UberCrypt One-Time Pad Generation via Prime Number Geometry
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Solution Overview
Problem
Existing cryptographic methods are limited by their uni-functional nature and are increasingly vulnerable to social engineering, brute force, and mathematical attacks, particularly in high-data-volume applications like video conferencing, where they introduce network latencies and fail to provide practical, information-theoretically secure encryption due to the impracticality of generating and managing long, non-repeating One Time Pads (OTPs).
Innovation Solution
The UberCrypt Framework uses multi-dimensional geometry to derive a set of prime numbers for generating a highly random and non-repeating One Time Pad (OTP) through a geometric form shared between parties, allowing for secure key exchange and synchronization, and incorporates additional authentication factors to enhance entropy and security, enabling secure data transmission even with limitless computational power.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional block cipher systems (DES, AES) are used for encryption, then data security is provided, but network latency is introduced making high definition video conferencing impractical
Solution Approach 1:
The patent replaces traditional block cipher mechanisms with a stream cipher approach based on One Time Pads. This substitution enables continuous encryption of data streams without the blocking and processing delays inherent in traditional block ciphers, thereby eliminating network latency while maintaining security for real-time applications like video conferencing
Solution Approach 2:
The invention changes the fundamental parameter of encryption from fixed-size blocks to continuous stream processing. By using One Time Pads that encrypt data bit-by-bit or byte-by-byte as it flows, the system transforms the encryption process from a batch operation to a real-time stream operation, resolving the latency issue
2Reliability
If One Time Pads are used for information-theoretically secure encryption, then perfect secrecy is achieved, but the system becomes impractical due to the difficulty of generating and transmitting sufficiently long random keys
Solution Approach 1:
The patent introduces a cryptographic hash function as an intermediary mechanism. Instead of directly generating and transmitting long random OTPs, the system uses a hash function to derive deterministic pseudo-random sequences from shorter seed keys. This intermediary transforms the problem from transmitting large random data to transmitting small seed values that can be locally expanded into long secure streams
Solution Approach 2:
The invention creates a deterministic copy mechanism where the same seed key always generates the identical pseudo-random sequence through the hash function. This allows multiple parties to independently generate matching OTPs from shared seeds without needing to transmit the actual long random sequences, eliminating the transmission complexity bottleneck
3Reliability
If existing cryptographic methods are used, then encryption is provided, but they are increasingly vulnerable to social engineering, brute force and mathematical attacks
Solution Approach 1:
The patent fundamentally changes the security parameter from fixed-length blocks to theoretically unlimited length through the use of One Time Pads. This parameter change makes brute force attacks computationally infeasible since the key space becomes effectively infinite, and the deterministic pseudo-random generation from hash functions prevents pattern recognition attacks
4Reliability
If multi-factor authentication is implemented to increase security, then entropy is added, but the system complexity increases
Solution Approach 1:
The patent merges multiple authentication factors into a single integrated system where different factors (passphrases, biometrics, hardware keys) are combined through the hash function to generate a unified pseudo-random sequence. This merging approach maintains the security benefits of multi-factor authentication while simplifying the implementation by using a single cryptographic primitive to handle all factors
Data Source
AI summary
A method for generating a practically infinite sequence of pseudo-random numbers that is indistinguishable from a true random source. The method utilizes a discrete set of prime numbers, converting each to a corresponding irrational sequence of numbers, i.e., a MIRP, and arranging said MIRPs into a MIRP Stack that extends into a practically infinite non-repeating MIRP Field, from which an even longer unique sequence of pseudo-random numbers are generated.


