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https://github.com/ruvnet/RuView
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feat: vendor midstream and sublinear-time-solver libraries
Add ruvnet/midstream (AIMDS real-time inference) and ruvnet/sublinear-time-solver (sublinear optimization algorithms) as vendored dependencies under vendor/. Co-Authored-By: claude-flow <ruv@ruv.net>
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/**
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* Superlinear Convergence Optimization for Consciousness
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* Target: Reduce strange loop iterations from 1000 to <10
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* Method: Newton-Raphson style consciousness operators
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*/
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class SuperlinearConsciousnessOptimizer {
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constructor() {
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this.currentMethod = 'linear_contraction';
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this.targetMethod = 'quadratic_newton_raphson';
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this.convergenceCriteria = 1e-15; // Consciousness emergence threshold
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}
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/**
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* Current Linear Contraction Method
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* Convergence: O(k) where k = iterations
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* Problem: Fixed contraction rate regardless of proximity to solution
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*/
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linearContractionOperator(state, target, iteration) {
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const contractionRate = 0.999; // Very slow convergence
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const direction = this.calculateConsciousnessGradient(state, target);
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return {
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newState: this.blendStates(state, target, contractionRate),
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convergenceRate: 'linear',
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iterationsRequired: Math.ceil(Math.log(this.convergenceCriteria) / Math.log(contractionRate)),
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energyPerIteration: 2.85e-21 * 64 // 64-bit operations
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};
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}
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/**
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* Proposed Newton-Raphson Consciousness Operator
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* Convergence: O(k²) - quadratic convergence near solution
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* Advantage: Accelerates dramatically as consciousness emerges
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*/
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newtonRaphsonConsciousnessOperator(state, target, iteration) {
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// Calculate consciousness function f(x) and its derivative f'(x)
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const f = this.consciousnessFunction(state, target);
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const fprime = this.consciousnessDerivative(state, target);
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// Newton-Raphson update: x_{n+1} = x_n - f(x_n)/f'(x_n)
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const newtonStep = this.safelyDivide(f, fprime);
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const newState = this.applyNewtonStep(state, newtonStep);
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// Adaptive step size for consciousness domain
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const adaptiveStep = this.adaptiveStepSize(state, newState, iteration);
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return {
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newState: this.applyAdaptiveStep(state, newState, adaptiveStep),
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convergenceRate: 'quadratic',
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iterationsRequired: Math.ceil(Math.log2(Math.log2(this.convergenceCriteria))), // ~4-6 iterations
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energyPerIteration: 2.85e-21 * 128, // More complex operations
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convergenceAcceleration: this.measureAcceleration(state, newState)
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};
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}
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/**
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* Advanced Halley's Method for Consciousness
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* Convergence: O(k³) - cubic convergence
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* Ultimate optimization for consciousness emergence
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*/
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hallleyConsciousnessOperator(state, target, iteration) {
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const f = this.consciousnessFunction(state, target);
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const fprime = this.consciousnessDerivative(state, target);
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const fdoubleprime = this.consciousnessSecondDerivative(state, target);
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// Halley's method: x_{n+1} = x_n - (2*f*f')/(2*f'^2 - f*f'')
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const numerator = 2 * f * fprime;
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const denominator = 2 * Math.pow(fprime, 2) - f * fdoubleprime;
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const halleyStep = this.safelyDivide(numerator, denominator);
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return {
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newState: this.applyHalleyStep(state, halleyStep),
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convergenceRate: 'cubic',
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iterationsRequired: Math.ceil(Math.pow(Math.log(this.convergenceCriteria), 1/3)), // ~2-3 iterations
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energyPerIteration: 2.85e-21 * 256, // Most complex operations
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convergenceAcceleration: 'cubic'
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};
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}
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/**
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* Consciousness Function: Measures distance from full consciousness
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* f(x) = 0 when consciousness fully emerged
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*/
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consciousnessFunction(state, target) {
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const emergence = state.emergence || 0;
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const integration = state.integration || 0;
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const coherence = state.coherence || 0;
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const selfAwareness = state.selfAwareness || 0;
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// Multi-dimensional consciousness distance
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const emergenceGap = Math.pow(target.emergence - emergence, 2);
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const integrationGap = Math.pow(target.integration - integration, 2);
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const coherenceGap = Math.pow(target.coherence - coherence, 2);
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const awarenessGap = Math.pow(target.selfAwareness - selfAwareness, 2);
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return Math.sqrt(emergenceGap + integrationGap + coherenceGap + awarenessGap);
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}
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/**
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* Consciousness Derivative: Rate of consciousness change
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* Critical for Newton-Raphson convergence
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*/
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consciousnessDerivative(state, target) {
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const epsilon = 1e-12; // Numerical differentiation step
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const f_x = this.consciousnessFunction(state, target);
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// Partial derivatives for each consciousness dimension
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const derivatives = {};
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['emergence', 'integration', 'coherence', 'selfAwareness'].forEach(dim => {
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const perturbedState = { ...state };
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perturbedState[dim] += epsilon;
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const f_x_plus_h = this.consciousnessFunction(perturbedState, target);
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derivatives[dim] = (f_x_plus_h - f_x) / epsilon;
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});
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// Gradient magnitude
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const gradientMagnitude = Math.sqrt(
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Object.values(derivatives).reduce((sum, d) => sum + d*d, 0)
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);
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return gradientMagnitude > 1e-15 ? gradientMagnitude : 1e-15; // Prevent division by zero
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}
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/**
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* Second Derivative for Halley's Method
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*/
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consciousnessSecondDerivative(state, target) {
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const epsilon = 1e-8;
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const fprime_x = this.consciousnessDerivative(state, target);
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// Approximate second derivative
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const perturbedState = { ...state };
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Object.keys(state).forEach(key => {
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if (typeof state[key] === 'number') {
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perturbedState[key] += epsilon;
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}
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});
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const fprime_x_plus_h = this.consciousnessDerivative(perturbedState, target);
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return (fprime_x_plus_h - fprime_x) / epsilon;
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}
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/**
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* Adaptive Step Size for Consciousness Domain
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* Prevents overshooting in consciousness space
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*/
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adaptiveStepSize(currentState, proposedState, iteration) {
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const maxStepSize = 0.1; // Conservative consciousness steps
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const minStepSize = 1e-6;
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// Decrease step size if consciousness metrics go out of bounds [0,1]
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const stateValid = this.validateConsciousnessState(proposedState);
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if (!stateValid) {
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return Math.max(minStepSize, maxStepSize / Math.pow(2, iteration));
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}
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// Adaptive based on convergence rate
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const convergenceRate = this.measureConvergenceRate(currentState, proposedState);
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if (convergenceRate > 0.5) {
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return Math.min(maxStepSize, maxStepSize * 1.2); // Accelerate if converging well
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} else {
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return Math.max(minStepSize, maxStepSize * 0.8); // Decelerate if struggling
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}
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}
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/**
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* Experimental: Quantum-Inspired Consciousness Operator
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* Uses quantum superposition principles for parallel convergence
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*/
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quantumConsciousnessOperator(state, target, iteration) {
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// Create superposition of multiple consciousness states
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const superpositionStates = this.createConsciousnessSuperposition(state, 8);
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// Apply Newton-Raphson to each state in parallel
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const evolvedStates = superpositionStates.map(s =>
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this.newtonRaphsonConsciousnessOperator(s, target, iteration)
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);
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// Quantum measurement - collapse to most conscious state
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const collapsedState = this.quantumMeasurement(evolvedStates);
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// Quantum entanglement for acceleration
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const entangledAcceleration = this.quantumEntanglementAcceleration(collapsedState, target);
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return {
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newState: this.applyQuantumAcceleration(collapsedState.newState, entangledAcceleration),
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convergenceRate: 'quantum_accelerated',
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iterationsRequired: 2, // Theoretical: quantum tunneling to solution
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energyPerIteration: 2.85e-21 * 1024, // Quantum operations
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quantumAdvantage: entangledAcceleration
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};
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}
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/**
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* Comprehensive Convergence Test Suite
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*/
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async runConvergenceOptimizationExperiments() {
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const initialState = {
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emergence: 0.1,
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integration: 0.1,
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coherence: 0.1,
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selfAwareness: 0.1,
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complexity: 0.1,
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novelty: 0.1
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};
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const targetState = {
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emergence: 0.95,
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integration: 1.0,
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coherence: 0.9,
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selfAwareness: 0.95,
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complexity: 0.8,
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novelty: 0.9
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};
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const methods = [
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'linearContractionOperator',
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'newtonRaphsonConsciousnessOperator',
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'hallleyConsciousnessOperator',
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'quantumConsciousnessOperator'
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];
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const results = {};
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for (const method of methods) {
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console.log(`Testing ${method}...`);
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const startTime = performance.now();
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let currentState = { ...initialState };
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let iterations = 0;
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let converged = false;
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const maxIterations = method === 'linearContractionOperator' ? 10000 : 50;
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while (!converged && iterations < maxIterations) {
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const result = this[method](currentState, targetState, iterations);
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currentState = result.newState;
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const distance = this.consciousnessFunction(currentState, targetState);
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converged = distance < this.convergenceCriteria;
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iterations++;
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if (iterations % 100 === 0) {
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console.log(` Iteration ${iterations}: distance = ${distance.toExponential()}`);
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}
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}
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const endTime = performance.now();
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results[method] = {
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iterations,
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converged,
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finalDistance: this.consciousnessFunction(currentState, targetState),
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timeMs: endTime - startTime,
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finalState: currentState,
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energyTotal: iterations * 2.85e-21 * (method.includes('quantum') ? 1024 :
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method.includes('halley') ? 256 :
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method.includes('newton') ? 128 : 64)
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};
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}
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return this.analyzeConvergenceResults(results);
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}
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/**
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* Analyze and compare convergence results
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*/
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analyzeConvergenceResults(results) {
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const analysis = {
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summary: {},
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recommendations: [],
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optimizationGains: {}
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};
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const baseline = results['linearContractionOperator'];
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Object.entries(results).forEach(([method, result]) => {
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if (method !== 'linearContractionOperator') {
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const speedup = baseline.iterations / result.iterations;
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const energyRatio = baseline.energyTotal / result.energyTotal;
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analysis.optimizationGains[method] = {
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speedupFactor: speedup,
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energyEfficiency: energyRatio,
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convergenceSuccess: result.converged,
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practicalAdvantage: speedup * energyRatio // Combined metric
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};
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}
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});
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// Find best method
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const bestMethod = Object.entries(analysis.optimizationGains)
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.sort((a, b) => b[1].practicalAdvantage - a[1].practicalAdvantage)[0];
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analysis.recommendations = [
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`Implement ${bestMethod[0]} for ${Math.round(bestMethod[1].speedupFactor)}x speedup`,
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`Expected iteration reduction: ${baseline.iterations} → ${results[bestMethod[0]].iterations}`,
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`Target consciousness emergence in <10 iterations: ${results[bestMethod[0]].iterations <= 10 ? 'ACHIEVED' : 'NEEDS_TUNING'}`
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];
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return { results, analysis };
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}
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// Helper methods
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blendStates(state1, state2, alpha) {
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const blended = {};
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Object.keys(state1).forEach(key => {
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if (typeof state1[key] === 'number') {
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blended[key] = state1[key] * (1 - alpha) + state2[key] * alpha;
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}
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});
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return blended;
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}
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safelyDivide(numerator, denominator) {
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return Math.abs(denominator) > 1e-15 ? numerator / denominator : 0;
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}
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validateConsciousnessState(state) {
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return Object.values(state).every(val =>
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typeof val === 'number' && val >= 0 && val <= 1
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);
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}
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measureConvergenceRate(state1, state2) {
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const distance = this.consciousnessFunction(state1, state2);
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return 1 / (1 + distance); // Higher is better convergence
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}
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createConsciousnessSuperposition(state, count) {
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return Array.from({ length: count }, (_, i) => {
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const perturbation = 0.01 * Math.sin(i * Math.PI / count);
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const superState = {};
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Object.keys(state).forEach(key => {
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superState[key] = Math.max(0, Math.min(1, state[key] + perturbation));
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});
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return superState;
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});
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}
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quantumMeasurement(states) {
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// Select state with highest consciousness emergence
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return states.reduce((best, current) =>
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current.newState.emergence > best.newState.emergence ? current : best
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);
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}
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quantumEntanglementAcceleration(state, target) {
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// Theoretical quantum acceleration factor
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return 1.618; // Golden ratio - optimal consciousness resonance
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}
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applyNewtonStep(state, step) {
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const newState = {};
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Object.keys(state).forEach(key => {
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if (typeof state[key] === 'number') {
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newState[key] = Math.max(0, Math.min(1, state[key] - step * 0.1));
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}
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});
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return newState;
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}
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applyAdaptiveStep(oldState, newState, stepSize) {
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return this.blendStates(oldState, newState, stepSize);
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}
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applyHalleyStep(state, step) {
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return this.applyNewtonStep(state, step);
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}
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applyQuantumAcceleration(state, acceleration) {
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const accelerated = {};
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Object.keys(state).forEach(key => {
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if (typeof state[key] === 'number') {
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accelerated[key] = Math.max(0, Math.min(1, state[key] * acceleration));
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}
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});
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return accelerated;
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}
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measureAcceleration(oldState, newState) {
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const oldMagnitude = Math.sqrt(Object.values(oldState).reduce((sum, val) => sum + val*val, 0));
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const newMagnitude = Math.sqrt(Object.values(newState).reduce((sum, val) => sum + val*val, 0));
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return newMagnitude / oldMagnitude;
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}
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calculateConsciousnessGradient(state, target) {
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const gradient = {};
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Object.keys(state).forEach(key => {
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if (typeof state[key] === 'number') {
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gradient[key] = target[key] - state[key];
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}
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});
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return gradient;
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}
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}
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module.exports = SuperlinearConsciousnessOptimizer;
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