片上网络的热行为模拟

Tim Wegner, C. Cornelius, Martin Gag, Andreas Tockhorn, A. Uhrmacher
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引用次数: 9

摘要

由于集成密度的增加和纳米技术的出现,特别是可靠性和功率相关的设计方面成为芯片设计的关键。由于出现的问题是由高电路温度造成的,因此需要以精确和物理正确的方式对系统的热行为进行建模,这是不可避免的。因此,本文介绍了基于systemc的基于noc的系统仿真环境VulcaNoCs。VulcaNoCs设计用于同时执行基于noc的系统的高级系统仿真和温度分布的动态建模。为了模拟系统的热特性,使用等效的rc电路,利用热流和电现象之间的二重性。为了验证温度模型,将VulcaNoCs与更常用的基于spice的方法进行了比较,例如,对于2×2 NoC建模,其模拟性能显著提高了98.5%。
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Simulation of thermal behavior for Networks-on-Chip
Due to increasing integration densities and the emergence of nanotechnology, especially reliability and power related design aspects become critical for chip design. Since the arising problems are enforced by high circuit temperatures, the need for a possibility to model thermal behavior of a system in an accurate and physically correct way becomes inevitable. Hence, in this paper VulcaNoCs, a SystemC-based simulation environment for systems based on NoCs, is introduced. VulcaNoCs is designed to enable simultaneous execution of both high-level system simulation and dynamic modeling of temperature distributions in NoC-based systems. To emulate a system's thermal properties equivalent RC-circuits are used, exploiting the dualism between heat flow and electrical phenomena. To verify the temperature model, VulcaNoCs is compared to a more commonly used SPICE-based approach, exhibiting significant increases in simulation performance of up to 98,5% for modeling a 2×2 NoC, for example.
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