/**
 * CLP Types
 */
type SecurityProfile = 'ULTIMATE' | 'HIGH' | 'STANDARD';
interface SecurityConfig {
    lattice_dimension: number;
    polynomial_degree: number;
    graph_size: number;
    prime_bits: number;
    key_derivation_rounds: number;
    growth_trigger_threshold: number;
}
interface PerformanceConfig {
    enable_parallel_processing: boolean;
    use_web_workers: boolean;
    cache_size: number;
    batch_size: number;
    compression_enabled: boolean;
}
interface FeatureConfig {
    auto_growth: boolean;
    authenticated_encryption: boolean;
    streaming_support: boolean;
    debug_mode: boolean;
    strict_validation: boolean;
}
interface CLPConfig {
    security: SecurityConfig;
    performance: PerformanceConfig;
    features: FeatureConfig;
}
interface ConfigOverrides {
    security?: Partial<SecurityConfig>;
    performance?: Partial<PerformanceConfig>;
    features?: Partial<FeatureConfig>;
}
interface EncryptionOptions {
    withAuthentication?: boolean;
    withCompression?: boolean;
    useParallel?: boolean;
}
interface DecryptionOptions {
    verifyAuthentication?: boolean;
    strict?: boolean;
}
interface EncryptedPayload {
    version: string;
    blocks: EncryptedBlock[];
    metadata: PayloadMetadata;
    auth?: string;
}
interface EncryptedBlock {
    lattice: SerializedBigInt;
    growthCycle: number;
    entropy: number;
}
interface PayloadMetadata {
    timestamp: number;
    blockCount: number;
    algorithm: string;
    profile: SecurityProfile;
    compressed: boolean;
    authenticated: boolean;
    originalLength?: number;
    growthCycle?: number;
}
interface SerializedBigInt {
    _bigint: string;
}
type LatticeMatrix = bigint[][];
type LatticeVector = bigint[];
interface LatticeConfig {
    dimension: number;
    prime: bigint;
    config: CLPConfig;
}
interface EncodedValue {
    value: bigint;
    checksum?: number;
}
type CLPErrorCode = 'CONFIG_ERROR' | 'CRYPTO_ERROR' | 'WORKER_ERROR' | 'VALIDATION_ERROR' | 'PERFORMANCE_ERROR' | 'UNKNOWN_ERROR';
interface CLPErrorDetails {
    originalError?: Error;
    messageLength?: number;
    blockCount?: number;
    [key: string]: any;
}
interface ErrorRecoveryHints {
    [code: string]: string;
}
interface SystemCapabilities {
    webWorkers: boolean;
    standaloneRandom: boolean;
    streams: boolean;
    bigInt: boolean;
    nodeEnvironment: boolean;
    browserEnvironment: boolean;
}
interface ValidationResult {
    valid: boolean;
    error?: string;
    recoveryHints?: string;
}
interface BenchmarkResult {
    profile: SecurityProfile;
    opsPerSec: number;
    avgTime: string;
    minTime: number;
    maxTime: number;
}
interface BenchmarkResults {
    results: Record<SecurityProfile, BenchmarkResult>;
    systemInfo: SystemCapabilities;
    timestamp: number;
}
type StreamChunk = string | Uint8Array | Buffer;
interface StreamOptions {
    authentication?: boolean;
    compression?: boolean;
    chunkSize?: number;
    encoding?: 'utf8' | 'binary';
}
interface CLPStream {
    write(chunk: string): Promise<void>;
    flush(): Promise<EncryptedPayload>;
    encrypt(chunk: StreamChunk): Promise<EncryptedPayload>;
    decrypt(payload: EncryptedPayload): Promise<StreamChunk>;
    close(): void;
    destroy(): void;
}
interface FluentEncryption {
    withAuthentication(): FluentEncryption;
    withCompression(): FluentEncryption;
    withParallel(): FluentEncryption;
    execute(): Promise<EncryptedPayload>;
}
interface FluentDecryption {
    withVerification(): FluentDecryption;
    withStrict(): FluentDecryption;
    execute(): Promise<string>;
}
type CLPEventType = 'encrypt' | 'decrypt' | 'evolve' | 'error';
interface CLPEvent {
    type: CLPEventType;
    timestamp: number;
    data: any;
}
type CLPEventListener = (event: CLPEvent) => void;
interface CLPInfo {
    version: string;
    securityLevel: string;
    configuration: CLPConfig;
    currentState: {
        growthCycle: number;
        operationCount: number;
        cacheSize: number;
    };
    performance: {
        workerPoolActive: boolean;
        cacheHitRatio: number;
    };
    complexity: number;
}
interface CLP {
    encrypt(message: string, options?: EncryptionOptions): FluentEncryption;
    decrypt(payload: EncryptedPayload, options?: DecryptionOptions): Promise<string>;
    evolve(): Promise<void>;
    getInfo(): CLPInfo;
    createStream(options?: StreamOptions): CLPStream;
    on(event: CLPEventType, listener: CLPEventListener): void;
    off(event: CLPEventType, listener: CLPEventListener): void;
    destroy(): void;
}
interface TestCase {
    name: string;
    message: string;
    expectedBlocks?: number;
    profile?: SecurityProfile;
}
interface TestResult {
    passed: number;
    failed: number;
    total: number;
    duration: number;
    details: Array<{
        name: string;
        passed: boolean;
        error?: string;
        duration: number;
    }>;
}
interface CLPFactory {
    create(profile?: SecurityProfile, overrides?: ConfigOverrides): CLP;
    ultimate(overrides?: ConfigOverrides): CLP;
    high(overrides?: ConfigOverrides): CLP;
    standard(overrides?: ConfigOverrides): CLP;
    utils: {
        getCapabilities(): SystemCapabilities;
        validateConfig(config: CLPConfig): ValidationResult;
        benchmark(iterations?: number): Promise<BenchmarkResults>;
        test(profile?: SecurityProfile): Promise<TestResult>;
    };
}

/**
 * Core CLP (Cryptographic Layered Protocol) implementation
 */

declare class CLPCore implements CLP {
    private config;
    private hybridLayer;
    private growthCounter;
    private operationCount;
    private eventListeners;
    private errorHandler;
    private isDestroyed;
    private growthStates;
    constructor(config: CLPConfig);
    /**
     * Fluent encryption interface
     */
    encrypt(message: string, options?: EncryptionOptions): FluentEncryption;
    /**
     * Direct decryption
     */
    decrypt(payload: EncryptedPayload, options?: DecryptionOptions): Promise<string>;
    /**
     * Internal encryption implementation
     */
    performEncryption(message: string, options: EncryptionOptions): Promise<EncryptedPayload>;
    /**
     * Encrypt a single block using a hybrid multi-layer approach
     */
    private encryptBlock;
    /**
     * Decrypt a single block using a hybrid multi-layer approach
     */
    private decryptBlock;
    /**
     * Protocol evolution for enhanced security across all layers
     */
    evolve(): Promise<void>;
    /**
     * Get comprehensive protocol information including all layers
     */
    getInfo(): CLPInfo;
    /**
     * Create a streaming interface
     */
    createStream(options?: StreamOptions): CLPStream;
    /**
     * Event system
     */
    on(event: CLPEventType, listener: CLPEventListener): void;
    off(event: CLPEventType, listener: CLPEventListener): void;
    private emit;
    /**
     * Clean up resources across all layers
     */
    destroy(): void;
    private validateNotDestroyed;
    private validateInput;
    private validatePayload;
    private shouldTriggerGrowth;
    private getSecurityLevel;
    private calculateCacheHitRatio;
    private bytesToBlock;
    private blockToBytes;
    private generateAuthTag;
    private verifyAuthTag;
    private serializeBigInt;
    private deserializeBigInt;
    private saveCurrentState;
    private restoreGrowthState;
}

/**
 * Configuration Manager for CLP (Cryptographic Lattice Protocol)
 */

declare class CLPConfigManager {
    private static readonly PROFILES;
    /**
     * Create configuration from a profile with optional overrides
     */
    static create(profile?: SecurityProfile, overrides?: ConfigOverrides): CLPConfig;
    /**
     * Get available security profiles
     */
    static getProfiles(): SecurityProfile[];
    /**
     * Get the default configuration for a profile
     */
    static getProfile(profile: SecurityProfile): CLPConfig;
    /**
     * Validate configuration object
     */
    static validate(config: CLPConfig): void;
    private static validateSecurity;
    private static validatePerformance;
    private static validateFeatures;
    /**
     * Deep merge two configuration objects
     */
    private static deepMerge;
    /**
     * Create configuration with security level recommendations
     */
    static recommendProfile(requirements: {
        securityLevel?: 'maximum' | 'high' | 'standard';
        performance?: 'fast' | 'balanced' | 'secure';
        environment?: 'browser' | 'node' | 'worker';
    }): SecurityProfile;
}

/**
 * Custom error handling for CLP (Crypto Library Protocol)
 */

declare class CLPError extends Error {
    readonly code: CLPErrorCode;
    readonly details: CLPErrorDetails;
    readonly timestamp: number;
    readonly recoveryHints: string;
    constructor(message: string, code?: CLPErrorCode, details?: CLPErrorDetails);
    private generateRecoveryHints;
    /**
     * Convert error to JSON for logging/serialization
     */
    toJSON(): object;
    /**
     * Check if the error is recoverable
     */
    isRecoverable(): boolean;
    /**
     * Get error severity level
     */
    getSeverity(): 'low' | 'medium' | 'high' | 'critical';
}
/**
 * Error handler with proper memory management
 */
declare class CLPErrorHandler {
    private static instance;
    private errorLog;
    private maxLogSize;
    private listeners;
    private constructor();
    static getInstance(): CLPErrorHandler;
    /**
     * Handle error with proper logging and cleanup
     */
    handle(error: CLPError): void;
    /**
     * Add error listener
     */
    addListener(listener: (error: CLPError) => void): void;
    /**
     * Remove error listener
     */
    removeListener(listener: (error: CLPError) => void): void;
    /**
     * Get recent errors
     */
    getRecentErrors(count?: number): CLPError[];
    /**
     * Clear error log to free memory
     */
    clearLog(): void;
    /**
     * Destroy handler and clean up memory
     */
    destroy(): void;
}

/**
 * HybridLayer class for encoding and decoding data using a multi-layer approach
 */

declare class HybridLayer {
    private config;
    private latticeLayer;
    private polynomialLayer;
    private graphLayer;
    private isDestroyed;
    constructor(config: CLPConfig);
    /**
     * Encode data using a hybrid multi-layer approach
     */
    encode(data: number, useAuth?: boolean): any;
    /**
     * Decode data using a hybrid multi-layer approach
     */
    decode(encodedData: any): number;
    /**
     * Evolve all layers for enhanced security
     */
    evolve(): Promise<void>;
    /**
     * Get complexity metrics for all layers
     */
    getComplexity(): any;
    /**
     * Get the current state of all layers for state management
     */
    getState(): any;
    /**
     * Set the state of all layers for state management
     */
    setState(state: any): void;
    /**
     * Clean up all layers and prevent memory leaks
     */
    destroy(): void;
}

/**
 * GraphLayer class for secure data encoding/decoding
 */

declare class GraphLayer {
    private config;
    private size;
    private nodes;
    private isDestroyed;
    constructor(config: CLPConfig);
    /**
     * Initialize graph structure
     */
    private initializeGraph;
    /**
     * Encode data using graph traversal
     */
    encode(data: bigint): bigint;
    /**
     * Decode data using reverse graph traversal
     */
    decode(encodedData: bigint): bigint;
    /**
     * Evolve graph structure for enhanced security
     */
    evolve(): Promise<void>;
    /**
     * Get graph complexity metric
     */
    getComplexity(): number;
    /**
     * Get current state for state management
     */
    getState(): any;
    /**
     * Set state for state management
     */
    setState(state: any): void;
    /**
     * Clean up graph data to prevent memory leaks
     */
    destroy(): void;
}

/**
 * PolynomialLayer class for encoding and decoding data using polynomial evaluation.
 */

declare class PolynomialLayer {
    private config;
    private degree;
    private coefficients;
    private modulus;
    private isDestroyed;
    constructor(config: CLPConfig);
    /**
     * Initialize polynomial coefficients
     */
    private initializeCoefficients;
    /**
     * Encode data using polynomial evaluation
     */
    encode(data: bigint): bigint;
    /**
     * Decode data using polynomial interpolation (simplified)
     */
    decode(encodedData: bigint): bigint;
    /**
     * Evolve polynomial for enhanced security
     */
    evolve(): Promise<void>;
    /**
     * Get polynomial complexity metric
     */
    getComplexity(): number;
    /**
     * Get current state for state management
     */
    getState(): any;
    /**
     * Set state for state management
     */
    setState(state: any): void;
    /**
     * Clean up polynomial data to prevent memory leaks
     */
    destroy(): void;
    /**
     * Calculate modular inverse
     */
    private modularInverse;
}

/**
 * LatticeLayer class for lattice-based encryption and decryption
 */

declare class LatticeLayer {
    private config;
    private dimension;
    private basis;
    private privateKey;
    private isDestroyed;
    constructor(config: CLPConfig);
    /**
     * Initialize a lattice basis and private key
     */
    private initializeLattice;
    /**
     * Encode data using lattice-based encryption
     */
    encode(data: number): bigint;
    /**
     * Decode data using lattice-based decryption
     */
    decode(encodedData: bigint): number;
    /**
     * Evolve the lattice for enhanced security
     */
    evolve(): Promise<void>;
    /**
     * Get lattice complexity metric
     */
    getComplexity(): number;
    /**
     * Get current state for state management
     */
    getState(): any;
    /**
     * Set state for state management
     */
    setState(state: any): void;
    /**
     * Clean up lattice data to prevent memory leaks
     */
    destroy(): void;
}

/**
 * CLPMath - Cryptographic Math Utilities
 */
declare class CLPMath {
    private static entropy;
    private static initialized;
    /**
     * Initialize an entropy pool with multiple sources
     */
    static initializeEntropy(): void;
    /**
     * Secure random number generation using multiple entropy sources
     */
    static secureRandom(max?: number): number;
    /**
     * Generate cryptographically strong random bytes
     */
    static randomBytes(length: number): Uint8Array;
    /**
     * Generate safe prime numbers for cryptographic use
     */
    static generatePrime(bits?: number): bigint;
    /**
     * Modular exponentiation for large numbers
     */
    static modPow(base: bigint, exponent: bigint, modulus: bigint): bigint;
    /**
     * Greatest common divisor
     */
    static gcd(a: bigint, b: bigint): bigint;
    /**
     * Clean up static resources to prevent memory leaks
     */
    static cleanup(): void;
    /**
     * Validate number range to prevent overflow
     */
    static validateRange(value: number, min?: number, max?: number): boolean;
}

/**
 * CLP Utils - Utility functions for CLP operations
 */

declare class CLPUtils {
    /**
     * Get system capabilities for environment detection
     */
    static getCapabilities(): SystemCapabilities;
    /**
     * Validate configuration with detailed error reporting
     */
    static validateConfig(config: CLPConfig): ValidationResult;
    /**
     * Comprehensive benchmark across all security profiles
     */
    static benchmark(iterations?: number): Promise<BenchmarkResults>;
    /**
     * Comprehensive test suite
     */
    static test(profile?: SecurityProfile): Promise<TestResult>;
    private static testBasicEncryption;
    private static testEmptyString;
    private static testLargeMessage;
    private static testUnicodeSupport;
    private static testAuthentication;
    private static testEvolution;
    private static testErrorHandling;
    private static testConfigValidation;
    /**
     * Generate performance report
     */
    static generatePerformanceReport(benchmarkResults: BenchmarkResults): string;
    /**
     * Memory usage estimation
     */
    static estimateMemoryUsage(config: CLPConfig): {
        latticeSize: string;
        cacheSize: string;
        totalEstimate: string;
    };
}

export { CLPConfigManager, CLPCore, CLPError, CLPErrorHandler, CLPMath, CLPUtils, GraphLayer, HybridLayer, LatticeLayer, PolynomialLayer, CLPCore as default };
export type { BenchmarkResult, BenchmarkResults, CLP, CLPConfig, CLPErrorCode, CLPErrorDetails, CLPEvent, CLPEventListener, CLPEventType, CLPFactory, CLPInfo, CLPStream, ConfigOverrides, DecryptionOptions, EncodedValue, EncryptedBlock, EncryptedPayload, EncryptionOptions, ErrorRecoveryHints, FeatureConfig, FluentDecryption, FluentEncryption, LatticeConfig, LatticeMatrix, LatticeVector, PayloadMetadata, PerformanceConfig, SecurityConfig, SecurityProfile, SerializedBigInt, StreamChunk, StreamOptions, SystemCapabilities, TestCase, TestResult, ValidationResult };