功率感知部署和控制强制对流和热电冷却器

M. Dousti, Massoud Pedram
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引用次数: 9

摘要

热电冷却技术的进步使其成为超大规模集成电路中有前途的点冷却解决方案之一。热电冷却器(tec)在运行过程中产生热量。这些热量加上电路中产生的热量应传递到周围环境中,以避免模具温度过高。本文描述了一种混合冷却解决方案,其中tec增加了强制对流冷却器(风扇)。准确地说,提出了一种称为OFTEC的优化框架,该框架可以找到最佳的TEC驱动电流和风扇速度,以最大限度地降低冷却系统的总体功耗,同时保持安全的模具温度。在一组8个基准上的仿真结果显示了所提出方法的优点。特别是,没有tec但有风扇的基准系统只能满足三个基准的热约束,而OFTEC解决方案满足所有基准的热约束。此外,OFTEC使上述三个基准的平均功耗降低了5.4%,同时将最高模具温度平均降低了3.7°C。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Power-aware deployment and control of forced-convection and thermoelectric coolers
Advances in the thermoelectric cooling technology have made it one of the promising solutions for spot cooling in VLSI circuits. Thermoelectric coolers (TECs) generate heat during their operation. This heat plus the heat generated in the circuit should be transferred to the ambient environment in order to avoid high die temperatures. This paper describes a hybrid cooling solution in which TECs are augmented with forced-convection coolers (fans). Precisely, an optimization framework called OFTEC is presented which finds the optimum TEC driving current and the fan speed to minimize the overall power consumption of the cooling system while maintaining safe die temperatures. Simulation results on a set of eight benchmarks show the benefits of the proposed approach. In particular, a baseline system without TECs but with a fan could meet the thermal constraint for only three of the benchmarks whereas the OFTEC solution satisfied thermal constraints for all benchmarks. In addition, OFTEC resulted in 5.4% less average power consumption for the aforesaid three benchmarks while lowering the maximum die temperature by an average of 3.7°C.
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