/** * Neural Workflow for Pattern Recognition * * Orchestrates the neural pattern recognition process with TensorFlow integration */ import { EventBus } from '../../core/event-bus.js'; import { Logger, logger } from '../../core/logger.js'; import { PatternRecognizer } from './pattern-recognizer.js'; import { NeuralManager } from './neural-manager.js'; import { PatternType, PatternMatch } from '../types.js'; export interface NeuralWorkflowConfig { // Workflow configuration options batchProcessing: boolean; parallelExecution: boolean; adaptiveLearning: boolean; reinforcementCycles: number; feedbackThreshold: number; enableOptimization: boolean; } export interface WorkflowResult { matches: PatternMatch[]; analysis: { confidence: number; matchCount: number; executionTimeMs: number; tensorFlowUsed: boolean; optimizationApplied: boolean; }; recommendations?: { action: string; confidence: number; reasoning: string; }[]; feedback?: { metric: string; value: number; threshold: number; action: string; }[]; } /** * Neural Workflow for orchestrating pattern recognition processes */ export class NeuralWorkflow { private logger: Logger; private eventBus: EventBus; private patternRecognizer: PatternRecognizer; private neuralManager: NeuralManager; private config: NeuralWorkflowConfig; private workflowCache = new Map(); constructor( patternRecognizer: PatternRecognizer, neuralManager: NeuralManager, eventBus: EventBus, config: NeuralWorkflowConfig ) { this.patternRecognizer = patternRecognizer; this.neuralManager = neuralManager; this.eventBus = eventBus; this.config = config; const loggerInstance = Logger.getInstance({ level: 'info', format: 'json', destination: 'console' }); this.logger = loggerInstance?.child({ component: 'NeuralWorkflow' }) || { debug: (msg: string, meta?: any) => console.debug(`[NeuralWorkflow] ${msg}`, meta), info: (msg: string, meta?: any) => console.info(`[NeuralWorkflow] ${msg}`, meta), warn: (msg: string, meta?: any) => console.warn(`[NeuralWorkflow] ${msg}`, meta), error: (msg: string, error?: any) => console.error(`[NeuralWorkflow] ${msg}`, error), configure: async () => {}, child: (ctx: any) => this.logger } as any; this.setupEventListeners(); } /** * Initialize the workflow */ async initialize(): Promise { this.logger.info('Initializing Neural Workflow'); try { // Only NeuralManager has initialize method await this.neuralManager.initialize(); this.eventBus.emit('neural:workflow:initialized', { timestamp: new Date().toISOString(), config: this.config }); this.logger.info('Neural Workflow initialized successfully'); } catch (error) { this.logger.error('Failed to initialize Neural Workflow', error); throw error; } } /** * Execute pattern recognition workflow */ async executePatternRecognition(inputData: Record): Promise { this.logger.info('Executing pattern recognition workflow'); try { // PatternRecognizer.recognizePattern expects (swarmId, data, patternType) const swarmId = (inputData.swarmId as string) || 'default-swarm'; const patternType = (inputData.patternType as PatternType) || 'coordination'; const result = await this.patternRecognizer.recognizePattern(swarmId, inputData, patternType); this.eventBus.emit('neural:pattern:recognition:complete', { timestamp: new Date().toISOString(), patterns: result, inputData }); return result; } catch (error) { this.logger.error('Pattern recognition workflow failed', error); throw error; } } /** * Execute neural processing workflow */ async executeNeuralProcessing(inputData: Record): Promise { this.logger.info('Executing neural processing workflow'); try { // Use NeuralManager's recognizePattern method as the main processing method const swarmId = (inputData.swarmId as string) || 'default-swarm'; const patternType = (inputData.patternType as PatternType) || 'coordination'; const result = await this.neuralManager.recognizePattern(swarmId, inputData, patternType); this.eventBus.emit('neural:processing:complete', { timestamp: new Date().toISOString(), result, inputData }); return result; } catch (error) { this.logger.error('Neural processing workflow failed', error); throw error; } } /** * Execute combined pattern recognition and neural processing workflow */ async executeCombinedWorkflow(inputData: Record): Promise<{ pattern: PatternMatch[]; neural: any }> { this.logger.info('Executing combined neural workflow'); try { const patternResult = await this.executePatternRecognition(inputData); let neuralResult; try { neuralResult = await this.executeNeuralProcessing(inputData); } catch (neuralError) { this.logger.error('Neural processing failed in combined workflow', neuralError); neuralResult = { error: 'Neural processing failed', details: neuralError }; } const result = { pattern: patternResult, neural: neuralResult }; this.eventBus.emit('neural:combined:workflow:complete', { timestamp: new Date().toISOString(), result, inputData }); return result; } catch (error) { this.logger.error('Combined neural workflow failed', error); throw error; } } /** * Get workflow metrics */ async getMetrics(): Promise { this.logger.info('Getting neural workflow metrics'); try { // Use available status methods instead of non-existent getMetrics const patternRecognitionMetrics = this.patternRecognizer.getStatus(); const neuralProcessingMetrics = this.neuralManager.getStatus(); const workflowMetrics = { patternRecognitionMetrics, neuralProcessingMetrics, cacheSize: this.workflowCache.size, config: this.config, recentWorkflows: Array.from(this.workflowCache.entries()) .slice(-10) .map(([key, value]) => ({ key, matchCount: value.matches.length, confidence: value.analysis.confidence, tensorFlowUsed: value.analysis.tensorFlowUsed })) }; return workflowMetrics; } catch (error) { this.logger.error('Failed to get workflow metrics', error); throw error; } } /** * Shutdown the workflow */ async shutdown(): Promise { this.logger.info('Shutting down Neural Workflow'); try { // Only NeuralManager has shutdown method await this.neuralManager.shutdown(); } catch (error) { this.logger.error('Error shutting down neural manager', error); } // Clear cache this.workflowCache.clear(); this.eventBus.emit('neural:workflow:shutdown', { timestamp: new Date().toISOString() }); this.logger.info('Neural Workflow shutdown complete'); } /** * Set up event listeners for the workflow */ private setupEventListeners(): void { this.eventBus.on('neural:pattern:recognized', data => { this.handlePatternRecognition(data); }); this.eventBus.on('neural:training:complete', data => { this.logger.info(`Training completed for ${data.modelName} with accuracy ${data.finalAccuracy}`); // Emit workflow updated event this.eventBus.emit('neural:workflow:updated', { component: 'training', modelName: data.modelName, accuracy: data.finalAccuracy, timestamp: new Date().toISOString() }); }); } /** * Handle pattern recognition events */ private handlePatternRecognition(data: { patterns: PatternMatch[]; swarmId: string; patternType: PatternType; executionTimeMs?: number; optimized?: boolean }): void { const { patterns, swarmId, patternType } = data; if (patterns && patterns.length > 0) { // Cache the result for future reference const cacheKey = `${swarmId}:${patternType}:${Date.now()}`; this.workflowCache.set(cacheKey, { matches: patterns, analysis: { confidence: patterns.reduce((acc: number, p: PatternMatch) => acc + p.confidence, 0) / patterns.length, matchCount: patterns.length, executionTimeMs: data.executionTimeMs || 0, tensorFlowUsed: patterns.some((p: PatternMatch) => p.modelName.includes('tensorflow')), optimizationApplied: data.optimized || false } }); // Clean up old cache entries this.cleanupCache(); } } /** * Clean up old cache entries */ private cleanupCache(): void { const maxCacheSize = 100; if (this.workflowCache.size > maxCacheSize) { // Remove oldest entries const sortedKeys = Array.from(this.workflowCache.keys()).sort(); const keysToDelete = sortedKeys.slice(0, this.workflowCache.size - maxCacheSize); keysToDelete.forEach(key => this.workflowCache.delete(key)); } } /** * Execute a neural pattern recognition workflow */ async executeWorkflow( swarmId: string, data: Record, patternType: PatternType, options: { priority?: 'high' | 'medium' | 'low'; timeout?: number; optimizationLevel?: number; } = {} ): Promise { const startTime = Date.now(); try { this.logger.debug(`Starting neural workflow for ${patternType} patterns`); // Process data through the pattern recognizer const matches = await this.patternRecognizer.recognizePattern(swarmId, data, patternType); // Apply neural manager optimization if enabled if (this.config.enableOptimization && options.optimizationLevel && options.optimizationLevel > 0) { await this.neuralManager.optimizePatterns(swarmId); } // Generate recommendations based on matches const recommendations = this.generateRecommendations(matches, patternType); // Generate feedback metrics const feedback = this.generateFeedback(matches, patternType); // Create workflow result const result: WorkflowResult = { matches, analysis: { confidence: matches.length > 0 ? matches.reduce((acc, p) => acc + p.confidence, 0) / matches.length : 0, matchCount: matches.length, executionTimeMs: Date.now() - startTime, tensorFlowUsed: matches.some(p => p.modelName.includes('tensorflow')), optimizationApplied: !!options.optimizationLevel && options.optimizationLevel > 0 }, recommendations, feedback }; // Emit workflow completed event this.eventBus.emit('neural:workflow:completed', { swarmId, patternType, matchCount: matches.length, executionTimeMs: result.analysis.executionTimeMs, timestamp: new Date().toISOString() }); return result; } catch (error) { this.logger.error('Neural workflow execution failed:', error); // Return empty result return { matches: [], analysis: { confidence: 0, matchCount: 0, executionTimeMs: Date.now() - startTime, tensorFlowUsed: false, optimizationApplied: false } }; } } /** * Execute pattern recognition in batch mode */ async executeBatchWorkflow( swarmId: string, dataItems: Record[], patternType: PatternType ): Promise { try { this.logger.info(`Starting batch neural workflow for ${dataItems.length} items`); // Process items in parallel if enabled if (this.config.parallelExecution) { const results = await Promise.all( dataItems.map(item => this.executeWorkflow(swarmId, item, patternType)) ); return results; } else { // Process sequentially const results: WorkflowResult[] = []; for (const item of dataItems) { const result = await this.executeWorkflow(swarmId, item, patternType); results.push(result); } return results; } } catch (error) { this.logger.error('Batch workflow execution failed:', error); return []; } } /** * Generate recommendations based on pattern matches */ private generateRecommendations( matches: PatternMatch[], patternType: PatternType ): { action: string; confidence: number; reasoning: string }[] { if (matches.length === 0) return []; const recommendations: { action: string; confidence: number; reasoning: string }[] = []; switch (patternType) { case 'coordination': // Recommend coordination strategies if (matches[0].confidence > 0.8) { recommendations.push({ action: 'optimize_coordination', confidence: matches[0].confidence, reasoning: 'High confidence coordination pattern match suggests optimization opportunity' }); } break; case 'optimization': // Recommend performance optimizations if (matches[0].confidence > 0.75) { recommendations.push({ action: 'apply_performance_optimizations', confidence: matches[0].confidence, reasoning: 'Strong optimization pattern match detected' }); } break; case 'prediction': // Recommend predictive scaling if (matches[0].confidence > 0.7) { recommendations.push({ action: 'enable_predictive_scaling', confidence: matches[0].confidence, reasoning: 'Predictive pattern indicates resource scaling opportunity' }); } break; case 'behavior': // Recommend behavior adaptations if (matches[0].confidence > 0.85) { recommendations.push({ action: 'adapt_agent_behavior', confidence: matches[0].confidence, reasoning: 'Strong behavior pattern suggests adaptation opportunity' }); } break; } return recommendations; } /** * Generate feedback metrics based on pattern matches */ private generateFeedback( matches: PatternMatch[], // eslint-disable-next-line @typescript-eslint/no-unused-vars _patternType: PatternType ): { metric: string; value: number; threshold: number; action: string }[] { if (matches.length === 0) return []; const feedback: { metric: string; value: number; threshold: number; action: string }[] = []; // Calculate average confidence const avgConfidence = matches.reduce((acc, m) => acc + m.confidence, 0) / matches.length; // Check if feedback should be generated if (avgConfidence > this.config.feedbackThreshold) { feedback.push({ metric: 'pattern_confidence', value: avgConfidence, threshold: this.config.feedbackThreshold, action: 'increase_recognition_weight' }); } // Check TensorFlow usage const tensorFlowMatches = matches.filter(m => m.modelName.includes('tensorflow')); if (tensorFlowMatches.length > 0) { const tfConfidence = tensorFlowMatches.reduce((acc, m) => acc + m.confidence, 0) / tensorFlowMatches.length; feedback.push({ metric: 'tensorflow_confidence', value: tfConfidence, threshold: 0.75, action: tfConfidence > 0.75 ? 'prioritize_tensorflow' : 'balance_approaches' }); } return feedback; } /** * Apply reinforcement learning to improve pattern recognition */ async applyReinforcement( // eslint-disable-next-line @typescript-eslint/no-unused-vars _swarmId: string, patternId: string, success: boolean, // eslint-disable-next-line @typescript-eslint/no-unused-vars _feedback?: { score: number; metadata: Record } ): Promise { try { // Update pattern usage with success/failure await this.patternRecognizer.updatePatternUsage(patternId, success); // If adaptive learning is enabled, apply reinforcement cycles if (this.config.adaptiveLearning && success) { // Apply reinforcement learning cycles for (let i = 0; i < this.config.reinforcementCycles; i++) { // Attempt to increase the pattern's confidence through usage await this.patternRecognizer.updatePatternUsage(patternId, true); } this.logger.debug(`Applied ${this.config.reinforcementCycles} reinforcement cycles to pattern ${patternId}`); } // Emit reinforcement event this.eventBus.emit('neural:reinforcement:applied', { patternId, success, reinforcementCycles: this.config.adaptiveLearning ? this.config.reinforcementCycles : 0, timestamp: new Date().toISOString() }); } catch (error) { this.logger.error('Failed to apply reinforcement:', error); } } /** * Get the workflow statistics */ getStatistics(): { cacheSize: number; config: NeuralWorkflowConfig; recentWorkflows: { key: string; matchCount: number; confidence: number; tensorFlowUsed: boolean }[]; } { return { cacheSize: this.workflowCache.size, config: this.config, recentWorkflows: Array.from(this.workflowCache.entries()) .slice(-5) .map(([key, value]) => ({ key, matchCount: value.matches.length, confidence: value.analysis.confidence, tensorFlowUsed: value.analysis.tensorFlowUsed })) }; } }