🔒 RESTRICTED ACCESS

This evidence dashboard contains confidential cryptographic proof and trade secrets.

AUTHORIZED PERSONNEL ONLY

❌ ACCESS DENIED - Invalid access code
⚠️ Warning: 2 attempts remaining
Hint: Quantum-resistant security level (4 digits)

📥 Export Evidence Report

Select the format and scope for your evidence export

📄 Full Evidence Report

Comprehensive PDF report including executive summary, ML-KEM-1024 implementation proof, encryption architecture diagrams, access control logs, audit trail, and trade secret architecture overview.

PDF ~15-20 pages

📊 Executive Summary

High-level overview designed for C-suite executives and investors. Includes key metrics, security highlights, and competitive advantages without deep technical details.

PDF 2-3 pages

🔬 Technical Deep Dive

Detailed cryptographic implementation for technical reviewers and security auditors. Includes complete encryption flows, database schemas, API specifications, and code samples.

PDF 25-30 pages

💾 Raw Data Export

Machine-readable JSON export containing all metrics, encryption metadata, access logs, and audit events. Ideal for automated analysis and integration with other systems.

JSON Structured data

📋 Audit Trail

Timestamped event log in CSV format for compliance reporting and forensic analysis. Includes all access requests, encryption events, and blockchain-anchored audit entries.

CSV Spreadsheet compatible

🔒 Trade Secret Architecture

CONFIDENTIAL: Auto-sharding architecture documentation including multi-key rotation, honeypot strategy, and implementation roadmap. For authorized investors only.

PDF NDA Required

🔍 ML-KEM-1024 Sample Encryption Process

Step-by-step demonstration of quantum-resistant file encryption

NIST FIPS 203 Security Level 5 Quantum Resistant 2048-bit equivalent

Step 1: Generate ML-KEM-1024 Key Pair

Operation: Generate quantum-resistant public/private key pair
Public Key Size: 1,568 bytes
Private Key Size: 3,168 bytes
Algorithm: ML-KEM-1024 (Kyber-1024)
const { publicKey, privateKey } = await mlkem1024.generateKeyPair(); // Public Key (1568 bytes): 0x7a4f2e1b8c9d3a6f5e4d2c1b0a9f8e7d6c5b4a3f2e1d0c9b8a7f6e5d4c3b2a1f... // Private Key (3168 bytes): 0x9f8e7d6c5b4a3f2e1d0c9b8a7f6e5d4c3b2a1f0e9d8c7b6a5f4e3d2c1b0a9f8e...

Step 2: Generate Data Encryption Key (DEK)

Operation: Create random symmetric encryption key for file data
Algorithm: AES-256-GCM
Key Size: 32 bytes (256 bits)
const DEK = crypto.getRandomValues(new Uint8Array(32)); // DEK (32 bytes): 0x3c8b7a9f2e1d4c6b5a8f7e6d5c4b3a2f1e0d9c8b7a6f5e4d3c2b1a0f9e8d7c6b

Step 3: Encapsulate DEK with ML-KEM-1024

Operation: Use ML-KEM-1024 to generate shared secret
Input: Vault public key (1568 bytes)
Output: Ciphertext (1568 bytes) + Shared Secret (32 bytes)
const { ciphertext: kemCiphertext, sharedSecret } = await mlkem1024.encapsulate(vaultPublicKey); // KEM Ciphertext (1568 bytes): 0x6f5e4d3c2b1a0f9e8d7c6b5a4f3e2d1c0b9a8f7e6d5c4b3a2f1e0d9c8b7a6f5e... // Shared Secret (32 bytes): 0x8d7c6b5a4f3e2d1c0b9a8f7e6d5c4b3a2f1e0d9c8b7a6f5e4d3c2b1a0f9e8d7c

Step 4: Derive Key Encryption Key (KEK)

Operation: Derive KEK from shared secret using HKDF-SHA512
Input: Shared secret (32 bytes)
Salt: 64 bytes random
Info: "mecentral-v2-kek"
const KEK = await crypto.subtle.deriveKey({ name: 'HKDF', hash: 'SHA-512', salt: new Uint8Array(64), info: new TextEncoder().encode('mecentral-v2-kek') }, sharedSecret, { name: 'AES-KW', length: 256 }); // KEK (32 bytes derived): 0x2f1e0d9c8b7a6f5e4d3c2b1a0f9e8d7c6b5a4f3e2d1c0b9a8f7e6d5c4b3a2f1e

Step 5: Wrap DEK with KEK

Operation: Encrypt DEK using AES-256-KW (Key Wrapping)
Input: DEK (32 bytes) + KEK (32 bytes)
Output: Wrapped DEK (40 bytes)
const wrappedDEK = await crypto.subtle.wrapKey( 'raw', DEK, KEK, { name: 'AES-KW' } ); // Wrapped DEK (40 bytes): 0x5e4d3c2b1a0f9e8d7c6b5a4f3e2d1c0b9a8f7e6d5c4b3a2f1e0d9c8b7a6f5e4d3c2b

Step 6: Encrypt File with AES-256-GCM

Operation: Encrypt file data using DEK
Algorithm: AES-256-GCM (Authenticated Encryption)
Nonce: 12 bytes random
Auth Tag: 16 bytes (automatic)
const nonce = crypto.getRandomValues(new Uint8Array(12)); const encryptedFile = await crypto.subtle.encrypt({ name: 'AES-GCM', iv: nonce, tagLength: 128 }, DEK, fileData); // File Ciphertext (variable size): 0x4d3c2b1a0f9e8d7c6b5a4f3e2d1c0b9a8f7e6d5c4b3a2f1e... [continues for file size] // Authentication Tag (16 bytes): 0x9e8d7c6b5a4f3e2d1c0b9a8f7e6d5c4b

Step 7: Store Encrypted Package

Storage Format: All components saved to database
{ "encryption_metadata": { "algorithm": "ML-KEM-1024 + AES-256-GCM", "kem_ciphertext": "[1568 bytes]", "wrapped_dek": "[40 bytes]", "nonce": "[12 bytes]", "file_ciphertext": "[variable bytes]", "auth_tag": "[16 bytes]", "vault_public_key_id": "vault_pk_abc123", "timestamp": "2025-11-05T00:00:00.000Z", "security_level": "NIST Level 5 - Quantum Resistant" } }
🔒 RESULT: QUANTUM-RESISTANT ENCRYPTION
Files protected by 2048-bit equivalent security
Resistant to attacks from future quantum computers
NIST FIPS 203 compliant • Security Level 5

✓ Cryptographic Verification

Automated validation of ML-KEM-1024 implementation compliance

⏳

ML-KEM-1024 Key Size Verification

Validating public key (1568 bytes) and private key (3168 bytes) sizes

⏳

Shared Secret Size

Verifying ML-KEM-1024 encapsulation produces 32-byte shared secret

⏳

HKDF-SHA512 Derivation

Confirming KEK derivation using HKDF with SHA-512 hash function

⏳

AES-256-KW Wrapping

Validating DEK wrapping with AES-256 Key Wrap algorithm

⏳

AES-256-GCM Encryption

Verifying file encryption with AES-256-GCM authenticated encryption

⏳

NIST FIPS 203 Compliance

Confirming implementation matches NIST FIPS 203 standard for ML-KEM-1024

⏳

Argon2id Configuration

Validating password hashing with 100,000 iterations

⏳

Database Storage Structure

Verifying all encryption metadata properly stored in database

🔄 AUTO-SHARDING EVIDENCE DASHBOARD

Phase 2 Trade Secret: Multi-Key Sharding & Honeypot Architecture

Last Updated: Loading...

← Back to Main Evidence Dashboard
⚠️ TRADE SECRET WARNING: This page contains proprietary multi-key sharding implementation details. Unauthorized disclosure is prohibited.

🔄 Phase 2: Auto-Sharding Architecture

🎛️ SYSTEM CONFIGURATION
Adjust settings to see exponential security scaling in real-time
⚡ MULTI-LEVEL HONEYPOT FORTRESS
Loading configuration...

📊 ACTUAL Vault Statistics

ℹ️ NOTE: These values show the actual key pool currently initialized in the database. This represents real production security configuration, not simulation values.
Click "Initialize Auto-Sharding System" above to generate evidence...

🎯 SIMULATED Attack Surface Complexity

ℹ️ NOTE: These calculations are simulations based on the 🎛️ System Configuration selectors above. Adjust the sliders to see how security scales with different parameters. Does not affect actual vault configuration.
Initialize first to see complexity metrics...

⚙️ SIMULATED Vault-Scale Key Distribution

ℹ️ NOTE: This shows calculated metrics based on 🎛️ System Configuration parameters. Use this to demonstrate how key distribution scales with vault size and exposure ratios.
Use System Configuration above to calculate vault-scale metrics...

🏆 Competitive Advantage: Why This Changes Everything

❌ Traditional Encrypted Storage

Standard Approach:
• Single encryption layer
• Static file locations
• 1 breach = total compromise
• No honeypot protection
• No auto-tagging or time-windowed access
• Fixed attack surface

Attack Surface: Find file, crack key = success

✅ MeCentral Auto-Sharding

This System:
• Multi-level honeypot fortress (3 levels)
• 2-5% real/honeypot ratio per level
• ANY mistake triggers vault reshard
• Scales with vault size automatically
• Quantum-resistant (ML-KEM-1024)
• Zero-knowledge architecture

Attack: Navigate 3 levels perfectly or start over
💰 THE KICKER
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