基于硅基混合微流控冷却的数据中心服务器处理器

Yong Han, B. L. Lau, G. Tang, S. Lim, Xiaowu Zhang
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引用次数: 1

摘要

硅微流体散热器具有较高的散热能力,且泵送功率低,冷却剂体积小,受到了广泛的关注。在仿真研究的基础上,开发了一种硅基微流体解决方案,用于高性能处理器的冷却。设计并制作了一种具有微射流槽阵列、微尺度排水槽和微针翅的微流体散热片。在体积流量为1L/min、压降小于3kPa的条件下,采用所设计的微流体结构,可以获得$ sim9.6\times10^{4}\mathrm{W}/\mathrm{m}^{2}\mathrm{K}$的空间平均传热系数。进行了实验测试,结果与仿真数据吻合较好。散热测试芯片150W发热功率,可保持芯片最大温升小于$25^{\circ}\ mathm {C}$。所开发的混合微流体解决方案将成为未来先进数据中心服务器处理器热管理的理想选择。
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Si-Based Hybrid Microfluidic Cooling for Server Processor of Data Centre
Si micro-fluid heat sink, which has attracted extensive attentions, can achieve high heat dissipation capability, while requiring very low pumping power and small coolant volume. Based on simulation investigation, a Si-based micro-fluidic solution has been developed for high performance processor cooling. A stacked micro-fluid heat sink with micro-jet slot array, micro-scale draining trenches and micro-pin fins, is designed and fabricated. With volume flow rate 1L/min and pressure drop smaller than 3kPa, spatially averaged heat transfer coefficient of $\sim9.6\times10^{4}\mathrm{W}/\mathrm{m}^{2}\mathrm{K}$ can be achieved using the designed micro-fluid structure. Experimental tests have been performed, and the results agreed quite well with the simulation data. To dissipate 150W heating power of thermal test chip, the maximum chip temperature rise can be maintained less than $25^{\circ}\mathrm{C}$. The developed hybrid microfluidic solution will be a good candidate for thermal management of server processor in future advanced data center.
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