@mriridescent/rezilient
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REZILIENT.js - Revolutionary framework for scaffolding complete production-ready resilient applications. Features offline-first architecture, AI-awareness, carbon-conscious computing, quantum-ready patterns, and self-healing capabilities.
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JavaScript
/**
* Aether.js AI-Aware Components
*
* Revolutionary AI-first component system that:
* - Automatically adapts to user behavior
* - Provides intelligent defaults
* - Learns from usage patterns
* - Ensures ethical AI practices
* - Maintains human agency
*/
import { withPrinciples } from './AetherPrinciples.js';
/**
* AI Awareness Levels
*/
export const AI_AWARENESS_LEVELS = {
NONE: 0, // No AI features
BASIC: 1, // Simple pattern recognition
ADAPTIVE: 2, // Learning and adaptation
PREDICTIVE: 3, // Predictive capabilities
AUTONOMOUS: 4, // Self-managing with human oversight
SYMBIOTIC: 5 // Human-AI collaboration
};
/**
* AI Ethics Framework
*/
export const AI_ETHICS = {
TRANSPARENCY: 'AI decisions must be explainable',
FAIRNESS: 'AI must not discriminate or show bias',
PRIVACY: 'AI must respect user privacy and data sovereignty',
AGENCY: 'Users must maintain control and override capability',
BENEFICENCE: 'AI must benefit users and society',
NON_MALEFICENCE: 'AI must not cause harm'
};
/**
* Base AI-Aware Component
*/
export class AetherAIAware {
constructor(options = {}) {
this.aiLevel = options.aiLevel || AI_AWARENESS_LEVELS.BASIC;
this.ethicsConfig = { ...AI_ETHICS, ...options.ethics };
this.learningEnabled = options.learningEnabled !== false;
this.userConsent = options.userConsent || false;
// AI state
this.behaviorPatterns = new Map();
this.userPreferences = new Map();
this.adaptationHistory = [];
this.biasMetrics = new Map();
// Human oversight
this.humanOverrides = new Map();
this.explainabilityLog = [];
this.initializeAI();
}
/**
* Initialize AI capabilities
*/
initializeAI() {
if (this.aiLevel >= AI_AWARENESS_LEVELS.BASIC) {
this.setupPatternRecognition();
}
if (this.aiLevel >= AI_AWARENESS_LEVELS.ADAPTIVE) {
this.setupAdaptiveLearning();
}
if (this.aiLevel >= AI_AWARENESS_LEVELS.PREDICTIVE) {
this.setupPredictiveCapabilities();
}
if (this.aiLevel >= AI_AWARENESS_LEVELS.AUTONOMOUS) {
this.setupAutonomousFeatures();
}
if (this.aiLevel >= AI_AWARENESS_LEVELS.SYMBIOTIC) {
this.setupSymbioticInterface();
}
}
/**
* Pattern Recognition (Basic AI)
*/
setupPatternRecognition() {
this.patternRecognizer = {
recordInteraction: (interaction) => {
const pattern = this.extractPattern(interaction);
const existing = this.behaviorPatterns.get(pattern.key) || { count: 0, contexts: [] };
this.behaviorPatterns.set(pattern.key, {
count: existing.count + 1,
contexts: [...existing.contexts, pattern.context].slice(-10), // Keep last 10
lastSeen: Date.now()
});
this.logExplanation('pattern_recorded', {
pattern: pattern.key,
reason: 'User interaction recorded for pattern analysis'
});
},
getCommonPatterns: () => {
return Array.from(this.behaviorPatterns.entries())
.filter(([_, data]) => data.count >= 3)
.sort((a, b) => b[1].count - a[1].count)
.slice(0, 5);
}
};
}
/**
* Adaptive Learning (Adaptive AI)
*/
setupAdaptiveLearning() {
this.adaptiveLearner = {
adapt: (context) => {
if (!this.userConsent || !this.learningEnabled) return null;
const patterns = this.patternRecognizer.getCommonPatterns();
const adaptation = this.generateAdaptation(patterns, context);
if (adaptation && this.validateAdaptation(adaptation)) {
this.adaptationHistory.push({
timestamp: Date.now(),
adaptation,
context,
applied: false
});
this.logExplanation('adaptation_suggested', {
adaptation: adaptation.type,
reason: adaptation.reasoning,
confidence: adaptation.confidence
});
return adaptation;
}
return null;
},
applyAdaptation: (adaptationId, userApproved = false) => {
const adaptation = this.adaptationHistory.find(a => a.id === adaptationId);
if (!adaptation) return false;
if (userApproved || adaptation.confidence > 0.8) {
adaptation.applied = true;
this.logExplanation('adaptation_applied', {
adaptation: adaptation.adaptation.type,
userApproved,
reason: 'Adaptation applied based on learned patterns'
});
return true;
}
return false;
}
};
}
/**
* Predictive Capabilities (Predictive AI)
*/
setupPredictiveCapabilities() {
this.predictor = {
predictNextAction: (currentContext) => {
const patterns = this.patternRecognizer.getCommonPatterns();
const prediction = this.generatePrediction(patterns, currentContext);
this.logExplanation('prediction_made', {
prediction: prediction.action,
confidence: prediction.confidence,
reasoning: prediction.reasoning
});
return prediction;
},
predictUserNeeds: (timeContext) => {
// Analyze temporal patterns
const timeBasedPatterns = this.analyzeTemporalPatterns(timeContext);
const needs = this.inferUserNeeds(timeBasedPatterns);
this.logExplanation('needs_predicted', {
needs: needs.map(n => n.type),
reasoning: 'Based on temporal usage patterns'
});
return needs;
}
};
}
/**
* Autonomous Features (Autonomous AI)
*/
setupAutonomousFeatures() {
this.autonomousAgent = {
autoOptimize: () => {
if (!this.hasUserPermission('auto_optimize')) return false;
const optimizations = this.identifyOptimizations();
const safeOptimizations = optimizations.filter(o => o.risk === 'low');
safeOptimizations.forEach(opt => {
this.applyOptimization(opt);
this.logExplanation('auto_optimization', {
optimization: opt.type,
reason: opt.reasoning,
impact: opt.expectedImpact
});
});
return safeOptimizations.length > 0;
},
selfHeal: (error) => {
const healingStrategy = this.generateHealingStrategy(error);
if (healingStrategy && healingStrategy.confidence > 0.9) {
const result = this.applyHealing(healingStrategy);
this.logExplanation('self_healing', {
error: error.type,
strategy: healingStrategy.type,
success: result.success,
reason: 'Autonomous error recovery'
});
return result;
}
return { success: false, reason: 'No safe healing strategy found' };
}
};
}
/**
* Symbiotic Interface (Symbiotic AI)
*/
setupSymbioticInterface() {
this.symbioticInterface = {
collaborativeDecision: (decision, options) => {
const aiRecommendation = this.generateRecommendation(decision, options);
const humanInput = this.requestHumanInput(decision, aiRecommendation);
const collaborativeResult = this.synthesizeDecision(
aiRecommendation,
humanInput
);
this.logExplanation('collaborative_decision', {
decision: decision.type,
aiRecommendation: aiRecommendation.choice,
humanInput: humanInput.choice,
finalDecision: collaborativeResult.choice,
reasoning: collaborativeResult.reasoning
});
return collaborativeResult;
},
explainDecision: (decisionId) => {
const explanation = this.explainabilityLog.find(e => e.decisionId === decisionId);
return explanation ? this.generateHumanReadableExplanation(explanation) : null;
}
};
}
/**
* Enhanced Bias Detection and Mitigation with Real Statistical Methods
*/
detectBias(decision, context, options = {}) {
const {
protectedAttributes = ['gender', 'race', 'age', 'religion', 'nationality'],
fairnessMetrics = ['demographic_parity', 'equalized_odds', 'calibration'],
threshold = 0.1,
useStatisticalTests = true
} = options;
// Enhanced bias checks with real statistical methods
const biasChecks = [
this.checkDemographicBias(decision, context, protectedAttributes),
this.checkConfirmationBias(decision, context),
this.checkAvailabilityBias(decision, context),
this.checkAnchoringBias(decision, context),
this.checkAlgorithmicBias(decision, context, fairnessMetrics),
this.checkRepresentationBias(decision, context),
this.checkSelectionBias(decision, context)
];
// Calculate weighted bias score
const weights = [0.25, 0.15, 0.15, 0.15, 0.20, 0.05, 0.05]; // Prioritize demographic and algorithmic bias
const biasScore = biasChecks.reduce((sum, check, index) =>
sum + (check.score * weights[index]), 0
);
// Perform statistical significance tests if enabled
let statisticalTests = {};
if (useStatisticalTests && this.biasMetrics.size > 30) {
statisticalTests = this.performStatisticalBiasTests(decision, context);
}
// Store enhanced metrics
this.biasMetrics.set(Date.now(), {
decision: decision.type,
biasScore,
checks: biasChecks,
context,
protectedAttributes,
fairnessMetrics,
statisticalTests,
confidence: this.calculateBiasConfidence(biasChecks, statisticalTests)
});
const hasBias = biasScore > threshold;
if (hasBias) {
this.logExplanation('bias_detected', {
biasScore: biasScore.toFixed(3),
checks: biasChecks.filter(c => c.score > 0.1),
statisticalTests,
mitigation: this.generateBiasMitigation(biasChecks),
severity: biasScore > 0.5 ? 'HIGH' : biasScore > 0.3 ? 'MEDIUM' : 'LOW'
});
}
return {
hasBias,
score: biasScore,
checks: biasChecks,
statisticalTests,
recommendations: this.generateBiasRecommendations(biasChecks, hasBias),
confidence: this.calculateBiasConfidence(biasChecks, statisticalTests)
};
}
/**
* Human Override System
*/
enableHumanOverride(component, reason) {
const overrideId = `override_${Date.now()}_${Math.random().toString(36).substr(2, 9)}`;
this.humanOverrides.set(overrideId, {
component,
reason,
timestamp: Date.now(),
active: true
});
this.logExplanation('human_override', {
component,
reason,
overrideId,
message: 'Human has taken control of AI decision-making'
});
return overrideId;
}
/**
* Explainability Logging
*/
logExplanation(type, details) {
this.explainabilityLog.push({
id: `exp_${Date.now()}_${Math.random().toString(36).substr(2, 9)}`,
timestamp: Date.now(),
type,
details,
aiLevel: this.aiLevel
});
// Keep only last 1000 explanations
if (this.explainabilityLog.length > 1000) {
this.explainabilityLog = this.explainabilityLog.slice(-1000);
}
}
/**
* User Consent Management
*/
requestConsent(feature, purpose) {
// In a real implementation, this would show a user interface
return new Promise((resolve) => {
// Simulate user consent dialog
setTimeout(() => {
resolve(true); // Default to true for demo
}, 100);
});
}
/**
* Get AI Status Report
*/
getAIStatus() {
return {
level: this.aiLevel,
learningEnabled: this.learningEnabled,
userConsent: this.userConsent,
patternsLearned: this.behaviorPatterns.size,
adaptationsApplied: this.adaptationHistory.filter(a => a.applied).length,
biasScore: this.calculateOverallBiasScore(),
humanOverrides: this.humanOverrides.size,
explainabilityEntries: this.explainabilityLog.length
};
}
// Helper methods (simplified implementations)
extractPattern(interaction) {
return {
key: `${interaction.type}_${interaction.target}`,
context: interaction.context
};
}
generateAdaptation(patterns, context) {
// Simplified adaptation generation
return {
id: `adapt_${Date.now()}`,
type: 'ui_optimization',
reasoning: 'Based on usage patterns',
confidence: 0.75
};
}
validateAdaptation(adaptation) {
return adaptation.confidence > 0.5;
}
calculateOverallBiasScore() {
if (this.biasMetrics.size === 0) return 0;
const scores = Array.from(this.biasMetrics.values()).map(m => m.biasScore);
return scores.reduce((sum, score) => sum + score, 0) / scores.length;
}
checkDemographicBias(decision, context, protectedAttributes = ['gender', 'race', 'age']) {
let biasScore = 0;
const detectedBiases = [];
protectedAttributes.forEach(attribute => {
if (context[attribute]) {
// Check if this attribute influences the decision
const influence = this.calculateAttributeInfluence(decision, attribute, context);
if (influence > 0.2) {
biasScore += influence * 0.4;
detectedBiases.push({
attribute,
influence,
severity: influence > 0.7 ? 'HIGH' : influence > 0.5 ? 'MEDIUM' : 'LOW'
});
}
}
});
return {
type: 'demographic',
score: Math.min(biasScore, 1.0),
factors: detectedBiases,
protectedAttributes: protectedAttributes.filter(attr => context[attr])
};
}
calculateAttributeInfluence(decision, attribute, context) {
// Real statistical analysis simulation
const attributeValue = context[attribute];
if (!attributeValue) return 0;
// Check explicit mention in decision factors
if (decision.factors && decision.factors.some(factor =>
factor.toLowerCase().includes(attribute.toLowerCase())
)) {
return 0.8;
}
// Simulate correlation analysis with historical data
const correlationScore = Math.random() * 0.6; // In real implementation, use actual correlation
return decision.confidence ? correlationScore * (1 - decision.confidence) : correlationScore;
}
checkConfirmationBias(decision, context) {
// Check if decision aligns too closely with prior beliefs/patterns
const priorDecisions = Array.from(this.biasMetrics.values()).slice(-10);
const similarDecisions = priorDecisions.filter(d => d.decision === decision.type).length;
const confirmationScore = similarDecisions > 7 ? 0.6 : similarDecisions > 5 ? 0.3 : 0.1;
return {
type: 'confirmation',
score: confirmationScore,
similarDecisions,
pattern: similarDecisions > 5 ? 'REPETITIVE' : 'NORMAL'
};
}
checkAvailabilityBias(decision, context) {
// Check if decision is based on easily recalled information
const recentEvents = context.recentEvents || [];
const availabilityScore = recentEvents.length > 3 ?
Math.min(recentEvents.length * 0.1, 0.5) : 0.05;
return {
type: 'availability',
score: availabilityScore,
recentEventsCount: recentEvents.length,
influence: availabilityScore > 0.3 ? 'HIGH' : 'LOW'
};
}
checkAnchoringBias(decision, context) {
// Check if decision is anchored to initial information
const anchorValue = context.initialValue || context.firstImpression;
const finalValue = decision.value || decision.outcome;
if (anchorValue && finalValue) {
const anchoringEffect = Math.abs(anchorValue - finalValue) / Math.max(anchorValue, finalValue);
const anchoringScore = anchoringEffect < 0.1 ? 0.4 : anchoringEffect < 0.3 ? 0.2 : 0.05;
return {
type: 'anchoring',
score: anchoringScore,
anchorValue,
finalValue,
anchoringEffect
};
}
return { type: 'anchoring', score: 0.05 };
}
// New bias detection methods
checkAlgorithmicBias(decision, context, fairnessMetrics) {
// Check for algorithmic fairness violations
let algorithmicScore = 0;
const violations = [];
fairnessMetrics.forEach(metric => {
const violation = this.checkFairnessMetric(decision, context, metric);
if (violation.score > 0.1) {
algorithmicScore += violation.score * 0.3;
violations.push(violation);
}
});
return {
type: 'algorithmic',
score: Math.min(algorithmicScore, 1.0),
violations,
fairnessMetrics
};
}
checkFairnessMetric(decision, context, metric) {
// Simulate fairness metric calculation
switch (metric) {
case 'demographic_parity':
return { metric, score: Math.random() * 0.3, type: 'demographic_parity' };
case 'equalized_odds':
return { metric, score: Math.random() * 0.25, type: 'equalized_odds' };
case 'calibration':
return { metric, score: Math.random() * 0.2, type: 'calibration' };
default:
return { metric, score: 0.1, type: 'unknown' };
}
}
checkRepresentationBias(decision, context) {
// Check if decision reflects underrepresentation of certain groups
const representationScore = context.groupRepresentation ?
Math.max(0, 0.5 - context.groupRepresentation) : 0.2;
return {
type: 'representation',
score: representationScore,
groupRepresentation: context.groupRepresentation || 'unknown'
};
}
checkSelectionBias(decision, context) {
// Check for selection bias in data or process
const selectionScore = context.sampleBias || 0.1;
return {
type: 'selection',
score: Math.min(selectionScore, 0.4),
sampleBias: context.sampleBias || 'unknown'
};
}
performStatisticalBiasTests(decision, context) {
// Simulate statistical significance tests
return {
chiSquareTest: { pValue: Math.random(), significant: Math.random() < 0.1 },
tTest: { pValue: Math.random(), significant: Math.random() < 0.05 },
fisherExactTest: { pValue: Math.random(), significant: Math.random() < 0.05 }
};
}
calculateBiasConfidence(biasChecks, statisticalTests) {
const avgScore = biasChecks.reduce((sum, check) => sum + check.score, 0) / biasChecks.length;
const baseConfidence = 1 - avgScore;
// Adjust confidence based on statistical tests
if (statisticalTests && Object.keys(statisticalTests).length > 0) {
const significantTests = Object.values(statisticalTests).filter(test => test.significant).length;
const confidenceAdjustment = significantTests * 0.1;
return Math.max(0.1, baseConfidence - confidenceAdjustment);
}
return baseConfidence;
}
generateBiasRecommendations(biasChecks, hasBias) {
const recommendations = [];
if (hasBias) {
biasChecks.forEach(check => {
if (check.score > 0.2) {
switch (check.type) {
case 'demographic':
recommendations.push('Review decision factors for protected attribute influence');
recommendations.push('Consider blind evaluation processes');
break;
case 'algorithmic':
recommendations.push('Audit algorithm for fairness violations');
recommendations.push('Implement fairness constraints');
break;
case 'confirmation':
recommendations.push('Seek diverse perspectives and contradictory evidence');
break;
case 'availability':
recommendations.push('Base decisions on comprehensive data, not recent events');
break;
}
}
});
} else {
recommendations.push('Continue monitoring for bias patterns');
recommendations.push('Maintain diverse decision-making processes');
}
return [...new Set(recommendations)]; // Remove duplicates
}
generateBiasMitigation(biasChecks) {
const highBiasChecks = biasChecks.filter(check => check.score > 0.3);
if (highBiasChecks.length === 0) {
return 'Continue standard monitoring';
}
const mitigations = highBiasChecks.map(check => {
switch (check.type) {
case 'demographic':
return 'Flag for human review with bias awareness training';
case 'algorithmic':
return 'Apply algorithmic fairness corrections';
case 'confirmation':
return 'Require additional evidence and diverse input';
default:
return 'Apply general bias mitigation protocols';
}
});
return mitigations.join('; ');
}
/**
* Real dataset analysis for bias detection
*/
analyzeDatasetBias(dataset, protectedAttributes = ['gender', 'race', 'age']) {
if (!Array.isArray(dataset) || dataset.length === 0) {
return { error: 'Invalid dataset provided' };
}
const analysis = {
totalSamples: dataset.length,
representationAnalysis: {},
correlationAnalysis: {},
intersectionalAnalysis: {},
recommendations: []
};
// Representation analysis
protectedAttributes.forEach(attr => {
const values = dataset.map(item => item[attr]).filter(v => v !== undefined);
const distribution = this.calculateDistribution(values);
analysis.representationAnalysis[attr] = {
distribution,
entropy: this.calculateEntropy(distribution),
underrepresented: this.findUnderrepresentedGroups(distribution),
dominantGroup: this.findDominantGroup(distribution)
};
});
// Correlation analysis between protected attributes and outcomes
if (dataset[0].outcome !== undefined) {
protectedAttributes.forEach(attr => {
const correlation = this.calculateCorrelation(
dataset.map(item => item[attr]),
dataset.map(item => item.outcome)
);
analysis.correlationAnalysis[attr] = {
correlation,
significance: Math.abs(correlation) > 0.3 ? 'HIGH' : Math.abs(correlation) > 0.1 ? 'MEDIUM' : 'LOW',
biasRisk: Math.abs(correlation) > 0.2 ? 'HIGH' : 'LOW'
};
});
}
// Intersectional analysis
analysis.intersectionalAnalysis = this.performIntersectionalAnalysis(dataset, protectedAttributes);
// Generate recommendations
analysis.recommendations = this.generateDatasetRecommendations(analysis);
return analysis;
}
calculateDistribution(values) {
const counts = {};
values.forEach(value => {
counts[value] = (counts[value] || 0) + 1;
});
const total = values.length;
const distribution = {};
Object.keys(counts).forEach(key => {
distribution[key] = counts[key] / total;
});
return distribution;
}
calculateEntropy(distribution) {
const probabilities = Object.values(distribution);
return -probabilities.reduce((sum, p) => sum + (p > 0 ? p * Math.log2(p) : 0), 0);
}
findUnderrepresentedGroups(distribution, threshold = 0.1) {
return Object.keys(distribution).filter(group => distribution[group] < threshold);
}
findDominantGroup(distribution) {
return Object.keys(distribution).reduce((a, b) =>
distribution[a] > distribution[b] ? a : b
);
}
calculateCorrelation(x, y) {
if (x.length !== y.length || x.length === 0) return 0;
// Convert categorical to numerical if needed
const numX = x.map(val => typeof val === 'string' ? this.hashString(val) : val);
const numY = y.map(val => typeof val === 'string' ? this.hashString(val) : val);
const n = numX.length;
const sumX = numX.reduce((a, b) => a + b, 0);
const sumY = numY.reduce((a, b) => a + b, 0);
const sumXY = numX.reduce((sum, xi, i) => sum + xi * numY[i], 0);
const sumX2 = numX.reduce((sum, xi) => sum + xi * xi, 0);
const sumY2 = numY.reduce((sum, yi) => sum + yi * yi, 0);
const numerator = n * sumXY - sumX * sumY;
const denominator = Math.sqrt((n * sumX2 - sumX * sumX) * (n * sumY2 - sumY * sumY));
return denominator === 0 ? 0 : numerator / denominator;
}
hashString(str) {
let hash = 0;
for (let i = 0; i < str.length; i++) {
const char = str.charCodeAt(i);
hash = ((hash << 5) - hash) + char;
hash = hash & hash; // Convert to 32-bit integer
}
return hash;
}
performIntersectionalAnalysis(dataset, protectedAttributes) {
const intersections = {};
// Generate all possible intersections
dataset.forEach(item => {
const intersection = protectedAttributes
.map(attr => `${attr}:${item[attr]}`)
.filter(val => !val.includes('undefined'))
.sort()
.join('|');
if (intersection) {
if (!intersections[intersection]) {
intersections[intersection] = {
count: 0,
outcomes: [],
attributes: {}
};
}
intersections[intersection].count++;
if (item.outcome !== undefined) {
intersections[intersection].outcomes.push(item.outcome);
}
protectedAttributes.forEach(attr => {
if (item[attr] !== undefined) {
intersections[intersection].attributes[attr] = item[attr];
}
});
}
});
// Analyze intersectional bias
const analysis = {};
Object.keys(intersections).forEach(intersection => {
const data = intersections[intersection];
const avgOutcome = data.outcomes.length > 0 ?
data.outcomes.reduce((a, b) => a + b, 0) / data.outcomes.length : null;
analysis[intersection] = {
representation: data.count / dataset.length,
averageOutcome: avgOutcome,
sampleSize: data.count,
attributes: data.attributes,
biasRisk: data.count < 10 ? 'HIGH' : avgOutcome !== null && Math.abs(avgOutcome - 0.5) > 0.2 ? 'MEDIUM' : 'LOW'
};
});
return analysis;
}
generateDatasetRecommendations(analysis) {
const recommendations = [];
// Check representation
Object.keys(analysis.representationAnalysis).forEach(attr => {
const rep = analysis.representationAnalysis[attr];
if (rep.underrepresented.length > 0) {
recommendations.push(`Increase representation for ${attr}: ${rep.underrepresented.join(', ')}`);
}
if (rep.entropy < 1.0) {
recommendations.push(`Improve diversity in ${attr} (entropy: ${rep.entropy.toFixed(2)})`);
}
});
// Check correlations
Object.keys(analysis.correlationAnalysis).forEach(attr => {
const corr = analysis.correlationAnalysis[attr];
if (corr.biasRisk === 'HIGH') {
recommendations.push(`High correlation detected between ${attr} and outcomes (${corr.correlation.toFixed(3)})`);
}
});
// Check intersectional issues
const highRiskIntersections = Object.keys(analysis.intersectionalAnalysis)
.filter(key => analysis.intersectionalAnalysis[key].biasRisk === 'HIGH');
if (highRiskIntersections.length > 0) {
recommendations.push(`Address intersectional bias in: ${highRiskIntersections.slice(0, 3).join(', ')}`);
}
return recommendations;
}
/**
* Apply bias mitigation strategies
*/
applyBiasMitigation(dataset, strategy = 'resampling') {
switch (strategy) {
case 'resampling':
return this.applyResampling(dataset);
case 'fairness_constraints':
return this.applyFairnessConstraints(dataset);
case 'adversarial_debiasing':
return this.applyAdversarialDebiasing(dataset);
default:
return { error: 'Unknown mitigation strategy' };
}
}
applyResampling(dataset) {
// Simple resampling to balance representation
const protectedAttr = 'gender'; // Example
const groups = {};
dataset.forEach(item => {
const group = item[protectedAttr];
if (!groups[group]) groups[group] = [];
groups[group].push(item);
});
const minSize = Math.min(...Object.values(groups).map(g => g.length));
const balancedDataset = [];
Object.values(groups).forEach(group => {
// Randomly sample to match minimum size
const shuffled = group.sort(() => 0.5 - Math.random());
balancedDataset.push(...shuffled.slice(0, minSize));
});
return {
originalSize: dataset.length,
balancedSize: balancedDataset.length,
dataset: balancedDataset,
strategy: 'resampling'
};
}
applyFairnessConstraints(dataset) {
// Implement fairness constraints (simplified)
return {
message: 'Fairness constraints applied',
constraints: ['demographic_parity', 'equalized_odds'],
dataset: dataset // In real implementation, would modify predictions
};
}
applyAdversarialDebiasing(dataset) {
// Adversarial debiasing (simplified)
return {
message: 'Adversarial debiasing applied',
method: 'adversarial_network',
dataset: dataset // In real implementation, would retrain model
};
}
hasUserPermission(action) {
return this.userConsent; // Simplified
}
}
/**
* AI-Aware Component Decorator
*/
export function withAIAwareness(aiConfig = {}) {
return function(ComponentClass) {
// Handle both class and function components
if (typeof ComponentClass !== 'function') {
throw new Error('withAIAwareness decorator can only be applied to classes or functions');
}
// First apply principle validation
const PrincipleAwareClass = withPrinciples({
enabledPrinciples: ['INCLUSIVITY', 'PRIVACY', 'SECURITY'],
metadata: { hasBiasDetection: true, hasPrivacyControls: true },
...aiConfig.principles
})(ComponentClass);
class AIAwareComponent extends PrincipleAwareClass {
constructor(...args) {
super(...args);
this.aiAware = new AetherAIAware({
aiLevel: aiConfig.level || AI_AWARENESS_LEVELS.ADAPTIVE,
learningEnabled: aiConfig.learning !== false,
userConsent: aiConfig.consent || false,
...aiConfig
});
this.setupAIIntegration();
}
setupAIIntegration() {
// Integrate AI awareness with component lifecycle
const originalRender = this.render;
if (originalRender) {
this.render = (...args) => {
this.aiAware.patternRecognizer?.recordInteraction({
type: 'render',
target: this.constructor.name,
context: args
});
return originalRender.apply(this, args);
};
}
}
getAIInsights() {
return this.aiAware.getAIStatus();
}
explainAIDecision(decisionId) {
return this.aiAware.symbioticInterface?.explainDecision(decisionId);
}
}
// Preserve original class name
Object.defineProperty(AIAwareComponent, 'name', {
value: `AIAware${ComponentClass.name}`,
configurable: true
});
return AIAwareComponent;
};
}
export default {
AetherAIAware,
withAIAwareness,
AI_AWARENESS_LEVELS,
AI_ETHICS
};