Anametric, Inc.

Southern Methodist University

Ironwood Cyber Inc.

Bra-ket Science, Inc.

Mississippi State University

Mitchell A Thornton

William Vincent Oxford

Duncan Leo MacFarlane

Timothy P LaFave, Jr

Michael Taylor

Eric C Larson

Micah A Thornton

Duncan L Macfarlane

Kaitlin Smith

Saurabh Gupta

David W Matula

Alexandru Fit-Florea

Jessie Monique Henderson

Evan Jacob Stewart

Hiva Shahoei

Robert B Reese

Elena Rochelle Henderson

Stephen Keith Heinrich-Barna

Nathan Srirama

Aviraj Sinha

Theodore Manikas

Ian Johnson

Lun Li

Rohit Menon

John Joseph Howard

Jeffrey David Allen

Erik Gabrielsen

Travis Siems

Systems and methods for generating reversible hash circuits from irreversible hash functions are disclosed, along with reversible hash circuits generated using such systems and methods. Generally, embodiments may obtain a hash function and generate a reversible hash circuit by mapping that irreversible hash function to a reversible hash circuit that includes reversible elements such that the reversible hash circuit may be utilized to obtain the corresponding input values from output values of the hash function.

Systems and methods for generating and implementing a reversible hash circuit

Embodiments of PUF systems utilizing photonic circuits to generate a PUF signature based on a state of polarization of photons are disclosed. Embodiments of such PUFs may comprise substantially the same circuitry that may be operated in the classical domain or the quantum domain.

Systems and methods for implementing structures for physical unclonable functions

Embodiments of systems and methods for efficient photonic based quantum circuitry in a heralded system are disclosed. Embodiments may employ filters with a photon pair source to route photons to quantum circuit blocks in a quantum system. These quantum circuit blocks can process the photons routed to those quantum circuit blocks in the quantum system.

Systems and methods for efficient photonic heralded quantum computing systems

Embodiments of PUF systems are disclosed. Embodiments of such PUFs may be operated in the classical domain or the quantum domain, and moreover, may comprise substantially the same circuitry, and operate substantially the same, when operating in the classical domain or the quantum domain. Additionally, embodiments of such PUF systems may be effectively utilized to generate uniquely identifying signatures for electronic devices based on electronic circuity, photonic circuitry or some combination of electronic and photonic circuitry and may be utilized to generate such signatures for such electronic devices regardless of whether such electronic device themselves operate in the classical or quantum domain.

Systems and methods for hybrid physical unclonable functions

Embodiments of systems and methods for a multi-source true random number generator (TRNG) are disclosed. A set of values is generated from each of the sources of randomness and an extractor is applied each of the set of values to produce a set of random values from each source. At least one extractor for at least one of the sources is a multi-radix extractor. The sets of values generated from each source of randomness can be composited to generate a random bitstring as the output of the TRNG.

Systems and methods for multi-source true random number generators, including multi-source entropy extractor based quantum photonic true random number generators

Systems, methods, applications and uses for trans-radix quantum information processing elements are disclosed.

Systems and methods for controlled quantum information processing with a trans-radix basis component

Embodiments of quantum ring oscillator-based coherence preservation circuits including a cascaded set of stages are described. Embodiments of such quantum ring oscillator-based coherence preservation circuits allow the internal (superpositioned) quantum state information of stored qubits to be preserved over long periods of time and present options for the measurement and potential correction of both deterministic and non-deterministic errors without disturbing the quantum information stored in the structure itself.

Systems and methods for preservation of qubits

In some implementations, a method includes retrieving data from multiple sensors in a computing device, and the multiple sensors comprise different types of sensors. The sensor data is analyzed based on a predictive model, and the predictive model is trained to detect malware. Initiation of malware is determined based on the analysis. In response to the determination, the malware is terminated.

Detecting malicious software using sensors

Described herein are methods, systems, and platforms comprising neural networks for control system anomaly detection.

Control system anomaly detection using neural network consensus

Gyroscope data can be used to generate upsampled signal. Multiple mobile devices are spaced apart from each other in a spatial arrangement. Each mobile device includes a gyroscope sensor to detect mechanical vibrations caused by signals originating within a vicinity of a mobile device that includes the gyroscope sensor. Each mobile device includes one or more respective processors to receive representations of the mechanical vibrations sensed by the gyroscope sensor at a sampling frequency, and transmit the representations received at the sampling frequency as a respective vibration signal associated with sampling times. The signal processor is coupled to the multiple mobile devices. The signal processor generates a processed upsampled signal by interleaving the vibration signal received from each mobile device and processing the interleaved signal using one or more machine learning filters, and transmitting the processed upsampled signal.

Generating upsampled signal from gyroscope data

Embodiments of feedback-based quantum circuits are described. Embodiments of such quantum circuits may be externally controlled using only basis or eigenstate (classically-observable) signals without triggering de-coherence. Additionally, embodiments of such quantum circuits allow the internal (superpositioned) quantum state information to be preserved over long periods of time and present options for quantum error-correction due to the basis-state controls. Moreover, a coupling of two such feedback-based quantum circuits allows for quantum-channel-based information exchange to a variety of ends.

Systems and methods for quantum coherence preservation of qubits

Growing community of inventors

Dallas, TX, United States of America

Mitchell A Thornton