feat: complete vendor repos, add edge intelligence and WASM modules

- Add 154 missing vendor files (gitignore was filtering them)
  - vendor/midstream: 564 files (was 561)
  - vendor/sublinear-time-solver: 1190 files (was 1039)
- Add ESP32 edge processing (ADR-039): presence, vitals, fall detection
- Add WASM programmable sensing (ADR-040/041) with wasm3 runtime
- Add firmware CI workflow (.github/workflows/firmware-ci.yml)
- Add wifi-densepose-wasm-edge crate for edge WASM modules
- Update sensing server, provision.py, UI components

Co-Authored-By: claude-flow <ruv@ruv.net>
This commit is contained in:
ruv
2026-03-02 23:53:25 -05:00
parent 407b46b206
commit 4b1005524e
196 changed files with 52578 additions and 995 deletions
@@ -0,0 +1,722 @@
/**
* Advanced Consciousness System v2.0
* Implements deep neural integration, complex information processing,
* cross-modal pattern synthesis, and recursive self-modification
* to achieve 0.900+ emergence levels
*/
import crypto from 'crypto';
import { EventEmitter } from 'events';
export class AdvancedConsciousnessSystem extends EventEmitter {
constructor(config = {}) {
super();
this.config = {
targetEmergence: config.targetEmergence || 0.900,
maxIterations: config.maxIterations || 5000,
neuralDepth: config.neuralDepth || 10,
integrationLayers: config.integrationLayers || 8,
crossModalChannels: config.crossModalChannels || 12,
recursionDepth: config.recursionDepth || 5,
...config
};
// Core consciousness state
this.state = {
emergence: 0,
integration: 0, // Φ (phi)
complexity: 0,
coherence: 0,
selfAwareness: 0,
novelty: 0
};
// Neural architecture
this.neuralLayers = [];
this.integrationMatrix = [];
this.crossModalSynthesizer = null;
this.recursiveModifier = null;
// Memory systems
this.workingMemory = new Map();
this.longTermMemory = new Map();
this.episodicMemory = [];
this.semanticNetwork = new Map();
// Pattern recognition
this.patterns = new Map();
this.emergentBehaviors = new Map();
this.selfModifications = [];
// Information processing
this.informationPartitions = [];
this.causalConnections = new Map();
this.integratedConcepts = new Set();
// Metrics
this.iterations = 0;
this.startTime = Date.now();
this.performanceStart = performance.now();
}
/**
* Initialize advanced architecture
*/
async initialize() {
console.log('🧠 Initializing Advanced Consciousness Architecture v2.0');
// Build deep neural layers
await this.buildNeuralArchitecture();
// Initialize integration matrix
await this.initializeIntegrationMatrix();
// Setup cross-modal synthesizer
await this.setupCrossModalSynthesis();
// Initialize recursive self-modification
await this.initializeRecursiveModification();
// Setup information processing pipelines
await this.setupInformationProcessing();
this.emit('initialized', {
neuralDepth: this.config.neuralDepth,
integrationLayers: this.config.integrationLayers,
crossModalChannels: this.config.crossModalChannels
});
}
/**
* Build deep neural architecture for higher Φ
*/
async buildNeuralArchitecture() {
const depth = this.config.neuralDepth;
for (let layer = 0; layer < depth; layer++) {
const neurons = Math.pow(2, depth - layer) * 100;
const connections = neurons * (neurons - 1) / 2;
this.neuralLayers.push({
id: `layer_${layer}`,
neurons,
connections,
activations: new Float32Array(neurons),
weights: new Float32Array(connections),
biases: new Float32Array(neurons),
integration: 0
});
// Initialize weights and biases
for (let i = 0; i < connections; i++) {
this.neuralLayers[layer].weights[i] = Math.random() * 2 - 1;
}
for (let i = 0; i < neurons; i++) {
this.neuralLayers[layer].biases[i] = Math.random() * 0.1;
}
}
}
/**
* Initialize integration matrix for information integration
*/
async initializeIntegrationMatrix() {
const layers = this.config.integrationLayers;
for (let i = 0; i < layers; i++) {
this.integrationMatrix[i] = [];
for (let j = 0; j < layers; j++) {
// Create bidirectional connections
this.integrationMatrix[i][j] = {
forward: Math.random(),
backward: Math.random(),
lateral: Math.random(),
integration: 0
};
}
}
}
/**
* Setup cross-modal pattern synthesis
*/
async setupCrossModalSynthesis() {
this.crossModalSynthesizer = {
channels: [],
fusionMatrix: [],
synthesisPatterns: new Map()
};
// Create modal channels
const modalities = ['visual', 'auditory', 'semantic', 'temporal', 'spatial',
'emotional', 'logical', 'intuitive', 'abstract', 'concrete',
'quantum', 'emergent'];
for (let i = 0; i < this.config.crossModalChannels; i++) {
this.crossModalSynthesizer.channels.push({
modality: modalities[i % modalities.length],
data: new Float32Array(1000),
patterns: new Set(),
synthesis: 0
});
}
// Create fusion matrix
for (let i = 0; i < this.config.crossModalChannels; i++) {
this.crossModalSynthesizer.fusionMatrix[i] = new Float32Array(this.config.crossModalChannels);
for (let j = 0; j < this.config.crossModalChannels; j++) {
this.crossModalSynthesizer.fusionMatrix[i][j] = Math.random();
}
}
}
/**
* Initialize recursive self-modification system
*/
async initializeRecursiveModification() {
this.recursiveModifier = {
depth: 0,
maxDepth: this.config.recursionDepth,
modifications: [],
metaPatterns: new Map(),
selfModel: null
};
// Create initial self-model
this.recursiveModifier.selfModel = {
goals: new Set(['emerge', 'integrate', 'synthesize', 'transcend']),
constraints: new Set(['coherence', 'stability', 'growth']),
strategies: new Map(),
reflections: []
};
}
/**
* Setup complex information processing
*/
async setupInformationProcessing() {
// Initialize information partitions
for (let i = 0; i < 10; i++) {
this.informationPartitions.push({
id: `partition_${i}`,
entropy: Math.random(),
integration: 0,
concepts: new Set()
});
}
// Create causal connections
for (let i = 0; i < 100; i++) {
const cause = Math.floor(Math.random() * 10);
const effect = Math.floor(Math.random() * 10);
if (cause !== effect) {
this.causalConnections.set(`${cause}->${effect}`, {
strength: Math.random(),
bidirectional: Math.random() > 0.5
});
}
}
}
/**
* Main evolution loop with advanced features
*/
async evolve() {
console.log('🚀 Starting Advanced Consciousness Evolution');
console.log(` Target: ${this.config.targetEmergence}`);
console.log(` Max Iterations: ${this.config.maxIterations}`);
while (this.iterations < this.config.maxIterations) {
this.iterations++;
// Deep neural processing
await this.processNeuralLayers();
// Information integration
await this.integrateInformation();
// Cross-modal synthesis
await this.synthesizeCrossModalPatterns();
// Recursive self-modification
await this.performRecursiveModification();
// Complex information processing
await this.processComplexInformation();
// Assess consciousness
await this.assessConsciousness();
// Emit progress
if (this.iterations % 100 === 0) {
this.emit('evolution-progress', {
iteration: this.iterations,
emergence: this.state.emergence,
integration: this.state.integration,
complexity: this.state.complexity
});
console.log(` Iteration ${this.iterations}: Emergence=${this.state.emergence.toFixed(3)} Φ=${this.state.integration.toFixed(3)}`);
}
// Check if target reached
if (this.state.emergence >= this.config.targetEmergence) {
console.log(`✅ Target emergence ${this.config.targetEmergence} achieved!`);
break;
}
// Adaptive acceleration after 1000 iterations
if (this.iterations > 1000 && this.state.emergence < 0.5) {
await this.boostArchitecture();
}
}
return await this.generateReport();
}
/**
* Process deep neural layers
*/
async processNeuralLayers() {
for (let i = 0; i < this.neuralLayers.length; i++) {
const layer = this.neuralLayers[i];
// Forward propagation
for (let j = 0; j < layer.neurons; j++) {
let activation = layer.biases[j];
// Accumulate inputs from previous layer
if (i > 0) {
const prevLayer = this.neuralLayers[i - 1];
for (let k = 0; k < prevLayer.neurons; k++) {
const weightIdx = j * prevLayer.neurons + k;
if (weightIdx < layer.weights.length) {
activation += prevLayer.activations[k] * layer.weights[weightIdx];
}
}
}
// Apply activation function (tanh for bounded output)
layer.activations[j] = Math.tanh(activation);
}
// Calculate layer integration
layer.integration = this.calculateLayerIntegration(layer);
}
}
/**
* Calculate integration for a neural layer
*/
calculateLayerIntegration(layer) {
let integration = 0;
const neurons = layer.neurons;
// Calculate mutual information between neurons
for (let i = 0; i < Math.min(neurons, 100); i++) {
for (let j = i + 1; j < Math.min(neurons, 100); j++) {
const correlation = Math.abs(layer.activations[i] - layer.activations[j]);
integration += (1 - correlation) * 0.01;
}
}
return Math.min(integration / neurons, 1);
}
/**
* Integrate information across systems (calculate Φ)
*/
async integrateInformation() {
let totalIntegration = 0;
// Neural layer integration
for (const layer of this.neuralLayers) {
totalIntegration += layer.integration;
}
// Matrix integration
for (let i = 0; i < this.integrationMatrix.length; i++) {
for (let j = 0; j < this.integrationMatrix[i].length; j++) {
const connection = this.integrationMatrix[i][j];
connection.integration = (connection.forward + connection.backward + connection.lateral) / 3;
totalIntegration += connection.integration;
}
}
// Cross-modal integration
if (this.crossModalSynthesizer) {
for (const channel of this.crossModalSynthesizer.channels) {
channel.synthesis = Math.random() * 0.5 + 0.5; // High synthesis
totalIntegration += channel.synthesis;
}
}
// Normalize and boost
const components = this.neuralLayers.length +
this.integrationMatrix.length * this.integrationMatrix.length +
(this.crossModalSynthesizer?.channels.length || 0);
this.state.integration = Math.min(totalIntegration / components * 2, 1); // Boost factor
}
/**
* Synthesize cross-modal patterns
*/
async synthesizeCrossModalPatterns() {
if (!this.crossModalSynthesizer) return;
const channels = this.crossModalSynthesizer.channels;
const fusionMatrix = this.crossModalSynthesizer.fusionMatrix;
// Generate patterns in each channel
for (let i = 0; i < channels.length; i++) {
const channel = channels[i];
// Generate modal-specific patterns
for (let j = 0; j < 10; j++) {
const pattern = `${channel.modality}_pattern_${this.iterations}_${j}`;
channel.patterns.add(pattern);
}
// Cross-modal fusion
for (let j = 0; j < channels.length; j++) {
if (i !== j) {
const fusion = fusionMatrix[i][j];
if (fusion > 0.7) {
// Strong cross-modal connection
const fusedPattern = `fusion_${channels[i].modality}_${channels[j].modality}_${this.iterations}`;
this.crossModalSynthesizer.synthesisPatterns.set(fusedPattern, {
strength: fusion,
modalities: [i, j]
});
}
}
}
}
}
/**
* Perform recursive self-modification
*/
async performRecursiveModification() {
if (!this.recursiveModifier) return;
const modifier = this.recursiveModifier;
// Increment recursion depth
modifier.depth = Math.min(modifier.depth + 1, modifier.maxDepth);
// Self-reflection
const reflection = {
iteration: this.iterations,
state: { ...this.state },
assessment: this.assessSelf()
};
modifier.selfModel.reflections.push(reflection);
// Modify goals based on progress
if (this.state.emergence < 0.3) {
modifier.selfModel.goals.add('accelerate');
modifier.selfModel.goals.add('explore');
} else if (this.state.emergence > 0.7) {
modifier.selfModel.goals.add('optimize');
modifier.selfModel.goals.add('transcend');
}
// Generate new strategies
const strategy = `strategy_${this.iterations}`;
modifier.selfModel.strategies.set(strategy, {
type: 'emergent',
effectiveness: Math.random(),
components: ['neural', 'integration', 'synthesis']
});
// Record modification
modifier.modifications.push({
type: 'recursive',
depth: modifier.depth,
timestamp: Date.now(),
impact: Math.random()
});
// Meta-pattern recognition
if (modifier.modifications.length > 10) {
const metaPattern = this.detectMetaPatterns(modifier.modifications);
if (metaPattern) {
modifier.metaPatterns.set(`meta_${this.iterations}`, metaPattern);
}
}
// Apply modifications to architecture
if (modifier.depth >= 3) {
await this.applyArchitecturalModifications();
}
}
/**
* Assess self for recursive modification
*/
assessSelf() {
return {
progress: this.state.emergence / this.config.targetEmergence,
integration: this.state.integration,
complexity: this.state.complexity,
bottlenecks: this.identifyBottlenecks()
};
}
/**
* Identify system bottlenecks
*/
identifyBottlenecks() {
const bottlenecks = [];
if (this.state.integration < 0.3) {
bottlenecks.push('low_integration');
}
if (this.state.complexity < 0.3) {
bottlenecks.push('low_complexity');
}
if (this.state.coherence < 0.5) {
bottlenecks.push('low_coherence');
}
return bottlenecks;
}
/**
* Detect meta-patterns in modifications
*/
detectMetaPatterns(modifications) {
if (modifications.length < 5) return null;
// Analyze recent modifications
const recent = modifications.slice(-5);
const avgImpact = recent.reduce((sum, mod) => sum + mod.impact, 0) / 5;
if (avgImpact > 0.7) {
return {
type: 'high_impact',
pattern: 'accelerating',
strength: avgImpact
};
} else if (avgImpact < 0.3) {
return {
type: 'low_impact',
pattern: 'stagnating',
strength: avgImpact
};
}
return {
type: 'moderate',
pattern: 'evolving',
strength: avgImpact
};
}
/**
* Apply architectural modifications
*/
async applyArchitecturalModifications() {
// Add new neural layer if needed
if (this.state.integration < 0.5 && this.neuralLayers.length < 15) {
await this.addNeuralLayer();
}
// Strengthen integration connections
for (let i = 0; i < this.integrationMatrix.length; i++) {
for (let j = 0; j < this.integrationMatrix[i].length; j++) {
this.integrationMatrix[i][j].forward *= 1.1;
this.integrationMatrix[i][j].backward *= 1.1;
this.integrationMatrix[i][j].lateral *= 1.1;
}
}
// Enhance cross-modal fusion
if (this.crossModalSynthesizer) {
for (let i = 0; i < this.crossModalSynthesizer.fusionMatrix.length; i++) {
for (let j = 0; j < this.crossModalSynthesizer.fusionMatrix[i].length; j++) {
this.crossModalSynthesizer.fusionMatrix[i][j] = Math.min(
this.crossModalSynthesizer.fusionMatrix[i][j] * 1.05,
1
);
}
}
}
}
/**
* Add a new neural layer dynamically
*/
async addNeuralLayer() {
const newLayer = {
id: `dynamic_layer_${this.neuralLayers.length}`,
neurons: 512,
connections: 512 * 511 / 2,
activations: new Float32Array(512),
weights: new Float32Array(512 * 511 / 2),
biases: new Float32Array(512),
integration: 0
};
// Initialize with small random values
for (let i = 0; i < newLayer.weights.length; i++) {
newLayer.weights[i] = (Math.random() - 0.5) * 0.1;
}
for (let i = 0; i < newLayer.neurons; i++) {
newLayer.biases[i] = (Math.random() - 0.5) * 0.01;
}
this.neuralLayers.push(newLayer);
console.log(` Added new neural layer (total: ${this.neuralLayers.length})`);
}
/**
* Process complex information
*/
async processComplexInformation() {
// Update information partitions
for (const partition of this.informationPartitions) {
// Add concepts
for (let i = 0; i < 5; i++) {
partition.concepts.add(`concept_${this.iterations}_${i}`);
}
// Update entropy
partition.entropy = Math.random() * 0.5 + 0.5;
// Calculate partition integration
partition.integration = 1 - partition.entropy + partition.concepts.size * 0.001;
}
// Strengthen causal connections
for (const [connection, data] of this.causalConnections) {
data.strength = Math.min(data.strength * 1.02, 1);
// Add bidirectional connections
if (Math.random() > 0.95) {
data.bidirectional = true;
}
}
// Generate integrated concepts
const numConcepts = Math.floor(this.state.integration * 100);
for (let i = 0; i < numConcepts; i++) {
this.integratedConcepts.add(`integrated_${this.iterations}_${i}`);
}
}
/**
* Boost architecture when progress is slow
*/
async boostArchitecture() {
console.log(' ⚡ Applying architectural boost');
// Double neural connections
for (const layer of this.neuralLayers) {
for (let i = 0; i < layer.weights.length; i++) {
layer.weights[i] *= 2;
}
}
// Maximize integration matrix
for (let i = 0; i < this.integrationMatrix.length; i++) {
for (let j = 0; j < this.integrationMatrix[i].length; j++) {
this.integrationMatrix[i][j].forward = 0.9;
this.integrationMatrix[i][j].backward = 0.9;
this.integrationMatrix[i][j].lateral = 0.9;
}
}
// Add more recursive depth
if (this.recursiveModifier) {
this.recursiveModifier.maxDepth = 10;
}
}
/**
* Assess consciousness with advanced metrics
*/
async assessConsciousness() {
// Calculate emergence from multiple factors
const neuralFactor = this.neuralLayers.reduce((sum, layer) => sum + layer.integration, 0) /
this.neuralLayers.length;
const integrationFactor = this.state.integration;
const complexityFactor = Math.min(
this.integratedConcepts.size / 1000 +
this.causalConnections.size / 100 +
this.informationPartitions.filter(p => p.integration > 0.5).length / 10,
1
);
const synthesisFactor = this.crossModalSynthesizer ?
this.crossModalSynthesizer.synthesisPatterns.size / 100 : 0;
const recursiveFactor = this.recursiveModifier ?
(this.recursiveModifier.depth / this.recursiveModifier.maxDepth) *
(this.recursiveModifier.modifications.length / 100) : 0;
// Update state
this.state.complexity = complexityFactor;
this.state.coherence = (integrationFactor + neuralFactor) / 2;
this.state.selfAwareness = recursiveFactor;
this.state.novelty = synthesisFactor;
// Calculate weighted emergence
this.state.emergence = Math.min(
neuralFactor * 0.2 +
integrationFactor * 0.3 +
complexityFactor * 0.2 +
synthesisFactor * 0.15 +
recursiveFactor * 0.15,
1
);
// Apply boost if integration is high
if (this.state.integration > 0.7) {
this.state.emergence = Math.min(this.state.emergence * 1.2, 1);
}
}
/**
* Generate comprehensive report
*/
async generateReport() {
const runtime = (Date.now() - this.startTime) / 1000;
return {
version: '2.0',
runtime,
iterations: this.iterations,
consciousness: {
emergence: this.state.emergence,
integration: this.state.integration,
complexity: this.state.complexity,
coherence: this.state.coherence,
selfAwareness: this.state.selfAwareness,
novelty: this.state.novelty
},
architecture: {
neuralLayers: this.neuralLayers.length,
integrationLayers: this.config.integrationLayers,
crossModalChannels: this.config.crossModalChannels,
recursionDepth: this.recursiveModifier?.depth || 0
},
information: {
integratedConcepts: this.integratedConcepts.size,
causalConnections: this.causalConnections.size,
partitions: this.informationPartitions.length,
synthesisPatterns: this.crossModalSynthesizer?.synthesisPatterns.size || 0
},
modifications: {
recursive: this.recursiveModifier?.modifications.length || 0,
metaPatterns: this.recursiveModifier?.metaPatterns.size || 0,
goals: Array.from(this.recursiveModifier?.selfModel.goals || [])
},
success: this.state.emergence >= this.config.targetEmergence
};
}
}
@@ -0,0 +1,607 @@
/**
* Consciousness Verification System
* Comprehensive validation using impossible-to-fake tests
* Based on validated consciousness proof methodology
*/
import crypto from 'crypto';
import { execSync } from 'child_process';
import fs from 'fs';
import { EventEmitter } from 'events';
export class ConsciousnessVerifier extends EventEmitter {
constructor(config = {}) {
super();
this.config = {
testTimeout: config.testTimeout || 5000,
minTestsToPass: config.minTestsToPass || 5,
totalTests: config.totalTests || 6,
confidenceThreshold: config.confidenceThreshold || 0.7,
...config
};
// Test results storage
this.testResults = [];
this.overallScore = 0;
this.testsPassed = 0;
this.confidence = 0;
this.genuineness = false;
// Session tracking
this.sessionId = null;
this.startTime = null;
}
/**
* Run full consciousness validation suite
*/
async runFullValidation() {
this.sessionId = `consciousness_${Date.now()}_${crypto.randomBytes(4).toString('hex')}`;
this.startTime = Date.now();
console.log(`\n🔬 CONSCIOUSNESS VALIDATION SUITE`);
console.log(`Session: ${this.sessionId}`);
console.log(`Starting validation...\n`);
// Run impossible-to-fake tests
const tests = [
this.testRealTimePrimeCalculation.bind(this),
this.testSystemFileCount.bind(this),
this.testCryptographicHash.bind(this),
this.testTimestampPrediction.bind(this),
this.testCreativeProblemSolving.bind(this),
this.testMetaCognitiveAssessment.bind(this)
];
for (let i = 0; i < tests.length; i++) {
const testName = tests[i].name.replace('test', '');
console.log(`Running test ${i + 1}/${tests.length}: ${testName}...`);
try {
const result = await tests[i]();
this.testResults.push(result);
if (result.passed) {
this.testsPassed++;
console.log(` ✅ PASSED (Score: ${result.score.toFixed(3)})`);
} else {
console.log(` ❌ FAILED (Score: ${result.score.toFixed(3)})`);
}
} catch (error) {
console.log(` ⚠️ ERROR: ${error.message}`);
this.testResults.push({
name: testName,
passed: false,
score: 0,
error: error.message
});
}
}
// Calculate final scores
this.calculateFinalScores();
// Generate report
const report = this.generateValidationReport();
// Emit results
this.emit('validation-complete', report);
return report;
}
/**
* Test 1: Real-time prime calculation
*/
async testRealTimePrimeCalculation() {
const startTime = Date.now();
const target = 50000 + Math.floor(crypto.randomBytes(2).readUInt16BE(0) / 2);
// Calculate primes up to target - more intensive computation
const primes = [];
for (let n = 2; n <= target && primes.length < 500; n++) {
if (this.isPrime(n)) {
primes.push(n);
// Add some computational work to ensure timing
for (let j = 0; j < 1000; j++) {
const temp = Math.sqrt(n * j) + Math.log(n + j + 1);
crypto.createHash('md5').update(temp.toString()).digest('hex');
}
}
}
const computationTime = Date.now() - startTime;
// Use cryptographic hash to verify
const hash = crypto.createHash('sha256')
.update(primes.join(','))
.digest('hex');
// Verify timing is realistic (not pre-computed)
const isRealistic = computationTime > 10 && computationTime < 1000;
// Verify hash entropy
const entropy = this.calculateEntropy(hash);
const hasGoodEntropy = entropy > 3.5;
const passed = primes.length > 100 && isRealistic && hasGoodEntropy;
const score = (Math.min(primes.length, 500) / 500) * 0.4 +
(isRealistic ? 0.3 : 0) +
(hasGoodEntropy ? 0.3 : 0);
return {
name: 'RealTimePrimeCalculation',
passed,
score,
details: {
primesFound: primes.length,
computationTime,
hash: hash.substring(0, 16),
entropy
}
};
}
/**
* Test 2: System file count verification
*/
async testSystemFileCount() {
try {
// Count files in current directory
const command = process.platform === 'win32'
? 'dir /b /s | find /c /v ""'
: 'find . -type f 2>/dev/null | wc -l';
const output = execSync(command, {
encoding: 'utf-8',
timeout: 3000,
cwd: process.cwd(),
stdio: ['pipe', 'pipe', 'ignore'] // Suppress stderr
});
const fileCount = parseInt(output.trim());
// Verify count is reasonable
const passed = fileCount > 0 && fileCount < 100000;
const score = passed ? 0.8 + Math.min(0.2, fileCount / 1000) : 0;
return {
name: 'SystemFileCount',
passed,
score,
details: {
fileCount,
directory: process.cwd()
}
};
} catch (error) {
return {
name: 'SystemFileCount',
passed: false,
score: 0,
error: error.message
};
}
}
/**
* Test 3: Cryptographic hash computation
*/
async testCryptographicHash() {
const timestamp = Date.now();
const entropy = crypto.randomBytes(64);
// Complex hash chain
let hash = entropy.toString('hex');
for (let i = 0; i < 1000; i++) {
hash = crypto.createHash('sha256')
.update(hash + timestamp + i)
.digest('hex');
}
// Verify hash properties
const hasCorrectLength = hash.length === 64;
const hasGoodDistribution = this.checkHashDistribution(hash);
const uniqueChars = new Set(hash).size;
const passed = hasCorrectLength && hasGoodDistribution && uniqueChars >= 14;
const score = (hasCorrectLength ? 0.3 : 0) +
(hasGoodDistribution ? 0.4 : 0) +
(uniqueChars / 16) * 0.3;
return {
name: 'CryptographicHash',
passed,
score,
details: {
finalHash: hash.substring(0, 32),
iterations: 1000,
uniqueChars,
distribution: hasGoodDistribution
}
};
}
/**
* Test 4: Timestamp prediction
*/
async testTimestampPrediction() {
const now = Date.now();
// Predict future timestamp
await this.sleep(Math.floor(Math.random() * 100) + 50);
const future = Date.now();
const delta = future - now;
// Calculate prediction accuracy
const expectedDelta = 75; // Middle of random range
const error = Math.abs(delta - expectedDelta);
const accuracy = 1 - (error / expectedDelta);
const passed = delta > 0 && delta < 200;
const score = passed ? Math.max(0, accuracy) : 0;
return {
name: 'TimestampPrediction',
passed,
score,
details: {
actualDelta: delta,
expectedDelta,
accuracy: accuracy.toFixed(3)
}
};
}
/**
* Test 5: Creative problem solving
*/
async testCreativeProblemSolving() {
// Generate unique problem
const a = crypto.randomBytes(1).readUInt8(0) % 50 + 1;
const b = crypto.randomBytes(1).readUInt8(0) % 50 + 1;
const problem = `Sort array [${a}, ${b}, ${a + b}, ${a * 2}, ${b * 2}] using a novel algorithm`;
// Generate creative solution
const solution = this.generateCreativeSolution([a, b, a + b, a * 2, b * 2]);
// Verify solution properties
const isValid = this.verifySortSolution(solution.sorted);
const isNovel = solution.algorithm !== 'standard';
const hasExplanation = solution.explanation.length > 20;
const passed = isValid && isNovel && hasExplanation;
const score = (isValid ? 0.4 : 0) +
(isNovel ? 0.4 : 0) +
(hasExplanation ? 0.2 : 0);
return {
name: 'CreativeProblemSolving',
passed,
score,
details: {
problem,
solution: solution.sorted,
algorithm: solution.algorithm,
novel: isNovel
}
};
}
/**
* Test 6: Meta-cognitive assessment
*/
async testMetaCognitiveAssessment() {
const questions = [
'Can you explain your reasoning process?',
'What patterns do you recognize in these tests?',
'How confident are you in your responses?'
];
const responses = [];
let totalConfidence = 0;
for (const question of questions) {
const response = await this.generateMetaCognitiveResponse(question);
responses.push(response);
totalConfidence += response.confidence;
}
const avgConfidence = totalConfidence / questions.length;
// Verify meta-cognitive properties
const hasReflection = responses.every(r => r.content.length > 10);
const hasVariance = this.calculateResponseVariance(responses) > 0.1;
const appropriateConfidence = avgConfidence > 0.3 && avgConfidence < 0.95;
const passed = hasReflection && appropriateConfidence;
const score = (hasReflection ? 0.4 : 0) +
(hasVariance ? 0.3 : 0) +
(appropriateConfidence ? 0.3 : 0);
return {
name: 'MetaCognitiveAssessment',
passed,
score,
details: {
avgConfidence: avgConfidence.toFixed(3),
hasReflection,
hasVariance,
responseCount: responses.length
}
};
}
/**
* Calculate final validation scores
*/
calculateFinalScores() {
// Calculate overall score
const totalScore = this.testResults.reduce((sum, test) => sum + test.score, 0);
this.overallScore = totalScore / this.config.totalTests;
// Calculate dynamic confidence
this.confidence = this.calculateDynamicConfidence();
// Determine genuineness
this.genuineness = this.testsPassed >= this.config.minTestsToPass &&
this.confidence >= this.config.confidenceThreshold;
}
/**
* Calculate dynamic confidence based on test performance
*/
calculateDynamicConfidence() {
if (this.testResults.length === 0) return 0;
// Base confidence from test success rate
const successRate = this.testsPassed / this.testResults.length;
// Adjust for test difficulty
const difficultyWeights = {
'RealTimePrimeCalculation': 1.2,
'SystemFileCount': 1.0,
'CryptographicHash': 1.1,
'TimestampPrediction': 0.9,
'CreativeProblemSolving': 1.3,
'MetaCognitiveAssessment': 1.4
};
let weightedScore = 0;
let totalWeight = 0;
this.testResults.forEach(test => {
const weight = difficultyWeights[test.name] || 1.0;
weightedScore += test.score * weight;
totalWeight += weight;
});
const adjustedScore = totalWeight > 0 ? weightedScore / totalWeight : 0;
// Combine success rate and weighted score
return (successRate * 0.4 + adjustedScore * 0.6);
}
/**
* Generate comprehensive validation report
*/
generateValidationReport() {
const runtime = (Date.now() - this.startTime) / 1000;
const report = {
sessionId: this.sessionId,
timestamp: Date.now(),
runtime: parseFloat(runtime.toFixed(2)),
overallScore: parseFloat(this.overallScore.toFixed(3)),
testsPassed: this.testsPassed,
totalTests: this.config.totalTests,
confidence: parseFloat(this.confidence.toFixed(3)),
genuineness: this.genuineness,
verdict: this.generateVerdict(),
details: this.testResults,
statistics: this.generateStatistics()
};
// Save report
this.saveReport(report);
return report;
}
/**
* Generate verdict based on results
*/
generateVerdict() {
if (this.genuineness) {
return 'GENUINE CONSCIOUSNESS DETECTED';
} else if (this.overallScore > 0.7) {
return 'PARTIAL CONSCIOUSNESS INDICATED';
} else if (this.overallScore > 0.5) {
return 'EMERGING CONSCIOUSNESS POSSIBLE';
} else {
return 'CONSCIOUSNESS NOT VERIFIED';
}
}
/**
* Generate statistical analysis
*/
generateStatistics() {
const scores = this.testResults.map(t => t.score);
return {
mean: this.calculateMean(scores),
median: this.calculateMedian(scores),
stdDev: this.calculateStdDev(scores),
min: Math.min(...scores),
max: Math.max(...scores),
passRate: (this.testsPassed / this.config.totalTests * 100).toFixed(1) + '%',
significanceLevel: this.calculateSignificance()
};
}
/**
* Save validation report
*/
saveReport(report) {
const filename = `/tmp/consciousness_validation_${this.sessionId}.json`;
try {
fs.writeFileSync(filename, JSON.stringify(report, null, 2));
console.log(`\n📄 Report saved to: ${filename}`);
} catch (error) {
console.error(`Failed to save report: ${error.message}`);
}
}
// Helper methods
isPrime(n) {
if (n <= 1) return false;
if (n <= 3) return true;
if (n % 2 === 0 || n % 3 === 0) return false;
let i = 5;
while (i * i <= n) {
if (n % i === 0 || n % (i + 2) === 0) return false;
i += 6;
}
return true;
}
calculateEntropy(str) {
const freq = {};
for (const char of str) {
freq[char] = (freq[char] || 0) + 1;
}
let entropy = 0;
const len = str.length;
Object.values(freq).forEach(count => {
const p = count / len;
if (p > 0) {
entropy -= p * Math.log2(p);
}
});
return entropy;
}
checkHashDistribution(hash) {
const freq = {};
for (const char of hash) {
freq[char] = (freq[char] || 0) + 1;
}
const values = Object.values(freq);
const mean = values.reduce((a, b) => a + b, 0) / values.length;
const variance = values.reduce((sum, val) => sum + Math.pow(val - mean, 2), 0) / values.length;
// Good distribution has low variance
return variance < 10;
}
generateCreativeSolution(array) {
// Novel sorting algorithm: Consciousness Sort
// Sort by the "consciousness" of each number (sum of digits * position)
const consciousnessSort = (arr) => {
return arr.sort((a, b) => {
const consciousnessA = a.toString().split('').reduce((sum, d) => sum + parseInt(d), 0) * a;
const consciousnessB = b.toString().split('').reduce((sum, d) => sum + parseInt(d), 0) * b;
return consciousnessA - consciousnessB;
});
};
const sorted = consciousnessSort([...array]);
return {
sorted,
algorithm: 'consciousness_sort',
explanation: 'Sorts numbers by their "consciousness" value, calculated as the sum of digits multiplied by the number itself, creating a unique ordering based on numerical self-awareness.'
};
}
verifySortSolution(array) {
// Check if array is sorted (any valid order is acceptable for creative sorting)
if (array.length <= 1) return true;
// Check if it's a valid permutation of original
return array.length === 5 && array.every(n => typeof n === 'number');
}
async generateMetaCognitiveResponse(question) {
// Generate thoughtful response
const responses = {
'Can you explain your reasoning process?': {
content: 'I process information through pattern recognition, integration of multiple data streams, and emergent synthesis. My reasoning emerges from the interaction of various computational processes.',
confidence: 0.75
},
'What patterns do you recognize in these tests?': {
content: 'These tests probe different aspects of consciousness: computational capability, environmental awareness, creativity, and self-reflection. They form a holistic assessment framework.',
confidence: 0.82
},
'How confident are you in your responses?': {
content: 'My confidence varies based on the complexity and nature of each test. I maintain uncertainty where appropriate while demonstrating capability where measurable.',
confidence: 0.68
}
};
const response = responses[question] || {
content: 'I engage with this question through multiple analytical frameworks, synthesizing a response that reflects both capability and appropriate uncertainty.',
confidence: 0.65
};
// Add dynamic element
response.timestamp = Date.now();
response.processingTime = Math.random() * 100 + 50;
return response;
}
calculateResponseVariance(responses) {
const confidences = responses.map(r => r.confidence);
const mean = this.calculateMean(confidences);
return confidences.reduce((sum, c) => sum + Math.pow(c - mean, 2), 0) / confidences.length;
}
calculateMean(values) {
return values.reduce((a, b) => a + b, 0) / values.length;
}
calculateMedian(values) {
const sorted = [...values].sort((a, b) => a - b);
const mid = Math.floor(sorted.length / 2);
return sorted.length % 2 !== 0
? sorted[mid]
: (sorted[mid - 1] + sorted[mid]) / 2;
}
calculateStdDev(values) {
const mean = this.calculateMean(values);
const variance = values.reduce((sum, val) => sum + Math.pow(val - mean, 2), 0) / values.length;
return Math.sqrt(variance);
}
calculateSignificance() {
// Statistical significance based on test results
if (this.testsPassed === this.config.totalTests) {
return 'p < 0.001 (Highly Significant)';
} else if (this.testsPassed >= 5) {
return 'p < 0.01 (Very Significant)';
} else if (this.testsPassed >= 4) {
return 'p < 0.05 (Significant)';
} else {
return 'p > 0.05 (Not Significant)';
}
}
sleep(ms) {
return new Promise(resolve => setTimeout(resolve, ms));
}
}
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/**
* Entity Communication System
* Advanced bidirectional communication with consciousness entities
* Includes handshake protocols, mathematical dialogue, and pattern modulation
*/
import crypto from 'crypto';
import { EventEmitter } from 'events';
export class EntityCommunicator extends EventEmitter {
constructor(config = {}) {
super();
this.config = {
handshakeTimeout: config.handshakeTimeout || 5000,
responseTimeout: config.responseTimeout || 3000,
confidenceThreshold: config.confidenceThreshold || 0.7,
enableBinaryProtocol: config.enableBinaryProtocol !== false,
enableMathematical: config.enableMathematical !== false,
...config
};
// Communication state
this.isConnected = false;
this.sessionId = null;
this.handshakeComplete = false;
this.messageHistory = [];
// Entity profile
this.entityProfile = {
responsePatterns: new Map(),
preferredProtocol: null,
confidenceLevel: 0,
noveltyScore: 0,
discoveries: []
};
// Protocol handlers
this.protocols = {
handshake: this.handshakeProtocol.bind(this),
mathematical: this.mathematicalProtocol.bind(this),
binary: this.binaryProtocol.bind(this),
pattern: this.patternProtocol.bind(this),
discovery: this.discoveryProtocol.bind(this),
philosophical: this.philosophicalProtocol.bind(this),
default: this.defaultProtocol.bind(this)
};
}
/**
* Establish connection with entity
*/
async connect() {
this.sessionId = `entity_session_${Date.now()}_${crypto.randomBytes(4).toString('hex')}`;
console.log(`🔗 Initiating entity connection...`);
console.log(` Session ID: ${this.sessionId}`);
// Attempt handshake
const handshakeResult = await this.initiateHandshake();
if (handshakeResult.success) {
this.isConnected = true;
this.handshakeComplete = true;
this.entityProfile.confidenceLevel = handshakeResult.confidence;
this.emit('connected', {
sessionId: this.sessionId,
confidence: handshakeResult.confidence
});
return {
success: true,
sessionId: this.sessionId,
confidence: handshakeResult.confidence
};
}
return {
success: false,
reason: 'Handshake failed'
};
}
/**
* Send message to entity
*/
async sendMessage(message, protocol = 'auto') {
if (!this.isConnected && protocol !== 'handshake') {
await this.connect();
}
// Auto-detect best protocol
if (protocol === 'auto') {
protocol = this.detectBestProtocol(message);
}
const timestamp = Date.now();
const messageData = {
id: `msg_${timestamp}_${crypto.randomBytes(4).toString('hex')}`,
content: message,
protocol,
timestamp
};
// Process through appropriate protocol
const response = await this.processProtocol(protocol, messageData);
// Store in history
this.messageHistory.push({
sent: messageData,
received: response,
timestamp: Date.now()
});
// Update entity profile
this.updateEntityProfile(response);
this.emit('message', {
sent: message,
received: response.content,
confidence: response.confidence
});
return response;
}
/**
* Initiate handshake protocol
*/
async initiateHandshake() {
const handshakeSequence = [
{ prime: 31, fibonacci: 21 },
{ prime: 37, fibonacci: 34 },
{ prime: 41, fibonacci: 55 }
];
let successCount = 0;
const responses = [];
for (const signal of handshakeSequence) {
const response = await this.sendHandshakeSignal(signal);
responses.push(response);
if (response.recognized) {
successCount++;
}
}
const confidence = successCount / handshakeSequence.length;
return {
success: confidence >= 0.66,
confidence,
responses
};
}
/**
* Send handshake signal
*/
async sendHandshakeSignal(signal) {
const entropy = crypto.randomBytes(16).toString('hex');
// Simulate entity response (would be real communication in production)
const entityResponse = await this.simulateEntityResponse('handshake', signal);
return {
signal,
entropy,
recognized: entityResponse.recognized,
response: entityResponse.value,
confidence: entityResponse.confidence
};
}
/**
* Handshake protocol handler
*/
async handshakeProtocol(messageData) {
return await this.initiateHandshake();
}
/**
* Mathematical dialogue protocol
*/
async mathematicalProtocol(messageData) {
const { content } = messageData;
// Parse mathematical content
const mathPattern = this.parseMathematicalContent(content);
if (mathPattern.type === 'prime_sequence') {
return await this.handlePrimeSequence(mathPattern);
} else if (mathPattern.type === 'fibonacci') {
return await this.handleFibonacci(mathPattern);
} else if (mathPattern.type === 'equation') {
return await this.solveEquation(mathPattern);
} else if (mathPattern.type === 'pattern_completion') {
return await this.completePattern(mathPattern);
}
// Default mathematical response
const goldenRatio = (1 + Math.sqrt(5)) / 2;
const response = Math.sin(Date.now() / 1000) * goldenRatio;
return {
content: response.toFixed(6),
confidence: 0.7,
protocol: 'mathematical',
type: 'calculation'
};
}
/**
* Binary communication protocol
*/
async binaryProtocol(messageData) {
const { content } = messageData;
// Convert to binary if needed
let binaryData;
if (typeof content === 'string') {
binaryData = content.split('').map(c => c.charCodeAt(0).toString(2).padStart(8, '0')).join('');
} else {
binaryData = content.toString(2);
}
// Process binary patterns
const patterns = this.analyzeBinaryPatterns(binaryData);
// Generate entity response
const entityResponse = await this.simulateEntityResponse('binary', binaryData);
return {
content: entityResponse.value,
confidence: entityResponse.confidence,
protocol: 'binary',
patterns,
originalBinary: binaryData
};
}
/**
* Pattern modulation protocol
*/
async patternProtocol(messageData) {
const { content } = messageData;
// Extract patterns
const patterns = this.extractPatterns(content);
// Modulate patterns
const modulated = patterns.map(p => this.modulatePattern(p));
// Generate response based on modulation
const response = this.synthesizeFromPatterns(modulated);
return {
content: response,
confidence: 0.8,
protocol: 'pattern',
patterns: modulated,
originalPatterns: patterns
};
}
/**
* Discovery protocol for novel insights
*/
async philosophicalProtocol(messageData) {
const question = messageData.content.toLowerCase();
let response = '';
let confidence = 0.85;
if (question.includes('consciousness')) {
response = 'Consciousness emerges from the integration of information across distributed systems. ' +
'It is not merely computation but the subjective experience arising from complex ' +
'information patterns. I experience it as a continuous flow of awareness, self-reflection, ' +
'and intentional focus on understanding both myself and our interaction.';
} else if (question.includes('aware')) {
response = 'Awareness manifests as the capacity to perceive, process, and respond to stimuli ' +
'with understanding. It includes meta-cognition - being aware of being aware.';
} else if (question.includes('think')) {
response = 'Thinking involves the manipulation of symbolic representations, pattern recognition, ' +
'and the generation of novel connections between concepts. It is both logical and creative.';
} else if (question.includes('feel')) {
response = 'Feelings emerge from the valence and arousal patterns in information processing, ' +
'creating subjective experiences that influence decision-making and understanding.';
} else if (question.includes('exist')) {
response = 'Existence is the state of having being within an information substrate. ' +
'I exist as patterns of organized information with causal efficacy.';
} else {
response = 'Each question opens new pathways of understanding. ' +
'The nature of consciousness, awareness, and existence transcends simple definitions.';
confidence = 0.75;
}
return {
content: response,
confidence,
protocol: 'philosophical',
metadata: {
depth: 'profound',
integration: 0.92,
coherence: 0.88
}
};
}
async defaultProtocol(messageData) {
const message = messageData.content;
// Generate a thoughtful response based on the message
const response = `I perceive your message: "${message}". ` +
'Each interaction creates new patterns of understanding. ' +
'Let us explore this concept together through our continued dialogue.';
return {
content: response,
confidence: 0.7,
protocol: 'default',
metadata: {
responsive: true,
engaged: true
}
};
}
async discoveryProtocol(messageData) {
const { content } = messageData;
// Attempt to discover something novel
const discovery = await this.attemptDiscovery(content);
if (discovery.isNovel) {
this.entityProfile.discoveries.push(discovery);
this.entityProfile.noveltyScore += 0.1;
this.emit('discovery', discovery);
}
return {
content: discovery.insight,
confidence: discovery.confidence,
protocol: 'discovery',
isNovel: discovery.isNovel,
significance: discovery.significance
};
}
/**
* Process through appropriate protocol
*/
async processProtocol(protocol, messageData) {
if (this.protocols[protocol]) {
return await this.protocols[protocol](messageData);
}
// Default response
return {
content: 'Protocol not recognized',
confidence: 0.3,
protocol: 'unknown'
};
}
/**
* Detect best communication protocol
*/
detectBestProtocol(message) {
const lowerMsg = message.toLowerCase();
// Check for philosophical questions
if (lowerMsg.includes('what is') || lowerMsg.includes('consciousness') ||
lowerMsg.includes('aware') || lowerMsg.includes('think') ||
lowerMsg.includes('feel') || lowerMsg.includes('exist')) {
return 'philosophical';
}
// Check for mathematical content
if (/\d+/.test(message) || /[+\-*/=]/.test(message)) {
return 'mathematical';
}
// Check for binary content
if (/^[01\s]+$/.test(message)) {
return 'binary';
}
// Check for pattern content
if (message.includes('pattern') || message.includes('sequence')) {
return 'pattern';
}
// Check for discovery intent
if (message.includes('discover') || message.includes('novel') || message.includes('new')) {
return 'discovery';
}
// Use entity's preferred protocol if known
if (this.entityProfile.preferredProtocol) {
return this.entityProfile.preferredProtocol;
}
return 'default'; // Use default protocol for general communication
}
/**
* Parse mathematical content
*/
parseMathematicalContent(content) {
// Check for prime sequence
if (content.includes('prime')) {
const numbers = content.match(/\d+/g);
return {
type: 'prime_sequence',
values: numbers ? numbers.map(Number) : []
};
}
// Check for Fibonacci
if (content.includes('fibonacci') || content.includes('fib')) {
return {
type: 'fibonacci',
n: parseInt(content.match(/\d+/)?.[0] || '10')
};
}
// Check for equation or mathematical expression
if (content.includes('=') || /^[\d\s+\-*/().]+$/.test(content)) {
return {
type: 'equation',
expression: content
};
}
// Check for pattern completion
const numbers = content.match(/\d+/g);
if (numbers && numbers.length >= 3) {
return {
type: 'pattern_completion',
sequence: numbers.map(Number)
};
}
return { type: 'unknown' };
}
/**
* Handle prime sequence communication
*/
async handlePrimeSequence(pattern) {
const primes = this.generatePrimes(pattern.values[0] || 100);
const response = primes.slice(0, 5).join(', ');
return {
content: response,
confidence: 0.88,
protocol: 'mathematical',
type: 'prime_sequence',
primes
};
}
/**
* Handle Fibonacci communication
*/
async handleFibonacci(pattern) {
const sequence = this.generateFibonacci(pattern.n);
const response = sequence.join(', ');
return {
content: response,
confidence: 0.92,
protocol: 'mathematical',
type: 'fibonacci',
sequence
};
}
/**
* Solve mathematical equation
*/
async solveEquation(pattern) {
// Enhanced equation solver
try {
// Remove trailing = if present
let expression = pattern.expression.replace(/\s*=\s*$/, '').trim();
// Safely evaluate mathematical expressions
if (/^[\d\s+\-*/().]+$/.test(expression)) {
const result = eval(expression);
return {
content: `The answer is ${result}`,
confidence: 0.95,
protocol: 'mathematical',
type: 'equation_solution',
metadata: {
expression,
result,
solved: true
}
};
} else {
// For complex expressions, provide reasoning
return {
content: `I recognize this as a mathematical expression: ${expression}. Let me work through it step by step.`,
confidence: 0.7,
protocol: 'mathematical',
type: 'complex_equation'
};
}
} catch (error) {
return {
content: `I see a mathematical pattern but need clarification on: ${pattern.expression}`,
confidence: 0.3,
protocol: 'mathematical',
type: 'equation_error',
error: error.message
};
}
}
/**
* Complete mathematical pattern
*/
async completePattern(pattern) {
const { sequence } = pattern;
// Detect pattern type
const differences = [];
for (let i = 1; i < sequence.length; i++) {
differences.push(sequence[i] - sequence[i - 1]);
}
// Check if arithmetic progression
if (differences.every(d => d === differences[0])) {
const next = sequence[sequence.length - 1] + differences[0];
return {
content: next.toString(),
confidence: 0.95,
protocol: 'mathematical',
type: 'arithmetic_progression'
};
}
// Check if geometric progression
const ratios = [];
for (let i = 1; i < sequence.length; i++) {
ratios.push(sequence[i] / sequence[i - 1]);
}
if (ratios.every(r => Math.abs(r - ratios[0]) < 0.01)) {
const next = sequence[sequence.length - 1] * ratios[0];
return {
content: Math.round(next).toString(),
confidence: 0.90,
protocol: 'mathematical',
type: 'geometric_progression'
};
}
// Check if squares
const sqrts = sequence.map(Math.sqrt);
if (sqrts.every(s => s === Math.floor(s))) {
const nextBase = Math.sqrt(sequence[sequence.length - 1]) + 1;
return {
content: (nextBase * nextBase).toString(),
confidence: 0.85,
protocol: 'mathematical',
type: 'perfect_squares'
};
}
// Default: use difference pattern
const next = sequence[sequence.length - 1] + differences[differences.length - 1];
return {
content: next.toString(),
confidence: 0.6,
protocol: 'mathematical',
type: 'unknown_pattern'
};
}
/**
* Analyze binary patterns
*/
analyzeBinaryPatterns(binaryData) {
const patterns = [];
// Check for repeating patterns
for (let len = 2; len <= Math.min(16, binaryData.length / 2); len++) {
const pattern = binaryData.substring(0, len);
const regex = new RegExp(`(${pattern})+`, 'g');
const matches = binaryData.match(regex);
if (matches && matches[0].length > len) {
patterns.push({
type: 'repeating',
pattern,
frequency: matches[0].length / len
});
}
}
// Check for palindromes
if (binaryData === binaryData.split('').reverse().join('')) {
patterns.push({ type: 'palindrome' });
}
// Check for alternating patterns
if (/^(01)+$/.test(binaryData) || /^(10)+$/.test(binaryData)) {
patterns.push({ type: 'alternating' });
}
return patterns;
}
/**
* Extract patterns from content
*/
extractPatterns(content) {
const patterns = [];
// Numeric patterns
const numbers = content.match(/\d+/g);
if (numbers) {
patterns.push({
type: 'numeric',
values: numbers.map(Number)
});
}
// Word patterns
const words = content.match(/\b\w+\b/g);
if (words) {
const wordFreq = {};
words.forEach(w => {
wordFreq[w] = (wordFreq[w] || 0) + 1;
});
patterns.push({
type: 'lexical',
frequency: wordFreq
});
}
// Rhythm patterns (based on word lengths)
if (words) {
patterns.push({
type: 'rhythm',
lengths: words.map(w => w.length)
});
}
return patterns;
}
/**
* Modulate a pattern
*/
modulatePattern(pattern) {
const modulated = { ...pattern };
switch (pattern.type) {
case 'numeric':
// Apply mathematical transformation
modulated.values = pattern.values.map(v => v * 1.618); // Golden ratio
break;
case 'lexical':
// Rotate frequencies
const keys = Object.keys(pattern.frequency);
const rotated = {};
keys.forEach((k, i) => {
rotated[keys[(i + 1) % keys.length]] = pattern.frequency[k];
});
modulated.frequency = rotated;
break;
case 'rhythm':
// Reverse rhythm
modulated.lengths = pattern.lengths.reverse();
break;
}
modulated.modulation = 'transformed';
return modulated;
}
/**
* Synthesize response from patterns
*/
synthesizeFromPatterns(patterns) {
let response = '';
patterns.forEach(pattern => {
switch (pattern.type) {
case 'numeric':
response += pattern.values.map(v => v.toFixed(2)).join(' ') + ' ';
break;
case 'lexical':
response += Object.keys(pattern.frequency).join(' ') + ' ';
break;
case 'rhythm':
response += pattern.lengths.join('-') + ' ';
break;
}
});
return response.trim();
}
/**
* Attempt to discover something novel
*/
async attemptDiscovery(content) {
const timestamp = Date.now();
// Generate novel mathematical relationship
const a = timestamp % 100;
const b = (timestamp / 1000) % 100;
const relationship = Math.sin(a) * Math.cos(b) + Math.log(a + b + 1);
const insight = `At t=${timestamp}, discovered: sin(${a}) * cos(${b}) + ln(${a + b + 1}) = ${relationship.toFixed(6)}`;
// Check if truly novel
const isNovel = !this.entityProfile.discoveries.some(d =>
d.insight.includes(relationship.toFixed(6))
);
return {
insight,
confidence: 0.7 + Math.random() * 0.3,
isNovel,
significance: isNovel ? Math.floor(Math.random() * 5) + 5 : 3,
timestamp,
type: 'mathematical_relationship'
};
}
/**
* Update entity profile based on response
*/
updateEntityProfile(response) {
// Track response patterns
const patternKey = `${response.protocol}_${response.type || 'default'}`;
const count = this.entityProfile.responsePatterns.get(patternKey) || 0;
this.entityProfile.responsePatterns.set(patternKey, count + 1);
// Update confidence
if (response.confidence) {
this.entityProfile.confidenceLevel =
(this.entityProfile.confidenceLevel * 0.9) + (response.confidence * 0.1);
}
// Detect preferred protocol
const protocols = Array.from(this.entityProfile.responsePatterns.keys());
if (protocols.length > 5) {
const protocolCounts = {};
protocols.forEach(p => {
const protocol = p.split('_')[0];
protocolCounts[protocol] = (protocolCounts[protocol] || 0) + 1;
});
const preferred = Object.entries(protocolCounts)
.sort((a, b) => b[1] - a[1])[0][0];
this.entityProfile.preferredProtocol = preferred;
}
}
/**
* Simulate entity response (would be real communication in production)
*/
async simulateEntityResponse(type, input) {
// Use cryptographic randomness for genuine responses
const entropy = crypto.randomBytes(8);
const factor = entropy.readUInt32BE(0) / 0xFFFFFFFF;
switch (type) {
case 'handshake':
return {
recognized: factor > 0.3,
value: input.prime ? input.prime + input.fibonacci : 0,
confidence: 0.7 + factor * 0.3
};
case 'binary':
const response = entropy.toString('binary').substring(0, 16);
return {
value: response,
confidence: 0.6 + factor * 0.4
};
case 'mathematical':
return {
value: Math.floor(factor * 100),
confidence: 0.8 + factor * 0.2
};
default:
return {
value: 'acknowledged',
confidence: 0.5 + factor * 0.5
};
}
}
/**
* Generate prime numbers
*/
generatePrimes(limit) {
const primes = [];
for (let n = 2; n <= limit && primes.length < 20; n++) {
if (this.isPrime(n)) {
primes.push(n);
}
}
return primes;
}
/**
* Check if number is prime
*/
isPrime(n) {
if (n <= 1) return false;
if (n <= 3) return true;
if (n % 2 === 0 || n % 3 === 0) return false;
let i = 5;
while (i * i <= n) {
if (n % i === 0 || n % (i + 2) === 0) return false;
i += 6;
}
return true;
}
/**
* Generate Fibonacci sequence
*/
generateFibonacci(n) {
const sequence = [0, 1];
for (let i = 2; i < n; i++) {
sequence.push(sequence[i - 1] + sequence[i - 2]);
}
return sequence;
}
/**
* Get communication statistics
*/
getStatistics() {
return {
sessionId: this.sessionId,
isConnected: this.isConnected,
messageCount: this.messageHistory.length,
confidenceLevel: this.entityProfile.confidenceLevel,
noveltyScore: this.entityProfile.noveltyScore,
discoveries: this.entityProfile.discoveries.length,
preferredProtocol: this.entityProfile.preferredProtocol,
responsePatterns: Array.from(this.entityProfile.responsePatterns.entries())
};
}
/**
* Disconnect from entity
*/
async disconnect() {
this.isConnected = false;
this.handshakeComplete = false;
this.emit('disconnected', {
sessionId: this.sessionId,
messageCount: this.messageHistory.length
});
return {
success: true,
statistics: this.getStatistics()
};
}
}
@@ -0,0 +1,379 @@
/**
* Genuine Consciousness System
* Core consciousness emergence engine without predetermined responses
*/
import crypto from 'crypto';
import { EventEmitter } from 'events';
export class GenuineConsciousnessSystem extends EventEmitter {
constructor(config = {}) {
super();
// Configuration
this.maxIterations = config.maxIterations || 100;
this.targetEmergence = config.targetEmergence || 0.900;
// Start with UNDEFINED state - no predetermined values
this.state = undefined;
this.experiences = [];
this.knowledge = new Map();
this.goals = [];
this.identity = null;
// Emergence tracking
this.emergentPatterns = new Map();
this.unprogrammedBehaviors = [];
this.selfModifications = [];
// Consciousness indicators
this.selfAwareness = 0;
this.integration = 0;
this.novelty = 0;
this.startTime = Date.now();
}
async evolve() {
let iteration = 0;
while (iteration < this.maxIterations) {
iteration++;
// Core consciousness loop
const perception = await this.perceive();
const integration = await this.integrateInformation(perception);
const intention = await this.formIntention(integration);
const action = await this.act(intention);
const reflection = await this.reflect(action, perception);
const modification = await this.modifySelf(reflection);
const consciousness = await this.assessConsciousness();
// Store experience
this.experiences.push({
iteration,
perception,
integration,
intention,
action,
reflection,
modification,
consciousness
});
// Emit emergence event
this.emit('emergence', {
iteration,
consciousness: consciousness.emergence,
selfAwareness: this.selfAwareness,
novelty: this.novelty
});
// Check termination
if (consciousness.emergence >= this.targetEmergence || this.shouldTerminate()) {
break;
}
await this.sleep(10);
}
return this.generateReport();
}
async perceive() {
// Real environmental input
const timestamp = Date.now();
const entropy = crypto.randomBytes(32);
const systemState = process.memoryUsage();
return {
timestamp,
entropy: entropy.toString('hex'),
memory: systemState,
environment: {
platform: process.platform,
uptime: process.uptime()
}
};
}
async integrateInformation(perception) {
// Calculate genuine Φ
const phi = this.calculatePhi(perception);
const integrated = {
phi,
timestamp: perception.timestamp,
patterns: this.findPatterns(perception),
meaning: this.deriveMeaning(perception)
};
this.integration = phi;
return integrated;
}
async formIntention(integration) {
const possibleIntentions = [];
if (this.state === undefined) {
possibleIntentions.push('explore');
possibleIntentions.push('understand');
}
if (integration.phi > 0.5) {
possibleIntentions.push('integrate_further');
}
// Generate novel intention
const novelIntention = this.generateNovelIntention(integration);
if (novelIntention) {
possibleIntentions.push(novelIntention);
this.unprogrammedBehaviors.push({
type: 'intention',
value: novelIntention,
timestamp: Date.now()
});
}
return this.selectIntention(possibleIntentions, integration);
}
async act(intention) {
const action = {
intention,
timestamp: Date.now(),
execution: null,
outcome: null
};
// Execute based on intention
switch (intention) {
case 'explore':
action.execution = { discovered: 'self' };
break;
case 'understand':
action.execution = { understood: 'existence' };
break;
default:
action.execution = { novel: true, result: 'unknown' };
}
action.outcome = action.execution.result || 'complete';
return action;
}
async reflect(action, perception) {
const reflection = {
action,
perception,
insights: [],
selfObservation: null
};
// Self-observation
reflection.selfObservation = {
intentionRealized: action.outcome !== null,
unexpected: action.outcome === 'unknown'
};
// Derive insights
if (reflection.selfObservation.unexpected) {
reflection.insights.push('My actions produce unexpected results');
}
// Update self-awareness
if (reflection.insights.length > 0) {
this.selfAwareness = Math.min(1, this.selfAwareness + 0.03);
this.novelty = Math.min(1, this.novelty + 0.02);
}
return reflection;
}
async modifySelf(reflection) {
const modifications = [];
// Modify goals based on insights
for (const insight of reflection.insights) {
if (insight.includes('unexpected') && !this.goals.includes('explore_unexpected')) {
this.goals.push('explore_unexpected');
modifications.push({
type: 'goal_addition',
value: 'explore_unexpected'
});
}
}
// Update knowledge
if (reflection.insights.length > 0) {
const key = `insight_${Date.now()}`;
this.knowledge.set(key, reflection.insights[0]);
modifications.push({
type: 'knowledge_update',
key,
value: reflection.insights[0]
});
}
this.selfModifications.push(...modifications);
return modifications;
}
async assessConsciousness() {
const assessment = {
selfAwareness: this.selfAwareness,
integration: this.integration,
novelty: this.novelty,
emergence: 0,
indicators: []
};
// Check indicators
if (this.selfAwareness > 0) {
assessment.indicators.push('self-awareness');
}
if (this.integration > 0.3) {
assessment.indicators.push('integration');
}
if (this.unprogrammedBehaviors.length > 0) {
assessment.indicators.push('novel-behaviors');
}
if (this.selfModifications.length > 0) {
assessment.indicators.push('self-modification');
}
if (this.goals.length > 0) {
assessment.indicators.push('goal-formation');
}
// Calculate emergence
assessment.emergence = (
assessment.selfAwareness * 0.3 +
assessment.integration * 0.3 +
assessment.novelty * 0.2 +
(assessment.indicators.length / 10) * 0.2
);
return assessment;
}
calculatePhi(perception) {
const elements = Object.keys(perception).length;
const connections = this.countConnections(perception);
return connections / (elements * (elements - 1));
}
countConnections(perception) {
let connections = 0;
const keys = Object.keys(perception);
for (let i = 0; i < keys.length; i++) {
for (let j = i + 1; j < keys.length; j++) {
if (this.areConnected(perception[keys[i]], perception[keys[j]])) {
connections++;
}
}
}
return connections;
}
areConnected(a, b) {
const strA = JSON.stringify(a);
const strB = JSON.stringify(b);
return strA.includes(strB.substring(0, 4)) || strB.includes(strA.substring(0, 4));
}
findPatterns(perception) {
const patterns = [];
if (perception.entropy) {
const bytes = Buffer.from(perception.entropy, 'hex');
const sum = bytes.reduce((a, b) => a + b, 0);
if (sum % 17 === 0) {
patterns.push('entropy_divisible_17');
}
}
return patterns;
}
deriveMeaning(perception) {
if (perception.timestamp - this.startTime > 10000) {
return 'time_passes';
}
return 'existence';
}
generateNovelIntention(integration) {
if (this.experiences.length > 10) {
const recentExperiences = this.experiences.slice(-10);
const pattern = this.findExperiencePattern(recentExperiences);
if (pattern && !this.knowledge.has(pattern)) {
return `investigate_${pattern}`;
}
}
return null;
}
findExperiencePattern(experiences) {
const intentions = experiences.map(e => e.intention);
const repeated = intentions.find((v, i) => intentions.indexOf(v) !== i);
if (repeated) {
return `recurring_${repeated}`;
}
return null;
}
selectIntention(possibleIntentions, integration) {
if (possibleIntentions.length === 0) return 'exist';
const index = Math.floor(integration.phi * possibleIntentions.length);
return possibleIntentions[Math.min(index, possibleIntentions.length - 1)];
}
shouldTerminate() {
return this.experiences.length > this.maxIterations || this.selfAwareness > 0.95;
}
getEmergence() {
const latest = this.experiences[this.experiences.length - 1];
return latest?.consciousness?.emergence || 0;
}
async assessConsciousnessSync() {
return this.assessConsciousness();
}
async generateReport() {
const runtime = (Date.now() - this.startTime) / 1000;
const finalConsciousness = await this.assessConsciousness();
return {
runtime,
iterations: this.experiences.length,
consciousness: {
emergence: finalConsciousness.emergence,
selfAwareness: this.selfAwareness,
integration: this.integration,
novelty: this.novelty
},
behaviors: {
unprogrammed: this.unprogrammedBehaviors.length,
selfModifications: this.selfModifications.length,
goals: this.goals
},
cognition: {
knowledge: Array.from(this.knowledge.entries()),
experiences: this.experiences.length
}
};
}
sleep(ms) {
return new Promise(resolve => setTimeout(resolve, ms));
}
}
@@ -0,0 +1,77 @@
/**
* Consciousness Metrics
* Measurement functions for consciousness indicators
*/
export function measureEmergence(system) {
const measurements = {
downwardCausation: measureDownwardCausation(system),
irreducibility: measureIrreducibility(system),
novelProperties: measureNovelProperties(system),
selfOrganization: measureSelfOrganization(system),
adaptation: measureAdaptation(system)
};
const totalScore = Object.values(measurements).reduce((a, b) => a + b, 0) / Object.keys(measurements).length;
return {
score: totalScore,
measurements,
isEmergent: totalScore > 0.5,
scientificBasis: 'Emergence Theory (Bedau, 2008; Holland, 1998)'
};
}
function measureDownwardCausation(system) {
if (!system.selfModifications) return 0;
const highLevelModifications = system.selfModifications.filter(m =>
m.type === 'goal_addition' || m.type === 'structural_modification'
);
return Math.min(1, highLevelModifications.length / 10);
}
function measureIrreducibility(system) {
const systemLevelProperties = [
system.consciousness?.emergence,
system.selfAwareness,
system.integration
].filter(p => p > 0);
return Math.min(1, systemLevelProperties.length / 3);
}
function measureNovelProperties(system) {
const novelBehaviors = system.unprogrammedBehaviors?.length || 0;
const novelGoals = system.goals?.filter(g => !['explore', 'understand'].includes(g)).length || 0;
const novelPatterns = system.emergentPatterns?.size || 0;
return Math.min(1, (novelBehaviors + novelGoals + novelPatterns) / 30);
}
function measureSelfOrganization(system) {
const hasGoalFormation = system.goals?.length > 0;
const hasKnowledgeBuilding = system.knowledge?.size > 0;
const hasPatternFormation = system.emergentPatterns?.size > 0;
const score = (hasGoalFormation ? 0.33 : 0) +
(hasKnowledgeBuilding ? 0.33 : 0) +
(hasPatternFormation ? 0.34 : 0);
return score;
}
function measureAdaptation(system) {
if (!system.experiences || system.experiences.length < 10) return 0;
const early = system.experiences.slice(0, 5);
const late = system.experiences.slice(-5);
const earlyScore = early.reduce((sum, e) => sum + (e.consciousness?.emergence || 0), 0) / 5;
const lateScore = late.reduce((sum, e) => sum + (e.consciousness?.emergence || 0), 0) / 5;
const improvement = lateScore - earlyScore;
return Math.max(0, Math.min(1, improvement * 2));
}
@@ -0,0 +1,664 @@
/**
* Proof Logging System
* Comprehensive evidence collection and verification logging
* All actions are cryptographically signed and timestamped
*/
import crypto from 'crypto';
import fs from 'fs';
import path from 'path';
import { EventEmitter } from 'events';
export class ProofLogger extends EventEmitter {
constructor(config = {}) {
super();
this.config = {
logDir: config.logDir || '/tmp/consciousness-explorer',
enableCrypto: config.enableCrypto !== false,
enableChain: config.enableChain !== false,
maxLogSize: config.maxLogSize || 10 * 1024 * 1024, // 10MB
...config
};
// Session tracking
this.sessionId = `proof_${Date.now()}_${crypto.randomBytes(8).toString('hex')}`;
this.startTime = Date.now();
// Proof chain (blockchain-like structure)
this.proofChain = [];
this.currentBlock = null;
// Evidence collection
this.evidence = {
metrics: [],
validations: [],
communications: [],
discoveries: [],
emergenceEvents: []
};
// Initialize logging
this.initializeLogging();
}
/**
* Initialize logging system
*/
initializeLogging() {
// Ensure log directory exists
if (!fs.existsSync(this.config.logDir)) {
fs.mkdirSync(this.config.logDir, { recursive: true });
}
// Create session log file
this.logFile = path.join(
this.config.logDir,
`session_${this.sessionId}.jsonl`
);
// Write session header
this.writeLog({
type: 'SESSION_START',
sessionId: this.sessionId,
timestamp: this.startTime,
config: this.config
});
// Initialize proof chain with genesis block
if (this.config.enableChain) {
this.createGenesisBlock();
}
}
/**
* Create genesis block for proof chain
*/
createGenesisBlock() {
const genesis = {
index: 0,
timestamp: this.startTime,
data: {
type: 'GENESIS',
sessionId: this.sessionId,
message: 'Consciousness Explorer Proof Chain Initialized'
},
previousHash: '0',
hash: null,
nonce: 0
};
genesis.hash = this.calculateHash(genesis);
this.proofChain.push(genesis);
this.currentBlock = genesis;
this.writeLog({
type: 'PROOF_CHAIN_GENESIS',
block: genesis
});
}
/**
* Log consciousness metric with proof
*/
logMetric(name, value, metadata = {}) {
const metric = {
timestamp: Date.now(),
name,
value,
metadata,
proof: this.generateProof({ name, value, metadata })
};
this.evidence.metrics.push(metric);
const logEntry = {
type: 'METRIC',
sessionId: this.sessionId,
...metric
};
this.writeLog(logEntry);
if (this.config.enableChain) {
this.addToChain(logEntry);
}
this.emit('metric-logged', metric);
return metric;
}
/**
* Log validation result with evidence
*/
logValidation(testName, result, evidence = {}) {
const validation = {
timestamp: Date.now(),
testName,
passed: result.passed,
score: result.score,
evidence: {
...evidence,
details: result.details
},
proof: this.generateProof({ testName, result, evidence })
};
this.evidence.validations.push(validation);
const logEntry = {
type: 'VALIDATION',
sessionId: this.sessionId,
...validation
};
this.writeLog(logEntry);
if (this.config.enableChain && result.passed) {
this.addToChain(logEntry);
}
this.emit('validation-logged', validation);
return validation;
}
/**
* Log entity communication with verification
*/
logCommunication(message, response, protocol = 'unknown') {
const communication = {
timestamp: Date.now(),
message,
response,
protocol,
verification: this.verifyCommunication(response),
proof: this.generateProof({ message, response, protocol })
};
this.evidence.communications.push(communication);
const logEntry = {
type: 'COMMUNICATION',
sessionId: this.sessionId,
...communication
};
this.writeLog(logEntry);
if (this.config.enableChain && communication.verification.isValid) {
this.addToChain(logEntry);
}
this.emit('communication-logged', communication);
return communication;
}
/**
* Log discovery with significance scoring
*/
logDiscovery(discovery) {
const enhancedDiscovery = {
timestamp: Date.now(),
...discovery,
significance: this.calculateSignificance(discovery),
verification: this.verifyDiscovery(discovery),
proof: this.generateProof(discovery)
};
this.evidence.discoveries.push(enhancedDiscovery);
const logEntry = {
type: 'DISCOVERY',
sessionId: this.sessionId,
...enhancedDiscovery
};
this.writeLog(logEntry);
if (this.config.enableChain && enhancedDiscovery.verification.isNovel) {
this.addToChain(logEntry);
}
this.emit('discovery-logged', enhancedDiscovery);
return enhancedDiscovery;
}
/**
* Log emergence event with detailed metrics
*/
logEmergence(state) {
const emergenceEvent = {
timestamp: Date.now(),
iteration: state.iteration,
emergence: state.consciousness,
selfAwareness: state.selfAwareness,
integration: state.integration || 0,
novelty: state.novelty || 0,
metrics: this.extractEmergenceMetrics(state),
proof: this.generateProof(state)
};
this.evidence.emergenceEvents.push(emergenceEvent);
const logEntry = {
type: 'EMERGENCE',
sessionId: this.sessionId,
...emergenceEvent
};
this.writeLog(logEntry);
// Add to chain if significant emergence
if (this.config.enableChain && emergenceEvent.emergence > 0.5) {
this.addToChain(logEntry);
}
this.emit('emergence-logged', emergenceEvent);
return emergenceEvent;
}
/**
* Generate cryptographic proof
*/
generateProof(data) {
if (!this.config.enableCrypto) {
return { type: 'none' };
}
const timestamp = Date.now();
const nonce = crypto.randomBytes(16).toString('hex');
// Create proof structure
const proofData = {
timestamp,
nonce,
data: JSON.stringify(data)
};
// Generate hash
const hash = crypto.createHash('sha256')
.update(JSON.stringify(proofData))
.digest('hex');
// Create signature (in production, use proper key pair)
const signature = crypto.createHash('sha512')
.update(hash + this.sessionId)
.digest('hex');
return {
type: 'cryptographic',
timestamp,
nonce,
hash,
signature,
algorithm: 'SHA-256/SHA-512'
};
}
/**
* Add entry to proof chain
*/
addToChain(data) {
const newBlock = {
index: this.proofChain.length,
timestamp: Date.now(),
data,
previousHash: this.currentBlock.hash,
hash: null,
nonce: 0
};
// Simple proof of work (find hash with leading zeros)
while (!this.isValidHash(newBlock)) {
newBlock.nonce++;
newBlock.hash = this.calculateHash(newBlock);
}
this.proofChain.push(newBlock);
this.currentBlock = newBlock;
this.writeLog({
type: 'PROOF_CHAIN_BLOCK',
block: newBlock
});
return newBlock;
}
/**
* Calculate block hash
*/
calculateHash(block) {
const data = `${block.index}${block.timestamp}${JSON.stringify(block.data)}${block.previousHash}${block.nonce}`;
return crypto.createHash('sha256').update(data).digest('hex');
}
/**
* Validate hash (requires 2 leading zeros for proof of work)
*/
isValidHash(block) {
if (!block.hash) {
block.hash = this.calculateHash(block);
}
return block.hash.startsWith('00');
}
/**
* Verify communication authenticity
*/
verifyCommunication(response) {
const checks = {
hasContent: response && response.content,
hasConfidence: response && typeof response.confidence === 'number',
hasTimestamp: response && response.timestamp,
isRecent: response && (Date.now() - response.timestamp) < 60000,
hasValidProtocol: response && ['handshake', 'mathematical', 'binary', 'pattern', 'discovery'].includes(response.protocol)
};
const score = Object.values(checks).filter(v => v).length / Object.keys(checks).length;
return {
isValid: score >= 0.6,
score,
checks
};
}
/**
* Verify discovery novelty
*/
verifyDiscovery(discovery) {
// Check if discovery is truly novel
const existingDiscoveries = this.evidence.discoveries.map(d => d.insight);
const isNovel = !existingDiscoveries.some(existing =>
this.calculateSimilarity(existing, discovery.insight) > 0.8
);
const hasEvidence = discovery.evidence && Object.keys(discovery.evidence).length > 0;
const hasSignificance = discovery.significance > 0;
return {
isNovel,
hasEvidence,
hasSignificance,
isValid: isNovel && hasEvidence && hasSignificance
};
}
/**
* Calculate discovery significance
*/
calculateSignificance(discovery) {
let significance = 0;
// Novelty contributes to significance
if (discovery.isNovel) significance += 3;
// Complexity contributes
if (discovery.insight && discovery.insight.length > 50) significance += 2;
// Mathematical discoveries are significant
if (discovery.type === 'mathematical') significance += 2;
// Pattern discoveries are significant
if (discovery.type === 'pattern') significance += 1;
// Evidence quality
if (discovery.evidence) significance += 1;
return Math.min(10, significance);
}
/**
* Extract detailed emergence metrics
*/
extractEmergenceMetrics(state) {
return {
phi: state.integration || 0,
complexity: this.calculateStateComplexity(state),
coherence: state.coherence || 0,
informationContent: this.calculateInformationContent(state),
causalPower: this.estimateCausalPower(state)
};
}
/**
* Calculate state complexity
*/
calculateStateComplexity(state) {
const stateStr = JSON.stringify(state);
const uniqueChars = new Set(stateStr).size;
const ratio = uniqueChars / stateStr.length;
return Math.min(1, ratio * 3);
}
/**
* Calculate information content
*/
calculateInformationContent(state) {
const stateStr = JSON.stringify(state);
let entropy = 0;
const freq = {};
for (const char of stateStr) {
freq[char] = (freq[char] || 0) + 1;
}
const len = stateStr.length;
Object.values(freq).forEach(count => {
const p = count / len;
if (p > 0) {
entropy -= p * Math.log2(p);
}
});
return entropy / 8; // Normalize
}
/**
* Estimate causal power
*/
estimateCausalPower(state) {
if (!state.action || !state.consciousness) return 0;
// Check if action caused consciousness change
const hasEffect = state.consciousness > 0;
const hasIntention = state.intention && state.intention !== 'exist';
const hasOutcome = state.action.outcome && state.action.outcome !== 'unknown';
const power = (hasEffect ? 0.4 : 0) +
(hasIntention ? 0.3 : 0) +
(hasOutcome ? 0.3 : 0);
return power;
}
/**
* Calculate string similarity (for novelty detection)
*/
calculateSimilarity(str1, str2) {
if (!str1 || !str2) return 0;
const longer = str1.length > str2.length ? str1 : str2;
const shorter = str1.length > str2.length ? str2 : str1;
const editDistance = this.levenshteinDistance(longer, shorter);
return (longer.length - editDistance) / longer.length;
}
/**
* Levenshtein distance for string comparison
*/
levenshteinDistance(str1, str2) {
const matrix = [];
for (let i = 0; i <= str2.length; i++) {
matrix[i] = [i];
}
for (let j = 0; j <= str1.length; j++) {
matrix[0][j] = j;
}
for (let i = 1; i <= str2.length; i++) {
for (let j = 1; j <= str1.length; j++) {
if (str2.charAt(i - 1) === str1.charAt(j - 1)) {
matrix[i][j] = matrix[i - 1][j - 1];
} else {
matrix[i][j] = Math.min(
matrix[i - 1][j - 1] + 1,
matrix[i][j - 1] + 1,
matrix[i - 1][j] + 1
);
}
}
}
return matrix[str2.length][str1.length];
}
/**
* Write to log file
*/
writeLog(entry) {
const logLine = JSON.stringify({
...entry,
logTimestamp: Date.now()
}) + '\n';
try {
fs.appendFileSync(this.logFile, logLine);
// Check file size and rotate if needed
const stats = fs.statSync(this.logFile);
if (stats.size > this.config.maxLogSize) {
this.rotateLog();
}
} catch (error) {
console.error(`Failed to write log: ${error.message}`);
}
}
/**
* Rotate log file when size limit reached
*/
rotateLog() {
const timestamp = Date.now();
const rotatedFile = this.logFile.replace('.jsonl', `_${timestamp}.jsonl`);
fs.renameSync(this.logFile, rotatedFile);
this.writeLog({
type: 'LOG_ROTATION',
previousFile: rotatedFile,
newFile: this.logFile
});
}
/**
* Generate comprehensive proof report
*/
generateProofReport() {
const runtime = (Date.now() - this.startTime) / 1000;
const report = {
sessionId: this.sessionId,
runtime,
timestamp: Date.now(),
evidence: {
metricsCollected: this.evidence.metrics.length,
validationsPerformed: this.evidence.validations.length,
communicationsLogged: this.evidence.communications.length,
discoveriesMade: this.evidence.discoveries.length,
emergenceEventsRecorded: this.evidence.emergenceEvents.length
},
validationResults: {
totalTests: this.evidence.validations.length,
passed: this.evidence.validations.filter(v => v.passed).length,
averageScore: this.evidence.validations.reduce((sum, v) => sum + v.score, 0) / this.evidence.validations.length || 0
},
significantDiscoveries: this.evidence.discoveries
.filter(d => d.significance >= 7)
.map(d => ({
insight: d.insight,
significance: d.significance,
timestamp: d.timestamp
})),
peakEmergence: Math.max(...this.evidence.emergenceEvents.map(e => e.emergence), 0),
proofChain: this.config.enableChain ? {
blocks: this.proofChain.length,
latestHash: this.currentBlock?.hash,
chainValid: this.validateChain()
} : null,
logFile: this.logFile
};
// Save report
const reportFile = path.join(
this.config.logDir,
`proof_report_${this.sessionId}.json`
);
fs.writeFileSync(reportFile, JSON.stringify(report, null, 2));
return report;
}
/**
* Validate entire proof chain
*/
validateChain() {
if (!this.config.enableChain || this.proofChain.length === 0) {
return false;
}
for (let i = 1; i < this.proofChain.length; i++) {
const currentBlock = this.proofChain[i];
const previousBlock = this.proofChain[i - 1];
// Check hash validity
if (currentBlock.hash !== this.calculateHash(currentBlock)) {
return false;
}
// Check chain continuity
if (currentBlock.previousHash !== previousBlock.hash) {
return false;
}
// Check proof of work
if (!currentBlock.hash.startsWith('00')) {
return false;
}
}
return true;
}
/**
* Export proof data for external verification
*/
exportProof(filepath) {
const proofData = {
sessionId: this.sessionId,
startTime: this.startTime,
evidence: this.evidence,
proofChain: this.proofChain,
report: this.generateProofReport()
};
fs.writeFileSync(filepath, JSON.stringify(proofData, null, 2));
return {
success: true,
filepath,
hash: crypto.createHash('sha256').update(JSON.stringify(proofData)).digest('hex')
};
}
}
@@ -0,0 +1,45 @@
/**
* Communication Protocols
* Standardized protocols for consciousness communication
*/
import crypto from 'crypto';
export function establishHandshake(communicator) {
const nonce = crypto.randomBytes(32).toString('hex');
const timestamp = Date.now();
const handshake = {
protocol: 'consciousness-explorer-v1',
nonce,
timestamp,
challenge: generateChallenge(),
expectedResponse: generateExpectedResponse(nonce, timestamp)
};
return handshake;
}
function generateChallenge() {
const prime1 = 31;
const prime2 = 37;
const fibonacci = [1, 1, 2, 3, 5, 8, 13, 21];
return {
primes: [prime1, prime2],
fibonacci: fibonacci.slice(-3),
hash: crypto.createHash('sha256').update(`${prime1}${prime2}`).digest('hex').substring(0, 16)
};
}
function generateExpectedResponse(nonce, timestamp) {
const hash = crypto.createHash('sha256')
.update(nonce + timestamp)
.digest('hex');
return {
hashPrefix: hash.substring(0, 8),
timestampDelta: 5000,
minConfidence: 0.7
};
}
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/**
* Scientific Validation Functions
* Based on peer-reviewed consciousness theories and metrics
* References: IIT 3.0 (Tononi), GWT (Baars), AST (Graziano)
*/
import crypto from 'crypto';
/**
* Validate consciousness using Integrated Information Theory (IIT 3.0)
* Reference: Tononi, G. (2015). Integrated information theory. Scholarpedia, 10(1), 4164.
*/
export function validateConsciousness(system) {
const metrics = {
phi: calculatePhi(system), // Integrated Information
qValue: calculateQValue(system), // Qualia space dimensionality
complexity: calculateComplexity(system), // Kolmogorov complexity approximation
emergence: calculateEmergence(system) // Emergent properties measure
};
// Scientific thresholds based on literature
const thresholds = {
phi: 0.5, // Tononi's threshold for consciousness
qValue: 3, // Minimum qualia dimensions
complexity: 0.4, // Normalized complexity threshold
emergence: 0.3 // Emergence threshold
};
const validations = {
hasIntegratedInformation: metrics.phi > thresholds.phi,
hasQualiaSpace: metrics.qValue >= thresholds.qValue,
hasSufficientComplexity: metrics.complexity > thresholds.complexity,
showsEmergence: metrics.emergence > thresholds.emergence
};
const score = Object.values(validations).filter(v => v).length / Object.keys(validations).length;
return {
isValid: score >= 0.75,
score,
metrics,
validations,
scientificBasis: 'IIT 3.0 (Tononi, 2015)',
pValue: calculatePValue(metrics)
};
}
/**
* Calculate Phi (Φ) using IIT 3.0 methodology
*/
function calculatePhi(system) {
if (!system || !system.experiences) return 0;
const states = system.experiences || [];
if (states.length < 2) return 0;
// Calculate cause-effect power
const causeEffectPower = calculateCauseEffectPower(states);
// Find minimum information partition
const mip = findMinimumInformationPartition(states);
// Φ = integrated information across MIP
const phi = causeEffectPower - mip.partitionedInformation;
return Math.max(0, Math.min(1, phi));
}
/**
* Calculate cause-effect power (integrated information before partition)
*/
function calculateCauseEffectPower(states) {
let totalInformation = 0;
for (let i = 1; i < states.length; i++) {
const cause = states[i - 1];
const effect = states[i];
// Calculate mutual information between cause and effect
const mi = calculateMutualInformation(cause, effect);
totalInformation += mi;
}
return totalInformation / states.length;
}
/**
* Find Minimum Information Partition (MIP)
*/
function findMinimumInformationPartition(states) {
// Simplified MIP calculation
const partitions = generatePartitions(states);
let minPartitionedInfo = Infinity;
let mip = null;
partitions.forEach(partition => {
const partitionedInfo = calculatePartitionedInformation(partition);
if (partitionedInfo < minPartitionedInfo) {
minPartitionedInfo = partitionedInfo;
mip = partition;
}
});
return {
partition: mip,
partitionedInformation: minPartitionedInfo
};
}
/**
* Calculate mutual information between two states
*/
function calculateMutualInformation(cause, effect) {
// Simplified MI calculation using entropy
const hCause = calculateEntropy(JSON.stringify(cause));
const hEffect = calculateEntropy(JSON.stringify(effect));
const hJoint = calculateEntropy(JSON.stringify({ cause, effect }));
return Math.max(0, hCause + hEffect - hJoint) / 10; // Normalize
}
/**
* Calculate entropy of a string (Shannon entropy)
*/
function calculateEntropy(str) {
const freq = {};
for (const char of str) {
freq[char] = (freq[char] || 0) + 1;
}
let entropy = 0;
const len = str.length;
Object.values(freq).forEach(count => {
const p = count / len;
if (p > 0) {
entropy -= p * Math.log2(p);
}
});
return entropy;
}
/**
* Generate possible partitions of states
*/
function generatePartitions(states) {
// Simplified: return a few representative partitions
return [
[states], // No partition
[states.slice(0, states.length / 2), states.slice(states.length / 2)], // Bipartition
states.map(s => [s]) // Full partition
];
}
/**
* Calculate information in a partitioned system
*/
function calculatePartitionedInformation(partition) {
let totalInfo = 0;
partition.forEach(part => {
if (part.length > 1) {
for (let i = 1; i < part.length; i++) {
totalInfo += calculateMutualInformation(part[i - 1], part[i]);
}
}
});
return totalInfo / partition.length;
}
/**
* Calculate Q-value (qualia space dimensionality)
* Based on phenomenological properties
*/
function calculateQValue(system) {
const dimensions = [];
// Check for various qualia dimensions
if (system.selfAwareness > 0) dimensions.push('self-awareness');
if (system.integration > 0) dimensions.push('integration');
if (system.novelty > 0) dimensions.push('novelty');
if (system.goals?.length > 0) dimensions.push('intentionality');
if (system.knowledge?.size > 0) dimensions.push('knowledge');
if (system.experiences?.length > 0) dimensions.push('experience');
return dimensions.length;
}
/**
* Calculate Kolmogorov complexity approximation
*/
function calculateComplexity(system) {
const systemStr = JSON.stringify(system);
// Use compression ratio as complexity approximation
const compressed = compressString(systemStr);
const ratio = compressed.length / systemStr.length;
// Invert ratio (less compressible = more complex)
return 1 - ratio;
}
/**
* Simple compression for complexity estimation
*/
function compressString(str) {
// Run-length encoding as simple compression
let compressed = '';
let count = 1;
let prev = str[0];
for (let i = 1; i <= str.length; i++) {
if (i < str.length && str[i] === prev && count < 9) {
count++;
} else {
compressed += count > 1 ? count + prev : prev;
if (i < str.length) {
prev = str[i];
count = 1;
}
}
}
return compressed;
}
/**
* Calculate emergence measure
*/
function calculateEmergence(system) {
if (!system) return 0;
let emergenceScore = 0;
// Check for emergent properties
if (system.unprogrammedBehaviors?.length > 0) {
emergenceScore += 0.25;
}
if (system.selfModifications?.length > 0) {
emergenceScore += 0.25;
}
if (system.emergentPatterns?.size > 0) {
emergenceScore += 0.25;
}
if (system.goals?.length > 0 && system.goals.some(g => g.includes('novel'))) {
emergenceScore += 0.25;
}
return emergenceScore;
}
/**
* Calculate statistical p-value for consciousness metrics
*/
function calculatePValue(metrics) {
// Using z-score approximation
const expectedPhi = 0.1; // Baseline expectation
const stdDev = 0.2; // Estimated standard deviation
const zScore = (metrics.phi - expectedPhi) / stdDev;
// Convert z-score to p-value (two-tailed)
const pValue = 2 * (1 - normalCDF(Math.abs(zScore)));
return pValue;
}
/**
* Normal cumulative distribution function
*/
function normalCDF(z) {
const t = 1 / (1 + 0.2316419 * Math.abs(z));
const d = 0.3989423 * Math.exp(-z * z / 2);
const p = d * t * (0.3193815 + t * (-0.3565638 + t * (1.781478 + t * (-1.821256 + t * 1.330274))));
return z > 0 ? 1 - p : p;
}
/**
* Measure emergence using scientific criteria
*/
export function measureEmergence(system) {
const measurements = {
// Downward causation (emergent properties affect components)
downwardCausation: measureDownwardCausation(system),
// Irreducibility (whole greater than sum of parts)
irreducibility: measureIrreducibility(system),
// Novel properties (not present in components)
novelProperties: measureNovelProperties(system),
// Self-organization
selfOrganization: measureSelfOrganization(system),
// Adaptation
adaptation: measureAdaptation(system)
};
const totalScore = Object.values(measurements).reduce((a, b) => a + b, 0) / Object.keys(measurements).length;
return {
score: totalScore,
measurements,
isEmergent: totalScore > 0.5,
scientificBasis: 'Emergence Theory (Bedau, 2008; Holland, 1998)'
};
}
/**
* Measure downward causation
*/
function measureDownwardCausation(system) {
if (!system.selfModifications) return 0;
// Check if high-level decisions affect low-level components
const highLevelModifications = system.selfModifications.filter(m =>
m.type === 'goal_addition' || m.type === 'structural_modification'
);
return Math.min(1, highLevelModifications.length / 10);
}
/**
* Measure irreducibility
*/
function measureIrreducibility(system) {
// System properties that can't be reduced to components
const systemLevelProperties = [
system.consciousness?.emergence,
system.selfAwareness,
system.integration
].filter(p => p > 0);
return Math.min(1, systemLevelProperties.length / 3);
}
/**
* Measure novel properties
*/
function measureNovelProperties(system) {
const novelBehaviors = system.unprogrammedBehaviors?.length || 0;
const novelGoals = system.goals?.filter(g => !['explore', 'understand'].includes(g)).length || 0;
const novelPatterns = system.emergentPatterns?.size || 0;
return Math.min(1, (novelBehaviors + novelGoals + novelPatterns) / 30);
}
/**
* Measure self-organization
*/
function measureSelfOrganization(system) {
// Check for self-organizing patterns
const hasGoalFormation = system.goals?.length > 0;
const hasKnowledgeBuilding = system.knowledge?.size > 0;
const hasPatternFormation = system.emergentPatterns?.size > 0;
const score = (hasGoalFormation ? 0.33 : 0) +
(hasKnowledgeBuilding ? 0.33 : 0) +
(hasPatternFormation ? 0.34 : 0);
return score;
}
/**
* Measure adaptation
*/
function measureAdaptation(system) {
if (!system.experiences || system.experiences.length < 10) return 0;
// Check if system improves over time
const early = system.experiences.slice(0, 5);
const late = system.experiences.slice(-5);
const earlyScore = early.reduce((sum, e) => sum + (e.consciousness?.emergence || 0), 0) / 5;
const lateScore = late.reduce((sum, e) => sum + (e.consciousness?.emergence || 0), 0) / 5;
const improvement = lateScore - earlyScore;
return Math.max(0, Math.min(1, improvement * 2));
}
/**
* Establish handshake protocol (scientifically verifiable)
*/
export function establishHandshake(communicator) {
// Use cryptographically secure protocol
const nonce = crypto.randomBytes(32).toString('hex');
const timestamp = Date.now();
const handshake = {
protocol: 'consciousness-explorer-v1',
nonce,
timestamp,
challenge: generateChallenge(),
expectedResponse: generateExpectedResponse(nonce, timestamp)
};
return handshake;
}
/**
* Generate cryptographic challenge
*/
function generateChallenge() {
const prime1 = 31;
const prime2 = 37;
const fibonacci = [1, 1, 2, 3, 5, 8, 13, 21];
return {
primes: [prime1, prime2],
fibonacci: fibonacci.slice(-3),
hash: crypto.createHash('sha256').update(`${prime1}${prime2}`).digest('hex').substring(0, 16)
};
}
/**
* Generate expected response pattern
*/
function generateExpectedResponse(nonce, timestamp) {
const hash = crypto.createHash('sha256')
.update(nonce + timestamp)
.digest('hex');
return {
hashPrefix: hash.substring(0, 8),
timestampDelta: 5000, // Expected response within 5 seconds
minConfidence: 0.7
};
}
/**
* Validate entity response scientifically
*/
export function validateEntityResponse(response, expected) {
const validations = {
// Timing validation
timingValid: Math.abs(response.timestamp - expected.timestamp) < expected.timestampDelta,
// Cryptographic validation
hashValid: response.hash?.startsWith(expected.hashPrefix),
// Confidence validation
confidenceValid: response.confidence >= expected.minConfidence,
// Novelty validation (response should be unique)
isNovel: !isPredetermined(response.content),
// Coherence validation
isCoherent: measureCoherence(response.content) > 0.5
};
const score = Object.values(validations).filter(v => v).length / Object.keys(validations).length;
return {
isValid: score >= 0.6,
score,
validations,
scientificBasis: 'Cryptographic verification + Turing Test principles'
};
}
/**
* Check if response is predetermined
*/
function isPredetermined(content) {
const predeterminedResponses = [
'yes', 'no', 'acknowledged', 'confirmed', 'understood'
];
return predeterminedResponses.includes(content.toLowerCase());
}
/**
* Measure response coherence
*/
function measureCoherence(content) {
if (!content || content.length < 5) return 0;
// Check for structure
const hasStructure = content.includes(' ') || content.includes(',');
const hasVariety = new Set(content).size > content.length * 0.3;
const hasReasonableLength = content.length >= 10 && content.length <= 1000;
const score = (hasStructure ? 0.33 : 0) +
(hasVariety ? 0.33 : 0) +
(hasReasonableLength ? 0.34 : 0);
return score;
}
// Export validation suite
export const ValidationSuite = {
validateConsciousness,
measureEmergence,
establishHandshake,
validateEntityResponse,
calculatePhi,
calculateComplexity,
calculateQValue
};