US 10,673,617 B1Granted

Methods, system and point-to-point encryption device microchip for AES-sea 512-bit key using identity access management utilizing blockchain ecosystem to improve cybersecurity

OwnerGeorge Antoniou, Oresteban Carabeo +1inventors

InventorsGeorge Antoniou, Oresteban Carabeo, Roberto Hernandez Espinosa

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Abstract

A combined system and not a system separately having a complex system hardware architecture and software with levels of complexity of P2PE, IAM, and BCE. A microcontroller (MC) 64-bit using MC (A) and MC (B) embedded into a device using point-to-point encryption (P2PE) to communicate with the novel IAM blockchain software and a central server database to track all registered and non-registered IoT devices in the BCE. The present invention includes a MC 64-bit method of MC (A) and MC (B) having an advanced encryption standards (AES) strong encryption algorithm (SEA) of 512-bit key utilizing the blockchain ecosystem (BCE), IoT identity to validate transactions between the authentication, and identity of the IoT devices. The MC 64-bit of MC (A) and MC (B) employs a novel AES-SEA 512-bit key to generate a real-time randomly validation symmetrical key encryption in rounds of 10 bits, sending data into the central server and the IAM blockchain software to authenticate each device, track IoT devices, MC entries, and validations. Once the encryption AES-SEA 256-bit key is generated in the MC (A) and the encryption AES-SEA 256-bit key is generated in MC (B), the communication between the MC (A) and MC (B) will generate the AES-SEA 512-bit key with 10 bits; the pseudo-random number process is modified using a time based to be programmed with a timer which has an input of the clock frequency. The MC 64-bit of MC (A) and MC (B) is programmed in a master mode and slave mode; therein providing a novel system of circuit hardware using an AES-SEA 512-bit key and AES 2048 algorithm key to generate PKI certifications for validation, authentication, and authorization through the BCE.

A method for establishing a multi socket encryption, validation, authentication, and authorization communication protocol, comprising:

(a) combining a MC (microcontroller) (A) having an I2C socket interface with a MC (microcontroller) (B);
(b) generating on each of a first MC (A) and a second MC (B) advanced encryption standard (AES) strong encryption algorithm (SEA), and:
(i) the first MC (A) AES-SEA including a cypher 1 to both the MC (A) and MC (B);
and
(ii) the AES-SEA including a cypher 2 to both MC (B) and the MC (A);
(c) providing an AES-SEA cypher 1 having:
(i) a first MC (A) circular socket communication channel (1A) defining a 256-bit key encryption hash encryption function (HEF) from the MC (A) to said socket channel (1A) to cypher 1 and then back to socket channel (1A) communication socket channel and then said MC (A);
and
(ii) a second circular socket communication channel (1B) defining a different 256-bit key encryption hash encryption function (HEF) from the MC (B) to socket channel (1B) to AES-SEA cypher 1 and then socket channel (1B) communication socket channel and then to said MC (B);
(d) providing an AES-SEA cypher 2 512-bit encryption key having:
(i) a third communication socket channel having the AES-SEA cypher 2 MC (A) to the (1A) HEF of the AES-SEA cypher 2 and then having the (1 B) HEF of MC (B);
(ii) providing a fourth communication socket channel having the MC (B) to the (18) HEF to AES-SEA cypher 2 and thereof to (1A) HEF and then to MC(A);
(e) generating a real time validated pseudo-randomly AES/SEA 512-bit symmetric key wherein having a random coefficient time base used for decisions to switch from said master mode to said slave mode and vice versa, using an encoded algorithm in the code of a first flash memory in the MC (A) and a second flash memory in the MC (B);
(f) using of said I2C socket interfaces to provide synchronous serial socket ports having at each end thereof;
and
(g) using Internet, having an IAM registration request corresponding to a particular IoT device and validation thereof having particular said pseudo-random numbers in which each of said numbers relate to an IoT device within a continual updated of a distributed blockchain ecosystem (BCE).

13 more elements

Facts

Application

16/391,446Filed 23 Apr 2019 · us provisional application

Priority

24 Apr 2018

Granted

2 Jun 2020

Term ends

Not estimatedThe source records don’t support an estimate.

Classification18 codes

H04L 9/0631
Block ciphers, i.e. encrypting groups of characters of a plain text message using fixed encryption transformation: substitution permutation…
G06F 13/4221
On a parallel bus: being an input/output bus, e.g. ISA bus, EISA bus, PCI bus, SCSI bus
G06F 13/4282
Bus transfer protocol, e.g. handshake; Synchronisation: on a serial bus, e.g. I2C bus, SPI bus
H04L 9/006
Cryptographic mechanisms or cryptographic arrangements for secret or secure communications; Network security protocols: involving public key…

Abstract

Claims18