Abstract: Aspects of the present disclosure relate generally to systems and methods for use in the implementation and/or operation of quantum information processing (QIP) systems. To optimize the performance of QIP systems or quantum computers in terms of both fidelity and algorithm uptime or throughput, described are techniques to stabilize continuous and discrete errors from drifting and/or noisy secondary observables to achieve long term stable operation.

Abstract: Systems and methods for use in the implementation and/or operation of quantum information processing (QIP) systems or quantum computers, and more particularly, to benchmark-driven automation for tuning quantum computers are described. A method includes identifying a set of quantum gates and a number of experimental shots to perform a benchmark algorithm for active stabilization of one or more observables of the set of quantum gates and executing the benchmarking algorithm based on the set of quantum gates and the number of experimental shots. Moreover, in response to the benchmarking algorithm being successful, executing an algorithm on the quantum computer, and in response to the benchmarking algorithm being unsuccessful, iterating the benchmarking algorithm by adjusting the set of quantum gates until the benchmarking algorithm is successful or a preset number of iterations is reached.

Abstract: Aspects of the present disclosure relate generally to systems and methods for use in the implementation and/or operation of quantum information processing (QIP) systems. To optimize the performance of QIP systems or quantum computers in terms of both fidelity and algorithm uptime or throughput, described are techniques to stabilize continuous and discrete errors from drifting and/or noisy secondary observables to achieve long term stable operation.

Abstract: Systems and methods for use in the implementation and/or operation of quantum information processing (QIP) systems or quantum computers, and more particularly, to benchmark-driven automation for tuning quantum computers are described. A method includes identifying a set of quantum gates and a number of experimental shots to perform a benchmark algorithm for active stabilization of one or more observables of the set of quantum gates and executing the benchmarking algorithm based on the set of quantum gates and the number of experimental shots. Moreover, in response to the benchmarking algorithm being successful, executing an algorithm on the quantum computer, and in response to the benchmarking algorithm being unsuccessful, iterating the benchmarking algorithm by adjusting the set of quantum gates until the benchmarking algorithm is successful or a preset number of iterations is reached.

Abstract: An interactive narrative presentation includes a plurality of narrative segments, with a variety of available media content consumer selectable paths or directions, typically specified by a director or editor. The content consumer can select a path or path segment at each of a number of points, e.g., decision points, in the narrative presentation via user interface elements or narrative prompts, providing the consumer the opportunity to follow a storyline they find interesting. Each consumer follows a “personalized” path through the narrative. The narrative prompts can include images from subsequent segments, may be generated to stylistically resemble the underlying narrative presentation, may be animated to move with or with respect to the underlying narrative presentation, and, or may be presented in overlaid with a presentation of the underlying narrative while the underlying narrative continues play.

Abstract: Technologies are described herein to track information storage resources in a quantum circuit during compile time or runtime of a program by which quantum algorithms are built.

Abstract: Technologies are described herein to track information storage resources in a quantum circuit during compile time or runtime of a program by which quantum algorithms are built.

Abstract: An interactive narrative presentation includes a plurality of narrative segments, with a variety of available media content consumer selectable paths or directions, typically specified by a director or editor. The content consumer can select a path or path segment at each of a number of points, e.g., decision points, in the narrative presentation via user interface elements or narrative prompts, providing the consumer the opportunity to follow a storyline they find interesting. Each consumer follows a “personalized” path through the narrative. The narrative prompts can include images from subsequent segments, may be generated to stylistically resemble the underlying narrative presentation, may be animated to move with or with respect to the underlying narrative presentation, and, or may be presented in overlaid with a presentation of the underlying narrative while the underlying narrative continues play.