UNNS-SHA256 Hybrid Validation System
UNNS-SHA256 Hybrid Validation
Dual-Layer Security: Cryptographic Hash + Mathematical Pattern Validation
🔄 Processing Flow
1SHA-256 Cryptographic Hash
Input: Raw message data
Process: SHA-256 hashing algorithm
Output: 256-bit cryptographic digest
Security: Collision resistance, one-way function
⬇️
2UNNS Pattern Extraction
Input: Numeric representation of hash digest
Process: Extract modulus, apply UNNS formula
f(M, N) = (M × N) + (M ÷ N) + (M - N) + (M + N)
Output: UNNS validation tokens with cross-nest properties
⬇️
3Hybrid Verification
Process: Validate both cryptographic and mathematical layers
Requirements: SHA-256 match AND valid UNNS cross-nest relationships
Result: Combined security validation with error detection
📝 Core Implementation
// Hybrid validation function
function hybridValidate(message, nestParams) {
// Layer 1: Cryptographic security
const sha256Hash = CryptoJS.SHA256(message).toString();
const hashNumeric = parseInt(sha256Hash.substring(0, 16), 16);
// Layer 2: UNNS mathematical validation
const modulus = hashNumeric % 10000;
const nest = nestParams.primaryNest;
const unnsValue = (modulus * nest) +
(modulus / nest) +
(modulus - nest) +
(modulus + nest);
// Integer-preserving check
const isIntegerPreserving = (modulus % nest === 0);
// Cross-nest validation
const crossValidation = nestParams.validationNests.map(vNest => {
const crossValue = (modulus * vNest) +
(modulus / vNest) +
(modulus - vNest) +
(modulus + vNest);
return {
nest: vNest,
value: crossValue,
isInteger: (modulus % vNest === 0)
};
});
return {
sha256: sha256Hash,
modulus: modulus,
unnsValue: unnsValue,
isIntegerPreserving: isIntegerPreserving,
crossValidation: crossValidation,
securityLevel: calculateSecurityLevel(isIntegerPreserving, crossValidation)
};
}
// Security level calculation
function calculateSecurityLevel(isIntegerPreserving, crossValidation) {
const integerMatches = crossValidation.filter(cv => cv.isInteger).length;
if (isIntegerPreserving && integerMatches >= 2) return 'HIGH';
if (isIntegerPreserving || integerMatches >= 1) return 'MEDIUM';
return 'LOW';
}
// Attack detection
function detectTampering(original, modified) {
return {
cryptoTampered: original.sha256 !== modified.sha256,
unnsTampered: Math.abs(original.unnsValue - modified.unnsValue) > 0.01,
crossNestDisrupted: original.crossValidation.length !== modified.crossValidation.length
};
}
🎮 Interactive Validation Demo
🛡️ Security Model
🔒 Cryptographic Layer
- Algorithm: SHA-256
- Security: 2^256 collision resistance
- Properties: One-way, deterministic
- Attack Resistance: Brute force, rainbow tables
🧮 Mathematical Layer
- Algorithm: UNNS cross-nest validation
- Security: Pattern consistency
- Properties: Integer-preserving, recursive
- Attack Resistance: Mathematical relationship forgery
📈 Implementation Metrics
-
SHA-256 Time (ms)
-
UNNS Time (ms)
-
Total Time (ms)
-
Security Level
🚀 Deployment Considerations
Library Integration: Implement as middleware layer over existing SHA-256 implementations. Compatible with crypto libraries like OpenSSL, CryptoJS, or native Web Crypto API.
Performance Optimization: UNNS calculations are O(1) complexity. Pre-compute nest parameters for frequently used validation contexts. Cache cross-nest validation results.
Security Configuration: Select prime numbers for nest values to minimize collision patterns. Use different nest configurations for different security contexts.
Error Handling: Implement graceful degradation when UNNS validation fails but cryptographic validation passes. Log discrepancies for security analysis.
Standards Compliance: Design hybrid validation to be backwards compatible with pure SHA-256 implementations. Support standard hash formats and APIs.
A focused implementation guide for the UNNS-SHA256 hybrid validation system.
Key Implementation Features:
- Complete working code with SHA-256 hash integration
- Interactive demo showing dual-layer validation in action
- Performance benchmarking tools
- Tampering detection simulation
- Security model documentation
Technical Components:
- Step-by-step processing flow visualization
- Core implementation functions with proper error handling
- Real-time metrics tracking (hash time, UNNS time, security level)
- Cross-nest validation with configurable parameters
Practical Elements:
- Deployment considerations and integration guidelines
- Performance optimization strategies
- Security configuration recommendations
- Standards compliance notes
The interactive demo allows testing different messages, nest configurations, and validation scenarios, while the benchmark function provides performance metrics for practical deployment planning.