Preliminary Investigation of Advanced Electrostatics in Molecular Dynamics on Reconfigurable Computers

R. Scrofano, V. Prasanna
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引用次数: 26

Abstract

Scientific computing is marked by applications with very high performance demands. As technology has improved, reconfigurable hardware has become a viable platform to provide application acceleration, even for floating-point-intensive scientific applications. Now, reconfigurable computers - computers with general purpose microprocessors, reconfigurable hardware, memory, and high performance interconnect - are emerging as platforms that allow complete applications to be partitioned into parts that execute in software and parts that are accelerated in hardware. In this paper, we study molecular dynamics simulation. Specifically, we study the use of the smooth particle mesh Ewald technique in a molecular dynamics simulation program that takes advantage of the hardware acceleration capabilities of a reconfigurable computer. We demonstrate a 2.7-2.9times speed-up over the corresponding software-only simulation program. Along the way, we note design issues and techniques related to the use of reconfigurable computers for scientific computing in general
可重构计算机分子动力学高级静电学的初步研究
科学计算的特点是应用程序具有非常高的性能要求。随着技术的进步,可重构硬件已经成为提供应用程序加速的可行平台,即使对于浮点密集型的科学应用程序也是如此。现在,可重构计算机——具有通用微处理器、可重构硬件、内存和高性能互连的计算机——正在作为平台出现,这些平台允许将完整的应用程序划分为在软件中执行的部分和在硬件中加速的部分。本文主要研究分子动力学模拟。具体来说,我们研究了平滑粒子网格Ewald技术在分子动力学模拟程序中的使用,该程序利用了可重构计算机的硬件加速能力。我们演示了相对于相应的纯软件仿真程序的2.7-2.9倍的加速。在此过程中,我们注意到与使用可重构计算机进行科学计算相关的设计问题和技术
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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