UNPKG

@neuroequality/neuroadapt-ai

Version:

AI-powered accessibility personalization for neurodivergent users

143 lines (142 loc) 3.58 kB
import { EventEmitter } from 'eventemitter3'; export interface NeuralLayer { weights: number[][]; biases: number[]; activation: ActivationFunction; dropout?: number; } export type ActivationFunction = 'relu' | 'sigmoid' | 'tanh' | 'leaky_relu' | 'softmax'; export interface NeuralNetworkConfig { layers: number[]; activations: ActivationFunction[]; learningRate: number; momentum: number; regularization: number; batchSize: number; maxEpochs: number; convergenceThreshold: number; } export interface TrainingData { inputs: number[]; targets: number[]; userId: string; timestamp: Date; context: { deviceType: string; environment: string; timeOfDay: number; cognitiveState: number; }; } export interface PredictionResult { adaptations: { visual: number[]; cognitive: number[]; motor: number[]; sensory: number[]; }; confidence: number; reasoning: string[]; alternatives: Array<{ adaptations: any; confidence: number; }>; } export interface LearningMetrics { epoch: number; loss: number; accuracy: number; validationLoss: number; validationAccuracy: number; learningRate: number; convergenceRate: number; } /** * Neural Adaptation System for real-time accessibility optimization */ export declare class NeuralAdaptationSystem extends EventEmitter { private config; private network; private trainingHistory; private realtimeBuffer; private isTraining; private currentEpoch; constructor(config?: NeuralNetworkConfig); /** * Initialize neural network with random weights */ private initializeNetwork; /** * Forward propagation through the network */ private forward; /** * Compute output for a single layer */ private computeLayerOutput; /** * Apply activation function */ private applyActivation; /** * Backpropagation algorithm */ private backward; /** * Get activation function derivative */ private getActivationDerivative; /** * Train the network with batch data */ trainBatch(trainingData: TrainingData[]): Promise<LearningMetrics>; /** * Train for one epoch */ private trainEpoch; /** * Train with a single batch of data */ private trainBatchData; /** * Make prediction for user adaptations */ predict(userId: string, currentContext: any, userHistory: any[]): Promise<PredictionResult>; /** * Add real-time training data */ addRealtimeData(data: TrainingData): void; /** * Perform incremental learning with real-time data */ private performIncrementalLearning; /** * Evaluate network performance */ private evaluateNetwork; /** * Calculate prediction accuracy */ private calculateAccuracy; /** * Get total number of parameters in the network */ private getTotalParameters; private preprocessInputs; private preprocessTargets; private createPredictionInputs; private parseOutputToAdaptations; private calculatePredictionConfidence; private generateReasoning; private generateAlternatives; /** * Export network for persistence */ exportNetwork(): any; /** * Import network from saved state */ importNetwork(data: any): void; } export default NeuralAdaptationSystem; //# sourceMappingURL=neural-adaptation.d.ts.map