用于低轮廓电子应用的径向振荡流混合冷却系统

R. Walchli, R. Linderman, T. Brunschwiler, U. Kloter, H. Rothuizen, N. Bieri, D. Poulikakos, B. Michel
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引用次数: 7

摘要

径向振荡流混合冷却系统,在下面被称为无线电,提供了一个薄的形状因素冷板径向扩散到更大的区域。小体积液体(< 10ml)在系统内密封,不需要外部软管连接。四个膜泵以相位延迟的方式运行,在芯片源处诱导恒定速度、振荡方向的流体流动,连续地将热量传递到扩展的外围,并将冷却的液体返回芯片。在外围分支中,热量从液体转移到固体结构,最后消散到空气中。微尺度铜网使低阻力传热(固体-液体和液体-固体)在一个薄的形式因素(< 2毫米)。离散热交换器区域之间的窄通道优化了扩散性能并减小了流体体积。数值模拟表明,扩散板和连接管的有效电导率分别为20倍和50倍。这里介绍的技术促进了低轮廓计算系统的模块化液体冷却单元,而不会产生与传统液体冷却电路相关的水浸风险。
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Radially Oscillating Flow Hybrid Cooling System for Low Profile Electronics Applications
The radially oscillating flow hybrid cooling system, in the following referred to as RADIOS, provides a thin form factor cold plate with radial spreading of heat to a larger area. A small liquid volume (<10 ml) is hermetically sealed within the system and does not require external hose connections. Four membrane pumps running in a phase-delayed manner induce a constant-speed, oscillating direction fluid flow at the chip source that continuously shuttles heat to an extended periphery and returns cool liquid to the chip. In the peripheral branches, heat is transferred from the liquid to solid structures and finally dissipated to the air. A micro-scale copper mesh enables low-resistance heat transfer (solid-liquid and liquid- solid) in a thin form factor (< 2 mm). Narrow channels between the discrete heat exchanger areas optimize the spreading performance and reduce the fluid volume. Numerical modeling shows an effective conductivity of 20X and 50X over bulk copper for the spreader plates and the interconnecting tubes, respectively. The technology presented here promotes modular liquid cooling units for low-profile computing systems without incurring the risk of flooding associated with conventional liquid cooling circuits.
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