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Advanced Encryption Method

A simple encryption algorithm that uses a 256-bit key to encrypt messages. While its strength isn't its strong point, it's a great way to learn about encryption!

Year 2024
Category Encryption
Tags
EncryptionSecurityOpen SourcePython

Encryption Fundamentals & Cryptographic Principles

A simple algorithm that uses a 256-bit key to encrypt a message. While its strength isn't its strong point, it's a great way to learn about encryption!

Hello World
Plaintext
→
1 0 1 1 0 0 1 0
256-bit Key
→
A7F9B2C4...
Ciphertext
šŸ”
AES-256
Symmetric Encryption
šŸ›”ļø
HMAC-SHA256
Message Authentication
šŸ”‘
PBKDF2
Key Derivation

The Mathematics of Modern Encryption

Modern encryption uses advanced mathematical concepts including modular arithmetic, elliptic curves, and computational complexity theory to ensure data remains secure even against quantum computers.

Key Length: 256 bits
Block Size: 128 bits
Rounds: 14 (AES-256)
Security Level: 2^256 operations
C = E(K, P) āŠ• IV

AES encryption in CBC mode

Zero-Knowledge Security Architecture

The application implements a zero-knowledge architecture where the system never has access to user data or encryption keys. This ensures maximum privacy and security through cryptographic guarantees.

Enter text to encrypt...
šŸ”’ Encrypt
šŸ”‘
Key Generation
šŸ”
Encryption
šŸ“¤
Secure Transmission

Client-Side Encryption

All encryption operations occur locally on the user's device. The application never transmits plaintext or encryption keys over the network, ensuring complete data privacy.

K = PBKDF2(password, salt, iterations)

Key derivation from user password

A7F9B2C4...
D8E1F5A3...
B4C7E9F2...
šŸ” Password Input
šŸ”‘ Key Derivation
āœ… Verification
šŸ“‚ Data Access

Secure Key Management

Encryption keys are derived from user passwords using PBKDF2 with high iteration counts. Keys are never stored in plaintext and are only available in memory during active sessions.

HMAC = SHA256(K āŠ• opad, SHA256(K āŠ• ipad, message))

HMAC for message authentication

šŸ‘¤
Alice
šŸ”’ Encrypted Data
🌐
🌐
🌐
šŸ‘¤
Bob
šŸ”’ Encrypted Data

End-to-End Encryption

Data remains encrypted throughout the entire transmission process. Even if intercepted, the data is cryptographically secure and cannot be decrypted without the proper keys.

P = D(K, C āŠ• IV)

AES decryption process

Advanced Cryptographic Algorithms

The system employs multiple layers of cryptographic protection, combining symmetric encryption, key derivation, and message authentication to create a robust security framework.

šŸ”‘
Key Derivation
PBKDF2-HMAC-SHA256
100,000 iterations
→
šŸ”
Symmetric Encryption
AES-256-CBC
256-bit key, 128-bit blocks
→
šŸ›”ļø
Authentication
HMAC-SHA256
256-bit MAC

Cryptographic Strength Analysis

Brute Force Resistance: 2^256 operations
Quantum Resistance: 2^128 operations
Collision Resistance: 2^128 operations
Key Derivation Cost: 100,000 iterations
Salt Generation: Cryptographically secure random 32-byte salt
IV Generation: Random 16-byte initialization vector per encryption
Tamper Detection: HMAC prevents unauthorized modifications
Forward Secrecy: New keys generated for each session
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