Abstract: Systems and methods that facilitate motion formalism utilizing quantum computing, to compute matrix operators in terms of commutators between qubit operators and measurements on the quantum hardware, wherein the commutators are computed utilizing symbolic calculus. Embodiments reduce computational cost of generalized eigenvalue synthesis relying on symbolic calculus and parallelization. Embodiments disclosed herein can also develop estimators of excited-states properties, considering constants of motion (e.g. spin) and non-constants of motions (e.g. dipoles, density matrices).

Abstract: Systems, computer-implemented methods, and computer program products to facilitate generalization of a quantum imaginary time evolution process and simulation by tensor networks are provided. According to an embodiment, a system can comprise a processor that executes computer executable components stored in memory. The computer executable components can comprise a universal component that generalizes a quantum imaginary time evolution process to provide a quantum imaginary time evolution ansatz process. The computer executable components can further comprise a simulation component that applies the quantum imaginary time evolution ansatz process to one or more general multi-body quantum systems.

Abstract: Systems and techniques that facilitate efficient synthesis of optimal multi-qubit Clifford circuits are provided. In various embodiments, a system can receive as input a number n representing a quantity of qubits. In various instances, the system can generate, via a cost-invariant reduction function, as output a library of different n-qubit canonical representatives that respectively correspond to different cost-invariant equivalence classes of n-qubit Clifford group elements. In various embodiments, a system can receive as input a first Clifford group element. In various aspects, the system can search a database of canonical representatives, wherein different canonical representatives in the database respectively correspond to different cost-invariant equivalence classes of Clifford group elements.

Abstract: Systems and methods that facilitate motion formalism utilizing quantum computing, to compute matrix operators in terms of commutators between qubit operators and measurements on the quantum hardware, wherein the commutators are computed utilizing symbolic calculus. Embodiments reduce computational cost of generalized eigenvalue synthesis relying on symbolic calculus and parallelization. Embodiments disclosed herein can also develop estimators of excited-states properties, considering constants of motion (e.g. spin) and non-constants of motions (e.g. dipoles, density matrices).

Abstract: An instant operation may include one or more of creating a smart contract identifying content and review requirements for performing a review of the content, signing and validating the smart contract, storing the smart contract in a blockchain, receiving content review feedback from one or more reviewers of the content, and amending the blockchain to include the content review feedback.

Abstract: An instant operation may include one or more of creating a smart contract identifying content and review requirements for performing a review of the content, signing and validating the smart contract, storing the smart contract in a blockchain, receiving content review feedback from one or more reviewers of the content, and amending the blockchain to include the content review feedback.

Abstract: An instant operation may include one or more of creating a smart contract identifying content and review requirements for performing a review of the content, signing and validating the smart contract, storing the smart contract in a blockchain, receiving content review feedback from one or more reviewers of the content, and amending the blockchain to include the content review feedback.

Abstract: A computer-implemented method according to one embodiment includes receiving, at a mobile device, a magnetic field produced by an audio device, determining, by the mobile device, a location of the audio device relative to the mobile device, utilizing the magnetic field, and performing, by the mobile device, one or more operations, utilizing the location of the audio device relative to the mobile device.

Abstract: An instant operation may include one or more of creating a smart contract identifying content and review requirements for performing a review of the content, signing and validating the smart contract, storing the smart contract in a blockchain, receiving content review feedback from one or more reviewers of the content, and amending the blockchain to include the content review feedback.

Abstract: A computer-implemented method according to one embodiment includes requesting input from a user of a mobile device, receiving gyroscope data at the mobile device, in response to the requesting, verifying the gyroscope data, and performing one or more actions, in response to the verifying.

Abstract: A computer-implemented method according to one embodiment includes requesting input from a user of a mobile device, receiving gyroscope data at the mobile device, in response to the requesting, verifying the gyroscope data, and performing one or more actions, in response to the verifying.