提高雷达发射/接收模块冷却系统的性能

Yu. E. Nikolaenko, Volodymir Kravets, R. Melnyk, D. Pekur, Dmitrii Kozak, A. Solomakha, L. Lipnitskyi
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引用次数: 0

摘要

考虑到有源相控阵天线的天线片和发射/接收模块在其工作位置的放置,提出了一种简化设计的内置热管的发射/接收模块风冷系统的高效设计方案。本文介绍了两种基于散热器的空冷系统设计方案的计算机模拟结果:一种是无热管的设计方案,另一种是带螺纹毛细管结构的16根扁平热管的设计方案。在8个热管总热功率为224 W的情况下,研究了将热管通道内的冷却气流速度从2 ~ 10 m/s改变对温度场分布和最高温晶体管温度的影响。在空气速度为2米/秒时,在冷却系统中使用热管可以使最热的晶体管温度降低20 K,在空气速度为10米/秒时,温度降低14.9 K。确定了散热器通道内推荐的空气流速在4 ~ 8 m/s范围内,与无热管散热器设计相比,晶体管的温度降低了33.3%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Increasing Performance of Cooling Systems for Radar Transmit/Receive Modules
The authors take into consideration the placement of the antenna sheet and the transmit/receive modules of the active phased array antenna in its operating position to propose a new efficient design of the air-cooling system for transmit/receive modules with built-in heat pipes of simplified design. This paper presents the results of computer simulation of two alternative designs of the air-cooling system based on a heat sink: a version without heat pipes and one with 16 flat heat pipes with threaded capillary structure. The effect of changing the velocity of cooling air flowing in the heat pipe channels from 2 to 10 m/s on the temperature field distribution and the temperature of the hottest transistors is demonstrated for both versions at a total thermal power of 8 transistors amounting to 224 W. At an air velocity of 2 m/s, the use of heat pipes in the cooling system made it possible to reduce the temperature of the hottest transistor by 20 K, and at an air velocity of 10 m/s, by 14.9 K. The recommended air velocity in the heat sink channels was determined to be in the range from 4 to 8 m/s, in which the temperature of the transistors is reduced to 33.3% compared to the heat sink design without heat pipes.
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