空间应用中光学探测器微冷却的接口问题

J. H. Derking, H. T. Brake, M. Linder, H. Rogalla
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引用次数: 1

摘要

微型焦耳-汤姆逊冷却器是在特温特大学开发的,能够以10到20兆瓦的典型冷却功率冷却到100 K。这些冷却器在为未来的地球观测和科学任务冷却小型光学探测器方面具有很高的空间应用潜力。根据欧洲航天局的合同,我们研究了芯片上探测器在70 K-250 K温度范围内的冷却。为了确定可以用JT微冷却器冷却的探测器,进行了文献调查。在此调查之后,我们选择了微型数字CMOS图像传感器。对该系统进行了概念设计。在各种技术中,硅传感器与玻璃微冷却器的连接选择了铟焊接和银漆。从传感器到外部的电气连接将通过将它们结构在一层薄薄的金层中来实现,这层金层溅射在冷却器的外部,以尽量减少辐射热负荷。对于传感器和结构引线之间的电气连接,将使用铝或金键线
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INTERFACING ISSUES IN MICROCOOLING OF OPTICAL DETECTORS IN SPACE APPLICATIONS
Miniature Joule-Thomson coolers were developed at the University of Twente and are able to cool to 100 K with a typical cooling power of 10 to 20 mW. These coolers have a high potential for space applications in cooling small optical detectors for future earth observation and science missions. Under contract of the European Space Agency, we investigate on-chip detector cooling for the temperature range 70 K-250 K. To identify the detectors that can be cooled by a JT microcooler, a literature survey was performed. Following this survey, we selected a micro digital CMOS image sensor. A conceptual design of this cooler-sensor system is made. Among various techniques, indium soldering and silver paint are chosen for the bonding of the silicon sensor to the glass microcooler. Electrical connections from the sensor to the outside will be realized by structuring them in a thin layer of gold that is sputtered on the outside of the cooler to minimize the radiative heat load. For the electrical connections between the sensor and the structured leads, aluminum or gold bond wires will be used
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