Quantum finite difference solvers for physics simulation

IF 2.5 Q3 QUANTUM SCIENCE & TECHNOLOGY
Anthony Chagneau, Laëticia Nathoo, Jérémy Alloul, Bertrand Gabriel
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引用次数: 0

Abstract

Physics systems are becoming increasingly complex and require more and more computing time. Quantum computing, which has shown its efficiency on some problems, such as the factorisation of a number with Shor's algorithm, may be the solution to reduce these computation times. Here, the authors propose two quantum numerical schemes for the simulation of physics phenomena, based on the finite difference method. The aim is to see if quantum versions of standard numerical schemes offer an advantage over their classical counterparts, either in accuracy, stability or computation time. First, the authors will present the different phenomena studied as well as the classical solution methods chosen. The authors will then describe the implementation of the quantum numerical schemes and present some results obtained on the different physics phenomena beforehand and then compare both approaches, classical and quantum.

Abstract Image

用于物理模拟的量子有限差分求解器
物理系统变得越来越复杂,需要越来越多的计算时间。量子计算在一些问题上已经显示出了它的效率,比如用Shor算法对数字进行因子分解,它可能是减少这些计算时间的解决方案。在此,作者基于有限差分法,提出了两种用于模拟物理现象的量子数值方案。其目的是看看标准数值格式的量子版本是否在精度、稳定性或计算时间方面优于经典版本。首先,作者将介绍所研究的不同现象以及所选择的经典求解方法。然后,作者将描述量子数值方案的实现,并介绍预先对不同物理现象获得的一些结果,然后比较经典和量子两种方法。
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CiteScore
6.70
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0.00%
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