K. Pettigrew, J. Kirshberg, K. Yerkes, D. Trebotich, D. Liepmann
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引用次数: 38
摘要
为了给电子和微机电系统提供直接冷却,利用当前的MEMS技术设计、制造和测试了一个三端口微毛细管泵浦回路(CPL)。这两种晶圆设计由硅晶圆和硼浮法玻璃晶圆组成。在硅片上蚀刻蒸发器、冷凝器、储液器和液汽管路,而玻璃晶片作为盖板,在盖板上蚀刻凹槽,用于毛细管泵送。通过分析研究确定了该装置部件的几何形状。利用激光光斑加热和水作为工作流体,在稳态下运行了一个成品装置。结果表明,在7.5 W (+/-2 W)的激光功率下,1 mm/spl倍/ 2mm的蒸发器在恒定的100 /spl度/C下工作,直到灯芯干燥。此外,在相同的激光功率下,微cpl导致至少7℃的背面冷却。
Performance of a MEMS based micro capillary pumped loop for chip-level temperature control
To provide direct cooling to electronics and microelectromechanical systems, a three port micro-capillary pumped loop (CPL) was designed, fabricated and tested using current MEMS technology. The two wafer design consists of a silicon and a borofloat glass wafer. An evaporator, condenser, reservoir, and liquid and vapor lines were etched into the silicon wafer, while the glass wafer serves as a cover plate into which grooves were etched for capillary pumping. The geometry of the components of the device were determined via an analytical study. A finished device was run near steady state using laser spot heating and water as the working fluid. It was determined that a 1 mm/spl times/2 mm evaporator operates at a constant 100 /spl deg/C until wick dry-out at a laser power of 7.5 W (+/-2 W). Furthermore, with the same laser power the micro-CPL resulted in a backside cooling of at least 7 degrees C.