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US 10,515,567 B2Granted
Cryptographic machines with N-state lab-transformed switching devices
AssigneeTernarylogic LLC
InventorPeter Lablans
Life of this patent
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Abstract
N-state switching tables are transformed by a Lab-transform into a Lab-transformed n-state switching table. Memory devices, processors and combinational circuits with inputs and an output are characterized by the Lab-transformed n-state switching table and perform switching operations between physical states in accordance with a Lab-transformed n-state switching table. The devices characterized by Lab-transformed n-state switching tables are applied in cryptographic devices. The cryptographic devices perform standard cryptographic operations that are modified in accordance with a Lab-transform.
Claims20
A cryptographic apparatus to modify one or more signals into one or more cryptographic signals in a message transmitted to a receiving device, comprising:
- an input of the cryptographic apparatus to receive the one or more signals;
- an n-state Lab-transformed switching circuit with n>2 containing an n-state switching circuit with a first n-state reversible inverter at a first and at a second input and with at an output a second n-state inverter, wherein the first and second n-state reversible inverters in combination establish identity wherein an n-state signal is modified by the first n-state inverter into a modified n-state signal and the second n-state inverter has a structure that modifies the modified n-state signal into the n-state-signal and wherein the first n-state inverter is one of n! (factorial n) n-state inverters, the n-state Lab-transformed switching circuit being characterized by a modification of an n-state switching table that characterizes the n-state switching circuit and the n-state Lab-transformed switching circuit is enabled to process signals related to the one or more signals;
- and
- an output of the cryptographic apparatus to provide on a communication channel to the receiving device the one or more cryptographic signals that are based on one or more signals processed by the n-state Lab-transformed switching circuit, wherein cryptographic signals generated from a first set of n-state input signals by the cryptographic apparatus with the n-state switching circuit without applying the first and second inverters are different from cryptographic signals generated from the first set of n-state input signals by the cryptographic apparatus applying the n-state Lab-transformed switching circuit;
- and
- wherein the n-state switching circuit is characterized by one of:
- an addition over a finite field GF(n), a multiplication over a finite field GF(n), and a multiplication modulo-n and the n-state Lab-transformed switching circuit is part of the cryptographic apparatus to perform one of:
- an Advanced Encryption Standard encryption or decryption, a Rivest-Shamir-Adleman (RSA) based encryption or decryption, a Diffie-Hellman based key generation, an Elliptic Curve Cryptography (ECC) operation, a message digest generation as defined in a Federal Information Processing Standards Secure Hash Standard (SHS).
5 more elements
A method for cryptographic communications of one or more cryptographic signals based on one or more signals between a first computer device and a second computer device over a communication channel, comprising:
- receiving on an input of the first computer device the one or more signals;
- generating signals based on the one or more signals by an n-state Lab-transformed switching circuit with n>2, the n-state Lab-transformed switching circuit containing an n-state switching circuit with a first n-state reversible inverter at a first and a second input and with at an output a second n-state inverter that in combination with the first n-state reversible inverter establish identity wherein an n-state signal is modified by the first n-state inverter into a modified n-state signal and the second n-state inverter has a structure that modifies the modified n-state signal into the n-state-signal and wherein the first n-state inverter is one of n! (factorial n) n-state inverters, the n-state Lab-transformed switching circuit being characterized by a modification of an n-state switching table that characterizes the n-state switching function;
- and
- providing by the first computer device to the second computing device over the communication channel the one or more cryptographic signals that are based on the signals generated by the n-state Lab-transformed circuit, wherein cryptographic signals generated from a first set of signals by the first computer with the n-state switching device without the first and second inverters are different from cryptographic signals generated from the first set of signals by the first computer with the n-state Lab-transformed circuit;
- and
- wherein the n-state switching circuit is characterized by one of:
- an addition over a finite field GF(n), a multiplication over a finite field GF(n), and a multiplication modulo-n and the n-state Lab-transformed switching circuit is part of the cryptographic apparatus to perform one of:
- an Advanced Encryption Standard encryption or decryption, a Rivest-Shamir-Adleman (RSA) based encryption or decryption, a Diffie-Hellman based key generation, an Elliptic Curve Cryptography (ECC) operation, a message digest generation as defined in a Federal Information Processing Standards Secure Hash Standard (SHS).
5 more elements
Dependencies are inferred from the claim text.