使用分支程序的快速功能仿真

P. Ashar, S. Malik
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引用次数: 99

摘要

本文研究了同步数字系统中加速功能(延迟无关)逻辑仿真的问题。这个问题几乎不需要新的动机——基于周期的功能仿真是系统设计中最大的计算周期消耗者。大多数用于此任务的现有模拟器可以分为事件驱动的或级别编译代码的,级别编译代码模拟器通常被认为对于此任务更快。大约十年前,在开关级功能仿真的背景下,提出了一种基于分支程序评估的替代技术。然而,这有非常有限的应用,因为它不能处理在实践中遇到的大型电路。本文重新提出了该技术的基本思想,并对其进行了重大修改,使其能够应用于当代工业强度电路。我们提出的实验结果表明,对于一套大型基准电路以及具有超过40000个门的工业示例,超过水平编译代码模拟的速度可达10倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fast functional simulation using branching programs
This paper addresses the problem of speeding up functional (delay-independent) logic simulation for synchronous digital systems. The problem needs very little new motivation-cycle-based functional simulation is the largest consumer of computing cycles in system design. Most existing simulators for this task can he classified as being either event driven or levelized compiled-code, with the levelized compiled code simulators generally being considered faster for this task. An alternative technique, based on evaluation using branching programs, was suggested about a decade ago in the context of switch level functional simulation. However, this had very limited application since it could not handle the large circuits encountered in practice. This paper resurrects the basic idea present this technique and provides significant modifications that enable its application to contemporary industrial strength circuits. We present experimental results that demonstrate up to a 10X speedup over levelized compiled code simulation for a large suite of benchmark circuits as well as for industrial examples with over 40.000 gates.
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