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claude-flow

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Enterprise-grade AI agent orchestration with WASM-powered ReasoningBank memory and AgentDB vector database (always uses latest agentic-flow)

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/** * NeuralInit - Neural network initialization mode * Sets up neural network training and optimization capabilities */ import { IInitMode, InitConfig, InitResult } from '../types/interfaces.js'; export class NeuralInit implements IInitMode { getDescription(): string { return 'Neural network initialization with distributed training, WASM optimization, and pattern learning'; } getRequiredComponents(): string[] { return ['ConfigManager', 'DatabaseManager', 'TopologyManager', 'AgentRegistry', 'MCPIntegrator', 'MetricsCollector']; } validate(): boolean { // Check if WASM is supported return typeof WebAssembly !== 'undefined' || typeof global !== 'undefined'; } async initialize(config: InitConfig): Promise<InitResult> { const components: string[] = []; try { // Basic initialization if (config.configManager) { components.push('ConfigManager'); } if (config.databaseManager) { await config.databaseManager.initialize(); components.push('DatabaseManager'); } // Use mesh topology for distributed neural training if (config.topologyManager) { await config.topologyManager.configure('mesh', []); components.push('TopologyManager'); } if (config.agentRegistry) { await config.agentRegistry.initialize(); components.push('AgentRegistry'); } // Spawn neural-specific agents if (config.agentRegistry) { // Neural Network Architect await config.agentRegistry.spawn('researcher', { capabilities: ['neural-architecture', 'model-design', 'hyperparameter-tuning'], metadata: { role: 'neural-architect', specialization: 'architecture-design', frameworks: ['tensorflow', 'pytorch', 'wasm'] } }); // Training Coordinator await config.agentRegistry.spawn('coordinator', { capabilities: ['distributed-training', 'data-management', 'training-coordination'], metadata: { role: 'training-coordinator', specialization: 'training-management', distributedCapable: true } }); // Pattern Recognition Agent await config.agentRegistry.spawn('analyst', { capabilities: ['pattern-recognition', 'data-analysis', 'feature-extraction'], metadata: { role: 'pattern-analyst', specialization: 'pattern-recognition', algorithms: ['cnn', 'rnn', 'transformer'] } }); // Optimization Agent await config.agentRegistry.spawn('optimizer', { capabilities: ['model-optimization', 'wasm-acceleration', 'performance-tuning'], metadata: { role: 'neural-optimizer', specialization: 'performance-optimization', wasmEnabled: true, simdEnabled: true } }); // Validation Agent await config.agentRegistry.spawn('tester', { capabilities: ['model-validation', 'accuracy-testing', 'benchmark-testing'], metadata: { role: 'neural-validator', specialization: 'model-validation', metrics: ['accuracy', 'precision', 'recall', 'f1'] } }); components.push('NeuralAgents'); } // Initialize Neural MCP integration if (config.mcpIntegrator) { await config.mcpIntegrator.initialize(); // Test neural MCP functions const neuralStatus = await config.mcpIntegrator.executeCommand({ tool: 'claude-flow', function: 'neural_status', parameters: {} }); if (neuralStatus.success) { components.push('NeuralMCP'); } // Initialize neural training const trainResult = await config.mcpIntegrator.executeCommand({ tool: 'claude-flow', function: 'neural_train', parameters: { pattern_type: 'coordination', training_data: 'initialization patterns', epochs: 10 } }); if (trainResult.success) { components.push('NeuralTraining'); } } // Set up neural network memory structures if (config.databaseManager) { await config.databaseManager.store('neural-config', { initialized: true, mode: 'neural', wasmOptimization: true, simdAcceleration: true, distributedTraining: true, modelTypes: ['feedforward', 'lstm', 'transformer'], timestamp: new Date().toISOString() }, 'neural'); // Initialize model registry await config.databaseManager.store('model-registry', { models: [], trainingJobs: [], benchmarks: [] }, 'neural'); // Initialize pattern learning await config.databaseManager.store('pattern-learning', { patterns: { coordination: { accuracy: 0.0, training: true }, optimization: { accuracy: 0.0, training: false }, prediction: { accuracy: 0.0, training: false } }, learningRate: 0.001, adaptationEnabled: true }, 'neural'); components.push('NeuralMemory'); } // Initialize performance metrics for neural systems if (config.metricsCollector) { await config.metricsCollector.initialize(); // Record neural initialization metrics await config.metricsCollector.recordSystemMetrics({ cpuUsage: 45, // Neural processing baseline memoryUsage: 60, // Models require more memory diskUsage: 40, networkLatency: 15, activeConnections: 5 }); components.push('NeuralMetrics'); } // Set up neural network architectures if (config.databaseManager) { const architectures = { 'coordination-net': { type: 'feedforward', layers: [ { type: 'dense', units: 128, activation: 'relu' }, { type: 'dropout', rate: 0.2 }, { type: 'dense', units: 64, activation: 'relu' }, { type: 'dense', units: 32, activation: 'softmax' } ], purpose: 'Agent coordination optimization' }, 'pattern-lstm': { type: 'lstm', layers: [ { type: 'lstm', units: 64, return_sequences: true }, { type: 'dropout', rate: 0.3 }, { type: 'lstm', units: 32 }, { type: 'dense', units: 16, activation: 'sigmoid' } ], purpose: 'Pattern recognition and prediction' }, 'performance-transformer': { type: 'transformer', layers: [ { type: 'attention', heads: 8, key_dim: 64 }, { type: 'feedforward', dim: 256 }, { type: 'layer_norm' }, { type: 'dense', units: 1, activation: 'linear' } ], purpose: 'Performance prediction and optimization' } }; await config.databaseManager.store('neural-architectures', architectures, 'neural'); components.push('NeuralArchitectures'); } return { success: true, mode: 'neural', components, topology: 'mesh', message: 'Neural network initialization completed successfully - Distributed learning active', metadata: { wasmOptimization: true, simdAcceleration: true, distributedTraining: true, modelArchitectures: 3, patternLearning: true, performanceOptimization: true } }; } catch (error) { return { success: false, mode: 'neural', components, error: error instanceof Error ? error.message : String(error), message: 'Neural initialization failed' }; } } }