Fractal Streaming

Features	Benefits
Industry Performance	High performance streaming algorithm
Large internal key	Uses a 524,288 bit key internally
Continuous Fractal Mapping	Fractal value based shift registers
Fast Fractal initialisation	Single fractal key initialisation
Indefinite Transform Mutation	The fractal stream morphs indefinitely

Fractal Transformation for demanding Streaming

Performance Optimised

Portalz Fractal Streaming differs from standard fractal transformation for performance optimisation.

Fractal Transformation	Fractal Streaming
Fractal stream matches payload size	Fixed length 524,288 bit fractal stream
Fractal Stream directly transforms payload	Fractal shift registers morph the payload
Fractal iteration overhead matches payload size	Single fractal iteration initialisation
Highest security for documents and key stores	High security for continuous data streaming performance

Both encryption technologies are impenetrable and Quantum Proof.

524,288 Bit Fractal Streaming Key

Portalz Fractal Streaming generates a fractal key that is used to secure the payload stream.

This is a single initialisation performed prior to stream transformation.

The Bit Streaming Key is traversed in bytes, there being a total of 65,536 bytes.

1. The first byte returns a 0 - 255 offset value to begin scanning: the value is fractal generated and unpredictable
2. 256 bytes are then scanned from the offset: an unpredictable region
3. The next byte return the next offset value: value not involved in scan
4. The next 256 bytes are then scanned from the offset: an unpredictable region
5. The cycle continues at 3): traverse using this system until the fractal buffer end is reached
6. On buffer end, cut (shuffle) the buffer: The buffer is cut using a 265 prime number list

We use a list of 256 prime numbers between 11 and 65,536, and use the last fractal byte to select one.

The selected prime number is used to 'cut' the fractal buffer at the prime number location.

The use of primes ensures no segment of the fractal stream is ever reused in the same sequence.

256 byte shift buffer

Each 256 byte scan (above) applies each fractal value to a corresponding shift buffer using XOR.

The resulting shift buffer value is then applied to the stream payload in sequence using XOR.

The shift buffer is 'cut' using the first value of each fractal buffer scan every time it jumps to a new scan position.

The shift buffer increases entropy and isolates the transformation from the fractal stream.

High Performance and Scalability

The Fractal Streaming processes are performance optimised and well suited to direct memory manipulation.

Once the fixed fractal buffer is generated or retrieved from a cache, the stream transformation does not need to perform fractal value or navigation computations.

The stream transformation is highly efficient and scalable.