usage
-
-```rust
-use ruv_neural_decoder::{
-    KnnDecoder, ThresholdDecoder, TopologyThreshold,
-    TransitionDecoder, ClinicalScorer, DecoderPipeline, DecoderOutput,
-};
-use ruv_neural_core::topology::{CognitiveState, TopologyMetrics};
-
-// Threshold-based decoding from topology metrics
-let mut decoder = ThresholdDecoder::new();
-decoder.add_threshold(TopologyThreshold {
-    state: CognitiveState::Focused,
-    min_modularity: 0.3,
-    max_modularity: 0.5,
-    min_efficiency: 0.6,
-    ..Default::default()
-});
-let state = decoder.decode(&metrics);
-
-// KNN-based decoding from embeddings
-let mut knn = KnnDecoder::new(5); // k=5
-knn.add_exemplar(embedding, CognitiveState::Rest);
-let predicted = knn.classify(&query_embedding);
-
-// Transition detection from temporal sequences
-let mut transition_decoder = TransitionDecoder::new();
-if let Some(transition) = transition_decoder.check(&current_metrics) {
-    println!("Transition: {:?} -> {:?}", transition.from, transition.to);
-}
-
-// Full ensemble pipeline
-let mut pipeline = DecoderPipeline::new();
-let output: DecoderOutput = pipeline.decode(&metrics, &embedding);
-println!("State: {:?}, confidence: {:.2}", output.state, output.confidence);
-```
-
-## API Reference
-
-| Module               | Key Types                                                  |
-|----------------------|------------------------------------------------------------|
-| `knn_decoder`        | `KnnDecoder`                                               |
-| `threshold_decoder`  | `ThresholdDecoder`, `TopologyThreshold`                    |
-| `transition_decoder` | `TransitionDecoder`, `StateTransition`, `TransitionPattern`|
-| `clinical`           | `ClinicalScorer`                                           |
-| `pipeline`           | `DecoderPipeline`, `DecoderOutput`                         |
-
-## Feature Flags
-
-| Feature | Default | Description                      |
-|---------|---------|----------------------------------|
-| `std`   | Yes     | Standard library support         |
-| `wasm`  | No      | WASM-compatible decoding         |
-
-## Integration
-
-Depends on `ruv-neural-core` for `CognitiveState`, `TopologyMetrics`, and
-`NeuralEmbedding` types. Consumes embeddings from `ruv-neural-embed` and
-topology results from `ruv-neural-mincut`. The KNN decoder can query stored
-exemplars from `ruv-neural-memory`.
-
-## License
-
-MIT OR Apache-2.0

v2/crates/ruv-neural/ruv-neural-decoder/src/clinical.rs

@@ -1,357 +0,0 @@
-//! Clinical biomarker detection from brain topology deviations.
-
-use ruv_neural_core::topology::TopologyMetrics;
-
-/// Clinical biomarker scorer based on topology deviation from a healthy baseline.
-///
-/// Computes z-scores of current topology metrics relative to a learned
-/// healthy population baseline, then derives disease-specific risk scores
-/// and a composite brain health index.
-pub struct ClinicalScorer {
-    /// Mean topology metrics from healthy population.
-    healthy_baseline: TopologyMetrics,
-    /// Standard deviation of topology metrics from healthy population.
-    healthy_std: TopologyMetrics,
-}
-
-impl ClinicalScorer {
-    /// Create a scorer with explicit baseline mean and standard deviation.
-    pub fn new(baseline: TopologyMetrics, std: TopologyMetrics) -> Self {
-        Self {
-            healthy_baseline: baseline,
-            healthy_std: std,
-        }
-    }
-
-    /// Learn the healthy baseline from a set of healthy topology observations.
-    ///
-    /// Computes the mean and standard deviation of each metric across the
-    /// provided samples.
-    pub fn learn_baseline(&mut self, healthy_data: &[TopologyMetrics]) {
-        if healthy_data.is_empty() {
-            return;
-        }
-
-        let n = healthy_data.len() as f64;
-
-        // Compute means.
-        let mean_mincut = healthy_data.iter().map(|m| m.global_mincut).sum::<f64>() / n;
-        let mean_mod = healthy_data.iter().map(|m| m.modularity).sum::<f64>() / n;
-        let mean_eff = healthy_data.iter().map(|m| m.global_efficiency).sum::<f64>() / n;
-        let mean_loc = healthy_data.iter().map(|m| m.local_efficiency).sum::<f64>() / n;
-        let mean_ent = healthy_data.iter().map(|m| m.graph_entropy).sum::<f64>() / n;
-        let mean_fiedler = healthy_data.iter().map(|m| m.fiedler_value).sum::<f64>() / n;
-
-        self.healthy_baseline = TopologyMetrics {
-            global_mincut: mean_mincut,
-            modularity: mean_mod,
-            global_efficiency: mean_eff,
-            local_efficiency: mean_loc,
-            graph_entropy: mean_ent,
-            fiedler_value: mean_fiedler,
-            num_modules: 0,
-            timestamp: 0.0,
-        };
-
-        // Compute standard deviations.
-        let std_mincut = std_dev(healthy_data.iter().map(|m| m.global_mincut), mean_mincut);
-        let std_mod = std_dev(healthy_data.iter().map(|m| m.modularity), mean_mod);
-        let std_eff = std_dev(
-            healthy_data.iter().map(|m| m.global_efficiency),
-            mean_eff,
-        );
-        let std_loc = std_dev(
-            healthy_data.iter().map(|m| m.local_efficiency),
-            mean_loc,
-        );
-        let std_ent = std_dev(healthy_data.iter().map(|m| m.graph_entropy), mean_ent);
-        let std_fiedler = std_dev(
-            healthy_data.iter().map(|m| m.fiedler_value),
-            mean_fiedler,
-        );
-
-        self.healthy_std = TopologyMetrics {
-            global_mincut: std_mincut,
-            modularity: std_mod,
-            global_efficiency: std_eff,
-            local_efficiency: std_loc,
-            graph_entropy: std_ent,
-            fiedler_value: std_fiedler,
-            num_modules: 0,
-            timestamp: 0.0,
-        };
-    }
-
-    /// Composite deviation score (mean absolute z-score across all metrics).
-    ///
-    /// Higher values indicate greater deviation from healthy baseline.
-    pub fn deviation_score(&self, current: &TopologyMetrics) -> f64 {
-        let z_scores = self.z_scores(current);
-        z_scores.iter().map(|z| z.abs()).sum::<f64>() / z_scores.len() as f64
-    }
-
-    /// Alzheimer's disease risk score in `[0, 1]`.
-    ///
-    /// Based on characteristic patterns: reduced global efficiency,
-    /// increased modularity (network fragmentation), reduced mincut.
-    pub fn alzheimer_risk(&self, current: &TopologyMetrics) -> f64 {
-        let z = self.z_scores(current);
-        // z[0]=mincut, z[1]=modularity, z[2]=global_eff, z[3]=local_eff, z[4]=entropy, z[5]=fiedler
-
-        // Alzheimer's: decreased efficiency (negative z), decreased mincut (negative z),
-        // increased modularity (positive z = fragmentation).
-        let efficiency_component = sigmoid(-z[2], 2.0);
-        let mincut_component = sigmoid(-z[0], 2.0);
-        let modularity_component = sigmoid(z[1], 2.0);
-        let fiedler_component = sigmoid(-z[5], 1.5);
-
-        let risk = 0.35 * efficiency_component
-            + 0.25 * mincut_component
-            + 0.25 * modularity_component
-            + 0.15 * fiedler_component;
-
-        risk.clamp(0.0, 1.0)
-    }
-
-    /// Epilepsy risk score in `[0, 1]`.
-    ///
-    /// Based on characteristic patterns: hypersynchrony (increased mincut),
-    /// decreased modularity, increased local efficiency.
-    pub fn epilepsy_risk(&self, current: &TopologyMetrics) -> f64 {
-        let z = self.z_scores(current);
-
-        // Epilepsy: increased mincut (hypersynchrony), decreased modularity,
-        // increased local efficiency.
-        let mincut_component = sigmoid(z[0], 2.0);
-        let modularity_component = sigmoid(-z[1], 2.0);
-        let local_eff_component = sigmoid(z[3], 2.0);
-
-        let risk = 0.4 * mincut_component
-            + 0.3 * modularity_component
-            + 0.3 * local_eff_component;
-
-        risk.clamp(0.0, 1.0)
-    }
-
-    /// Depression risk score in `[0, 1]`.
-    ///
-    /// Based on characteristic patterns: reduced global efficiency,
-    /// altered entropy, reduced Fiedler value (weaker connectivity).
-    pub fn depression_risk(&self, current: &TopologyMetrics) -> f64 {
-        let z = self.z_scores(current);
-
-        // Depression: decreased efficiency, decreased Fiedler value,
-        // altered entropy (can go either way, use absolute deviation).
-        let efficiency_component = sigmoid(-z[2], 2.0);
-        let fiedler_component = sigmoid(-z[5], 2.0);
-        let entropy_component = sigmoid(z[4].abs(), 1.5);
-
-        let risk = 0.4 * efficiency_component
-            + 0.35 * fiedler_component
-            + 0.25 * entropy_component;
-
-        risk.clamp(0.0, 1.0)
-    }
-
-    /// General brain health index in `[0, 1]`.
-    ///
-    /// `0.0` = severe abnormality, `1.0` = perfectly healthy (all metrics
-    /// within normal range).
-    pub fn brain_health_index(&self, current: &TopologyMetrics) -> f64 {
-        let deviation = self.deviation_score(current);
-        // Map deviation to health: 0 deviation = 1.0 health, large deviation = ~0.0.
-        let health = (-0.5 * deviation).exp();
-        health.clamp(0.0, 1.0)
-    }
-
-    /// Compute z-scores for all topology metrics.
-    ///
-    /// Order: [mincut, modularity, global_efficiency, local_efficiency, entropy, fiedler].
-    fn z_scores(&self, current: &TopologyMetrics) -> [f64; 6] {
-        [
-            z_score(
-                current.global_mincut,
-                self.healthy_baseline.global_mincut,
-                self.healthy_std.global_mincut,
-            ),
-            z_score(
-                current.modularity,
-                self.healthy_baseline.modularity,
-                self.healthy_std.modularity,
-            ),
-            z_score(
-                current.global_efficiency,
-                self.healthy_baseline.global_efficiency,
-                self.healthy_std.global_efficiency,
-            ),
-            z_score(
-                current.local_efficiency,
-                self.healthy_baseline.local_efficiency,
-                self.healthy_std.local_efficiency,
-            ),
-            z_score(
-                current.graph_entropy,
-                self.healthy_baseline.graph_entropy,
-                self.healthy_std.graph_entropy,
-            ),
-            z_score(
-                current.fiedler_value,
-                self.healthy_baseline.fiedler_value,
-                self.healthy_std.fiedler_value,
-            ),
-        ]
-    }
-}
-
-/// Compute the z-score: (value - mean) / std.
-///
-/// Returns 0.0 if std is near zero.
-fn z_score(value: f64, mean: f64, std: f64) -> f64 {
-    if std.abs() < 1e-10 {
-        return 0.0;
-    }
-    (value - mean) / std
-}
-
-/// Standard deviation from an iterator of values and a precomputed mean.
-fn std_dev(values: impl Iterator<Item = f64>, mean: f64) -> f64 {
-    let vals: Vec<f64> = values.collect();
-    if vals.len() < 2 {
-        return 1.0; // Default to 1.0 to avoid division by zero.
-    }
-    let n = vals.len() as f64;
-    let variance = vals.iter().map(|v| (v - mean).powi(2)).sum::<f64>() / (n - 1.0);
-    let s = variance.sqrt();
-    if s < 1e-10 { 1.0 } else { s }
-}
-
-/// Sigmoid function mapping a z-score to `[0, 1]`.
-///
-/// `scale` controls the steepness of the transition.
-fn sigmoid(z: f64, scale: f64) -> f64 {
-    1.0 / (1.0 + (-scale * z).exp())
-}
-
-#[cfg(test)]
-mod tests {
-    use super::*;
-
-    fn make_metrics(
-        mincut: f64,
-        modularity: f64,
-        efficiency: f64,
-        entropy: f64,
-    ) -> TopologyMetrics {
-        TopologyMetrics {
-            global_mincut: mincut,
-            modularity,
-            global_efficiency: efficiency,
-            local_efficiency: 0.3,
-            graph_entropy: entropy,
-            fiedler_value: 0.5,
-            num_modules: 4,
-            timestamp: 0.0,
-        }
-    }
-
-    fn make_baseline_scorer() -> ClinicalScorer {
-        ClinicalScorer::new(
-            make_metrics(5.0, 0.4, 0.3, 2.0),
-            make_metrics(1.0, 0.1, 0.05, 0.3),
-        )
-    }
-
-    #[test]
-    fn test_healthy_deviation_near_zero() {
-        let scorer = make_baseline_scorer();
-        let healthy = make_metrics(5.0, 0.4, 0.3, 2.0);
-        let deviation = scorer.deviation_score(&healthy);
-        assert!(
-            deviation < 0.5,
-            "Healthy metrics should have low deviation, got {}",
-            deviation
-        );
-    }
-
-    #[test]
-    fn test_abnormal_deviation_high() {
-        let scorer = make_baseline_scorer();
-        let abnormal = make_metrics(15.0, 1.5, 0.9, 8.0);
-        let deviation = scorer.deviation_score(&abnormal);
-        assert!(
-            deviation > 2.0,
-            "Abnormal metrics should have high deviation, got {}",
-            deviation
-        );
-    }
-
-    #[test]
-    fn test_brain_health_healthy() {
-        let scorer = make_baseline_scorer();
-        let healthy = make_metrics(5.0, 0.4, 0.3, 2.0);
-        let health = scorer.brain_health_index(&healthy);
-        assert!(
-            health > 0.8,
-            "Healthy metrics should yield high health index, got {}",
-            health
-        );
-    }
-
-    #[test]
-    fn test_brain_health_abnormal() {
-        let scorer = make_baseline_scorer();
-        let abnormal = make_metrics(15.0, 1.5, 0.9, 8.0);
-        let health = scorer.brain_health_index(&abnormal);
-        assert!(
-            health < 0.5,
-            "Abnormal metrics should yield low health index, got {}",
-            health
-        );
-    }
-
-    #[test]
-    fn test_disease_risks_in_range() {
-        let scorer = make_baseline_scorer();
-        let current = make_metrics(3.0, 0.6, 0.15, 2.5);
-
-        let alz = scorer.alzheimer_risk(&current);
-        let epi = scorer.epilepsy_risk(&current);
-        let dep = scorer.depression_risk(&current);
-
-        assert!(alz >= 0.0 && alz <= 1.0, "Alzheimer risk out of range: {}", alz);
-        assert!(epi >= 0.0 && epi <= 1.0, "Epilepsy risk out of range: {}", epi);
-        assert!(dep >= 0.0 && dep <= 1.0, "Depression risk out of range: {}", dep);
-    }
-
-    #[test]
-    fn test_learn_baseline() {
-        let mut scorer = ClinicalScorer::new(
-            make_metrics(0.0, 0.0, 0.0, 0.0),
-            make_metrics(1.0, 1.0, 1.0, 1.0),
-        );
-
-        let data = vec![
-            make_metrics(5.0, 0.4, 0.3, 2.0),
-            make_metrics(5.2, 0.42, 0.31, 2.1),
-            make_metrics(4.8, 0.38, 0.29, 1.9),
-        ];
-        scorer.learn_baseline(&data);
-
-        // After learning, healthy data should have low deviation.
-        let deviation = scorer.deviation_score(&make_metrics(5.0, 0.4, 0.3, 2.0));
-        assert!(deviation < 1.0, "Post-learning deviation too high: {}", deviation);
-    }
-
-    #[test]
-    fn test_health_index_range() {
-        let scorer = make_baseline_scorer();
-        // Test extreme values.
-        for mincut in [0.0, 5.0, 20.0] {
-            for mod_val in [0.0, 0.4, 1.0] {
-                let m = make_metrics(mincut, mod_val, 0.3, 2.0);
-                let h = scorer.brain_health_index(&m);
-                assert!(h >= 0.0 && h <= 1.0, "Health index out of range: {}", h);
-            }
-        }
-    }
-}