English

From Ans\"atze to Z-gates: a NASA View of Quantum Computing

Quantum Physics 2021-01-26 v2

Abstract

For the last few years, the NASA Quantum Artificial Intelligence Laboratory (QuAIL) has been performing research to assess the potential impact of quantum computers on challenging computational problems relevant to future NASA missions. A key aspect of this research is devising methods to most effectively utilize emerging quantum computing hardware. Research questions include what experiments on early quantum hardware would give the most insight into the potential impact of quantum computing, the design of algorithms to explore on such hardware, and the development of tools to minimize the quantum resource requirements. We survey work relevant to these questions, with a particular emphasis on our recent work in quantum algorithms and applications, in elucidating mechanisms of quantum mechanics and their uses for quantum computational purposes, and in simulation, compilation, and physics-inspired classical algorithms. To our early application thrusts in planning and scheduling, fault diagnosis, and machine learning, we add thrusts related to robustness of communication networks and the simulation of many-body systems for material science and chemistry. We provide a brief update on quantum annealing work, but concentrate on gate-model quantum computing research advances within the last couple of years.

Keywords

Cite

@article{arxiv.1905.02860,
  title  = {From Ans\"atze to Z-gates: a NASA View of Quantum Computing},
  author = {Eleanor G. Rieffel and Stuart Hadfield and Tad Hogg and Salvatore Mandrà and Jeffrey Marshall and Gianni Mossi and Bryan O'Gorman and Eugeniu Plamadeala and Norm M. Tubman and Davide Venturelli and Walter Vinci and Zhihui Wang and Max Wilson and Filip Wudarski and Rupak Biswas},
  journal= {arXiv preprint arXiv:1905.02860},
  year   = {2021}
}

Comments

20 pages plus extensive references, 3 figures