ImpEDE: A multidimensional design-space exploration framework for biomedical-implant processors

D. Dave, C. Strydis, G. Gaydadjiev
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引用次数: 3

Abstract

The demand for biomedical implants keeps increasing. However, most of the current implant design methodologies involve custom-ASIC design. The SiMS project aims to change this process and make implant design more modular, flexible, faster and extensible. The most recent work within the SiMS context provides ImpEDE, a framework based on a multiobjective genetic algorithm, for automatic exploration of the design space of implant processors. The framework provides the processor designer with a Pareto front through which informed decisions can be made about specific implant families after analyzing their particular tradeoffs and requirements. A highly efficient, parallelized version of the genetic algorithm is also used to evolve the front and has as its objectives the optimization of power, performance and area. In addition, we illustrate the extensibility of our framework by modifying it to include a case study of a synthetic implant application with hard realtime deadlines.
阻碍:一个多维设计空间探索框架的生物医学植入处理器
对生物医学植入物的需求不断增加。然而,目前大多数植入物设计方法都涉及定制asic设计。SiMS项目旨在改变这一过程,使植入物设计更加模块化、灵活、快速和可扩展。在SiMS环境下的最新工作提供了一个基于多目标遗传算法的框架,用于自动探索植入处理器的设计空间。该框架为处理器设计人员提供了一个帕累托前沿,通过它可以在分析特定的植入物家族的特定权衡和需求后做出明智的决策。一种高效的、并行化的遗传算法也被用于进化前端,其目标是优化功率、性能和面积。此外,我们还通过修改框架以包含具有硬实时截止日期的合成植入应用程序的案例研究来说明框架的可扩展性。
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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