Efficient power Intent validation using loosely-timed simulation models

Fabian Mischkalla, W. Müller
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引用次数: 3

Abstract

Faced with increasing demands on energy efficiency, current electronic systems operate according to complex power management schemes including more and more fine-grained voltage frequency scaling and power shutdown scenarios. Consequently, validation of the power design intent should begin as early as possible at electronic system-level (ESL) together with first executable system specifications for integrity tests. However, today's system-level design methodologies usually focus on the abstraction of digital logic and time, so that typical low-power aspects cannot be considered so far. In this paper, we present a high-level modeling approach on top of the SystemC/TLM standard to simulate power distribution and voltage based implications in a "loosely-timed" functional execution context. The approach reuses legacy TLM models and prevents the need for detailed lock-step process synchronization in contrast to existing methods. A case study derived from an open source low-power design demonstrates the efficiency of our approach in terms of simulation performance and testability.
使用松散时间仿真模型的高效功率意图验证
面对日益增长的能源效率需求,当前的电子系统根据复杂的电源管理方案运行,包括越来越多的细粒度电压频率缩放和电源关闭场景。因此,电源设计意图的验证应尽早在电子系统级(ESL)开始,并与完整性测试的第一个可执行系统规范一起开始。然而,目前的系统级设计方法通常侧重于数字逻辑和时间的抽象,因此到目前为止还不能考虑典型的低功耗方面。在本文中,我们提出了一种基于SystemC/TLM标准的高级建模方法,以模拟“松散时间”功能执行上下文中基于功率分布和电压的含义。与现有方法相比,该方法重用了遗留的TLM模型,并且不需要详细的锁步过程同步。一个来自开源低功耗设计的案例研究证明了我们的方法在仿真性能和可测试性方面的效率。
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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