| Contents | |
|---|---|
 FES Fractal Encryption Standard |
Standardised Fractal Transformation to replace AES |
| FES Security and Performance |
Industrial strength Quantum Safe encryption |
| FES Windows Components |
Quantum Safe Windows components to replace AES |
FES Fractal Encryption Standard
The FES Fractal Encryption Standard is a standardised specification of Fractal Transformation engineered to replace quantum vulnerable AES encryption.
FES is designed and engineered to provide a consistent interface, algorithm and defaults to streamline AES encryption replacement.
When you use our FES components to replace AES your software and applications achieve quantum safe status.
Combine FES with NIST quantum safe RSA replacements for a one-time quantum safe migration.
Note that FES should replace all classic quantum vulnerable block encryption (including AES).
FES Security and Performance
FES introduces a revolutionary approach to encryption based on the infinite complexity of fractals. Unlike traditional encryption, which relies on fixed key sizes and deterministic mappings, FES operates on principles that make it fundamentally resistant to quantum and classical attacks:
- Infinite Key-Space:
FES uses configurable fractal dimensions, each adding 104 bits of key-space. A typical implementation starts at 832 bits—over three times the size of AES-256—and can scale indefinitely. - Fractal-Based Transformations:
FES replaces the static operations of traditional encryption with dynamic fractal iterations. Each fractal stream is deterministic in computation yet unpredictable in its output, making it impossible for attackers to reverse-engineer the process. - Industrial Strength Performance:
Rigorous benchmarks demonstrate that FES is not only quantum-safe but also fast. Recent upgrades have brought performance within striking distance of AES, with processing speeds projected as low as 0.05 seconds per megabyte on standard hardware. Hardware FES is predicted to reach or exceed AES hardware performance parity. - Unmatched Impenetrability:
Even with the world’s most powerful quantum or classical computers, FES’s fractal navigation and transformation processes make it impenetrable. Without the exact fractal stream, payloads cannot be reassembled.
FES Developer Components
FES Windows DLL components are now available for 32 bit and 64 bit software.
FES component API:
Properties:
| Name | Description |
|---|---|
| strKey (required) | String key to map to fractal portal. No size limit. |
| byteKey (required) | Same as strKey passing a byte array. |
| lngDimensions (optional) | Fractal dimensions with 112 bytes of key-space. |
| blnScramble (optional) | Fractal cipher reorder between passes. |
| lngPasses (optional) | Number of fractal transform passes. |
| blnPassEvent (optional) | Trigger event on completed passes. |
Methods:
| Name | Description |
|---|---|
| byteFractalTransform(payload()) | Fractal Transform a byte array payload. |
| byteFractalExtract(cipher()) | Extract fractal transformed cipher from byte array. |
| strFractalTransform(strPayload) | Fractal Transform a string payload. |
| strFractalExtract(strCipher) | Extract fractal transformed cipher from string. |
Events:
| Name | Description |
|---|---|
| CurrentPass | Event fires each pass. Requires blnPassEvent = True. |
Custom API structures can be requested to match existing production AES components.
FES components for Linux and Mac are in development.
Licensing
FES Demonstration
Impenetrability Proof
