Evaluation of phase shifts for non-relativistic elastic scattering using quantum computers
ORAL
Abstract
Simulations of quantum many-body scattering processes are essential in understanding many scientific fields, from astrophysical nuclear reactions to the physics inside particle colliders. However, classical simulations of scattering processes, even for the simplest nuclear reactions, require an extreme computational effort. Following Feynman’s idea on the efficiency of quantum computers, it is desirable to develop quantum algorithms for simulating complex many-body processes that could be computed on quantum hardware in the future.
The talk presents a quantum algorithm that evaluates non-relativistic phase shifts for elastic scattering processes. This algorithm implements only real-time evolution that can be easily implemented on quantum hardware. Numerical and actual quantum results from IBM quantum processors are discussed, showing its reliability.
The talk presents a quantum algorithm that evaluates non-relativistic phase shifts for elastic scattering processes. This algorithm implements only real-time evolution that can be easily implemented on quantum hardware. Numerical and actual quantum results from IBM quantum processors are discussed, showing its reliability.
* This work was supported in part by U.S. Department of Energy, Office of Science, Office of Nuclear Physics, InQubator for Quantum Simulation (IQuS) under Award Number DOE (NP) Award DE-SC0020970 via the program on Quantum Horizon.
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Presenters
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francesco turro
University of Washington
Authors
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francesco turro
University of Washington
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Kyle A Wendt
Lawrence Livermore National Laboratory, Lawrence Livermore Natl Lab
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Francesco Pederiva
university of Trento
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Sofia Quaglioni
Lawrence Livermore Natl Lab