Extending a multi-level logi-thermal simulation framework to a mixed signal thermal aware simulation environment using SystemC-AMS

L. Jani, A. Poppe
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Abstract

With the advance of the semiconductor technology power density and related thermal management issues became design bottlenecks. These physical limits require design engineers to make several thermal aware decisions during the design process: the earlier the better. Modern hardware description languages have extensions for simulation of mixed-signal circuits (e.g. SystemC-AMS, Verilog-AMS, VHDL-AMS) but none of these approaches support co-simulation of the effect of the foreseen thermal environment of the design with the logic behavior. A relatively new simulation paradigm called logi-thermal simulation is aimed to fill this gap in the available set of simulation tools. Our framework for co-simulation of logic and thermal behavior called LogiTherm contains generic interfaces towards usual logic and thermal simulation engines. In our present framework setup SystemC and Verilog is supported as hardware description languages and two thermal field solvers, SUNRED and 3D-ICE can be used as thermal simulation engines. In this paper we present the recent developments of the LogiTherm framework that enable logi-thermal simulation of mixed signal designs. We demonstrate the capability of our system by presenting simulation results of a test system, which contains a microprocessor and mixed signal components as well.
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使用SystemC-AMS将多级逻辑热仿真框架扩展到混合信号热感知仿真环境
随着半导体技术的进步,功率密度和相关的热管理问题成为设计的瓶颈。这些物理限制要求设计工程师在设计过程中做出几个热意识决策:越早越好。现代硬件描述语言有用于混合信号电路仿真的扩展(例如SystemC-AMS, Verilog-AMS, VHDL-AMS),但这些方法都不支持将设计的可预见热环境的影响与逻辑行为进行联合仿真。一种相对较新的仿真范式称为逻辑-热仿真,旨在填补现有仿真工具集中的这一空白。我们的逻辑和热行为联合模拟框架称为LogiTherm,它包含了通常逻辑和热模拟引擎的通用接口。在我们目前的框架设置中,支持SystemC和Verilog作为硬件描述语言,两个热场求解器SUNRED和3D-ICE可以用作热模拟引擎。在本文中,我们介绍了LogiTherm框架的最新发展,该框架可以实现混合信号设计的逻辑-热模拟。我们通过一个包含微处理器和混合信号组件的测试系统的仿真结果来证明我们系统的能力。
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