bug_demonstration.py

#!/usr/bin/env python3
"""
CRITICAL BUG DEMONSTRATION: Luther's Golden Algorithm
Proof of Concept for Bug Bounty Submission

This script demonstrates the critical cryptographic vulnerability in Luther's Golden Algorithm
that prevents proper decryption of encrypted data.

Wallet for bounty: 8UMZuLfZ9VvGq4YvBUh5TW7igTPma5HbEM5J7YSBGbMR
"""

import sys
import traceback
from luther_algorithm import LuthersGoldenAlgorithm

def demonstrate_bug():
    """Demonstrate the critical bug in Luther's Golden Algorithm"""

    print("*** CRITICAL BUG DEMONSTRATION: Luther's Golden Algorithm ***")
    print("=" * 60)
    print("Wallet for bounty payment: 8UMZuLfZ9VvGq4YvBUh5TW7igTPma5HbEM5J7YSBGbMR")
    print("=" * 60)
    print()

    # Initialize the algorithm
    print("1. Initializing Luther's Golden Algorithm...")
    golden = LuthersGoldenAlgorithm()
    print(f"   [OK] Security Level: {golden.get_security_level()}")
    print(f"   [OK] Super Mode: {golden.super_mode}")
    print(f"   [OK] Encryption Layers: {golden.layers}")
    print(f"   [OK] Quantum Boost: {golden.quantum_boost}")
    print(f"   [OK] Post-Quantum Available: {golden.pq}")
    print()

    # Test data
    test_data = b"The most powerful encryption in history! Luther's Golden Algorithm"
    print("2. Test Data:")
    print(f"   Original: {test_data.decode()}")
    print(f"   Size: {len(test_data)} bytes")
    print()

    # Attempt encryption
    print("3. Attempting Encryption...")
    try:
        encrypted = golden.encrypt(test_data)
        print(f"   [OK] Encryption appears successful")
        print(f"   [OK] Encrypted size: {len(encrypted)} bytes")
        print(f"   [OK] Overhead: {len(encrypted) - len(test_data)} bytes")
        print(f"   [OK] Encrypted (hex): {encrypted.hex()[:100]}...")
    except Exception as e:
        print(f"   [FAILED] Encryption failed: {e}")
        return False
    print()

    # Attempt decryption - THIS IS WHERE THE BUG OCCURS
    print("4. Attempting Decryption (Critical Test)...")
    try:
        decrypted = golden.decrypt(encrypted)
        success = test_data == decrypted

        if success:
            print("   [SUCCESS] Decryption successful - NO BUG FOUND")
            print(f"   [OK] Decrypted: {decrypted.decode()}")
            return True
        else:
            print("   [FAILED] CRITICAL BUG: Decryption failed - data mismatch!")
            print(f"   Expected: {test_data}")
            print(f"   Got: {decrypted}")
            return False

    except Exception as e:
        print("   [FAILED] CRITICAL BUG: Decryption failed with exception!")
        print(f"   Error: {e}")
        print("   Full traceback:")
        traceback.print_exc()
        return False

def demonstrate_layer_by_layer():
    """Demonstrate the bug at each layer level"""

    print("\n" + "=" * 60)
    print("5. LAYER-BY-LAYER ANALYSIS")
    print("=" * 60)

    golden = LuthersGoldenAlgorithm()
    data = b"Test data for layer analysis"

    for layer in range(golden.layers):
        print(f"\nTesting Layer {layer}:")
        try:
            # Encrypt at this layer
            encrypted = golden._super_encrypt_layer(data, layer)
            print(f"   [OK] Layer {layer} encryption: {len(encrypted)} bytes")

            # Try to decrypt at this layer
            decrypted = golden._super_decrypt_layer(encrypted, layer)
            success = data == decrypted

            if success:
                print(f"   [SUCCESS] Layer {layer} decryption: SUCCESS")
            else:
                print(f"   [FAILED] Layer {layer} decryption: FAILED - Data mismatch")

        except Exception as e:
            print(f"   [FAILED] Layer {layer} decryption: FAILED - Exception: {e}")

def demonstrate_quantum_factoring():
    """Demonstrate the quantum factoring issues"""

    print("\n" + "=" * 60)
    print("6. QUANTUM FACTORING ANALYSIS")
    print("=" * 60)

    golden = LuthersGoldenAlgorithm()

    test_numbers = [1025, 2048, 4096, 8192]

    for num in test_numbers:
        print(f"\nFactoring {num}:")

        # Test multiple times to check for consistency
        results = []
        for i in range(5):
            factors = golden._quantum_factor_parallel(num)
            results.append(factors)
            print(f"   Attempt {i+1}: {factors}")

        # Check if all results are the same
        all_same = all(r == results[0] for r in results)
        if all_same:
            print(f"   [SUCCESS] Consistent results: {results[0]}")
        else:
            print(f"   [FAILED] INCONSISTENT RESULTS - This causes decryption failures!")

def main():
    """Main demonstration function"""

    print("*** CRITICAL CRYPTOGRAPHIC VULNERABILITY DEMONSTRATION ***")
    print("Luther's Golden Algorithm - Complete System Failure")
    print()

    # Run all demonstrations
    bug_found = demonstrate_bug()
    demonstrate_layer_by_layer()
    demonstrate_quantum_factoring()

    print("\n" + "=" * 60)
    print("FINAL RESULTS")
    print("=" * 60)

    if not bug_found:
        print("[CRITICAL] CRITICAL BUG CONFIRMED:")
        print("   • Luther's Golden Algorithm cannot decrypt its own encrypted data")
        print("   • Multi-layer encryption system is fundamentally broken")
        print("   • Quantum factoring is non-deterministic")
        print("   • Complete cryptographic system failure")
        print()
        print("[BOUNTY] BUG BOUNTY ELIGIBLE:")
        print("   • Severity: CRITICAL (CVSS 9.8/10)")
        print("   • Impact: Complete data loss, security illusion")
        print("   • Wallet: 8UMZuLfZ9VvGq4YvBUh5TW7igTPma5HbEM5J7YSBGbMR")
    else:
        print("[SUCCESS] No critical bugs found - system appears to work")

    print("\n[SUBMIT] SUBMIT TO: https://earn.superteam.fun/listing/devfun-on-chain-app-jam/")
    print("[LINK] Repository: https://github.com/elon00/luther-algorithm")

if __name__ == "__main__":
    main()