Secure validation of spatial computing data transmitted over spine-leaf network using homomorphic serpent cryptographic algorithm
A method for validating a data transmission pathway between two organizations across a spine-leaf network may use two cryptographic algorithms to validate the pathway. Data used to validate the pathway may include spatial computing telemetry. Once validated, sensitive data may be transmitted over the pathway. The spine-leaf network may receive one hash value encrypted by a homomorphic encryption algorithm run by an organization and another hash value encrypted by a serpent encryption algorithm run by a separate organization. A processor running in the spine-leaf network may validate an integrity of the data transmission pathway by comparing the two hash values to see if they are equivalent. When the hash values are equivalent, the pathway may be validated, and the sensitive data may be transmitted between the two organizations. The sensitive data may be transmitted as ciphertext. The sensitive data may include spatial computing telemetry.
1 . A method of validating a data transmission pathway between two organizations across a spine-leaf network using two or more cryptographic algorithms encrypting data that includes spatial computing telemetry, the method comprising:
receiving, at a first processor of a first organization, a first data set from a first party when the first party requests from the first organization to transmit a second data set from the first organization to a second organization;
encrypting, using the first processor to run a first encryption algorithm, the first data set into a first hash value;
encrypting, using a second processor of a second organization to run a second encryption algorithm, a third data set into a second hash value when the first party requests from the first organization to transmit the second data set from the first organization to the second organization;
validating, using a third processor operating in the spine-leaf network, an integrity of the data transmission pathway by comparing the first hash value to the second hash value to see if they are equivalent, wherein:
the third processor uses generative AI to extract information related to a source and a destination and provide an optimal route for a transaction;
the source is a spatial computing device used by the first party and a first entity; and
the destination is a second entity;
when the first hash value and the second hash value are equivalent, transmitting over the spine-leaf network, using the third processor, the second data set; wherein:
the data transmission pathway is an end-to-end data transmission pathway wherein selected functionality in the spine-leaf network is kept at communication endpoints that communicate through the spine-leaf network;
the first data set comprises telemetry relating to use of the spatial computing device by the first party;
the first data set and the third data set are used to validate the data transmission pathway between the first organization and the second organization over the spine-leaf network; and
the second data set comprises data not included in the first data set.
2 . The method of claim 1 wherein:
the first encryption algorithm and the second encryption algorithm are implemented using a Homomorphic Serpent Blockchain (HSB) algorithm framework that combines homomorphic encryption and serpent encryption.
3 . The method of claim 1 wherein:
the third data set is obtained from a distributed ledger blockchain that contains telemetry data relating to the first party, wherein the telemetry data comprises IP address, spatial interaction telemetry, spatial map, and spatial device attributes; and
the third data set comprises the first data set.
4 . The method of claim 1 wherein the data transmission pathway is used to process a transaction and the second data set comprises spatial computing telemetry related to an end-to-end transaction between the first organization and the second organization, wherein a transaction payload is integrated with spatial computing telemetry generated for a defined spatial session window.
5 . A system for validation of a data transmission pathway between two organizations across a spine-leaf network with use of two or more cryptographic algorithms encrypting data related to spatial computing telemetry, the system comprising:
a first processor of a first organization;
a second processor of a second organization;
a spine-leaf network;
a third processor operating in the spine-leaf network;
wherein:
the first processor is configured to:
receive a first data set from a first party when the first party requests from the first organization to transmit a second data set from the first organization to a second organization;
run a first encryption algorithm to encrypt the first data set into a first hash value;
the second processor is configured to:
run a second encryption algorithm to encrypt a third data set into a second hash value when the first party requests from the first organization to transmit the second data set from the first organization to the second organization;
the third processor is configured to:
validate an integrity of the data transmission pathway by comparing the first hash value to the second hash value to see if they are equivalent, wherein:
the third processor uses generative AI to extract information related to a source and a destination and the third processor provides an optimal route for a transaction;
the source is a spatial computing device used by the first party and a first entity; and
the destination is a second entity;
transmit the second data set when the first hash value and the second hash value are equivalent;
the data transmission pathway is an end-to-end data transmission pathway wherein selected functionality in the spine-leaf network is kept at communication endpoints that communicate through the spine-leaf network;
the first data set comprises telemetry relating to use of the spatial computing device by the first party;
the first data set and the third data set are used to validate the data transmission pathway between the first organization and the second organization over the spine-leaf network; and
the second data set comprises data not included in the first data set.
6 . The system of claim 5 wherein:
the first encryption algorithm and the second encryption algorithm are implemented using a Homomorphic Serpent Blockchain (HSB) algorithm framework that combines homomorphic encryption and serpent encryption.
7 . The system of claim 5 wherein:
the third data set is obtained from a distributed ledger blockchain that contains telemetry data relating to the first party, wherein the telemetry data comprises IP address, spatial interaction telemetry, spatial map, and spatial device attributes; and
the third data set comprises the first data set.
8 . The system of claim 5 wherein the data transmission pathway is used to process a transaction and the second data set comprises spatial computing telemetry related to an end-to-end transaction between the first organization and the second organization, wherein a transaction payload is integrated with spatial computing telemetry generated for a defined spatial session window.