4.6 Article

TEQUILA: a platform for rapid development of quantum algorithms

Journal

QUANTUM SCIENCE AND TECHNOLOGY
Volume 6, Issue 2, Pages -

Publisher

IOP Publishing Ltd
DOI: 10.1088/2058-9565/abe567

Keywords

quantum software; variational algorithms; quantum chemistry; quantum machine learning

Funding

  1. US Department of Energy [DE-SC0019374, DE-AC02-05CH11231, 505736]
  2. Google, Inc.
  3. Canada Industrial Research Chairs Program
  4. Canada 150 Research Chairs Program
  5. Vannevar Bush Faculty Fellowship [ONR N00014-16-1-200]
  6. IFI programme of the German Academic Exchange Service (DAAD)
  7. Zapata Computing Inc.
  8. Google Quantum Research Program
  9. Government of Ontario
  10. Ontario Research Fund-Research Excellence
  11. University of Toronto
  12. MITACS globalink program
  13. Canada Foundation for Innovation

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Variational quantum algorithms are promising for near-term quantum computers, but lack standardized methods in algorithmic development. Heuristics are crucial, leading to a high demand for flexible and reliable ways to implement, test, and share new ideas. tequila is a Python development package designed for fast and flexible implementation, prototyping, and deployment of novel quantum algorithms.
Variational quantum algorithms are currently the most promising class of algorithms for deployment on near-term quantum computers. In contrast to classical algorithms, there are almost no standardized methods in quantum algorithmic development yet, and the field continues to evolve rapidly. As in classical computing, heuristics play a crucial role in the development of new quantum algorithms, resulting in a high demand for flexible and reliable ways to implement, test, and share new ideas. Inspired by this demand, we introduce tequila, a development package for quantum algorithms in python, designed for fast and flexible implementation, prototyping and deployment of novel quantum algorithms in electronic structure and other fields. tequila operates with abstract expectation values which can be combined, transformed, differentiated, and optimized. On evaluation, the abstract data structures are compiled to run on state of the art quantum simulators or interfaces.

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