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Autori principali: Balthazar, Wagner F., Palmer, Quinn M. B., Jones, Alex. E., Bulmer, Jake F. F., Galvão, Ernesto. F.
Natura: Preprint
Pubblicazione: 2025
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Accesso online:https://arxiv.org/abs/2510.26408
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author Balthazar, Wagner F.
Palmer, Quinn M. B.
Jones, Alex. E.
Bulmer, Jake F. F.
Galvão, Ernesto. F.
author_facet Balthazar, Wagner F.
Palmer, Quinn M. B.
Jones, Alex. E.
Bulmer, Jake F. F.
Galvão, Ernesto. F.
contents The Feynman path integral formalism has inspired the development of memory-efficient and parallelizable classical algorithms for simulating quantum computers. We adapt this approach for the calculation of probability amplitudes of linear-optical boson sampling experiments, which involve Fock-state inputs, linear optical circuits, and photo-detection at the output. We describe this simulation method and compare it with alternative approaches. Additionally, we implement a Linear-Optical Feynman Path simulator in open-source C code, enhancing its performance using tensor contraction techniques. Our method is benchmarked for low-depth linear optical circuits, where it offers advantages in runtime and memory efficiency.
format Preprint
id arxiv_https___arxiv_org_abs_2510_26408
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Feynman path sum approach for simulation of linear optics
Balthazar, Wagner F.
Palmer, Quinn M. B.
Jones, Alex. E.
Bulmer, Jake F. F.
Galvão, Ernesto. F.
Quantum Physics
The Feynman path integral formalism has inspired the development of memory-efficient and parallelizable classical algorithms for simulating quantum computers. We adapt this approach for the calculation of probability amplitudes of linear-optical boson sampling experiments, which involve Fock-state inputs, linear optical circuits, and photo-detection at the output. We describe this simulation method and compare it with alternative approaches. Additionally, we implement a Linear-Optical Feynman Path simulator in open-source C code, enhancing its performance using tensor contraction techniques. Our method is benchmarked for low-depth linear optical circuits, where it offers advantages in runtime and memory efficiency.
title Feynman path sum approach for simulation of linear optics
topic Quantum Physics
url https://arxiv.org/abs/2510.26408