近地轨道硅光电倍增管的研究

L. Finazzi, G. A. Sanca, F. G. Marlasca, M. Barella, F. Izraelevitch, P. Levy, F. Golmar
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引用次数: 0

摘要

LabOSat合作旨在提高低地球轨道空间应用的电子设备和组件的技术准备水平。自2014年以来,该合作使用不同版本的旗舰测试平台LabOSat-01在空间环境中测试了不同的电子元件。过去测试的一些电子元件包括电阻开关存储器和基于场效应晶体管的剂量计。为LabOSat-01开发了子板,用于在直流模式下表征四个ONSEMI MicroFC-60035-SMT硅光电倍增管。每个硅光电倍增管都被封装在一个不透光的铝制外壳中,并与一个LED一起在受控照明下进行测试。在本论文中,我们报告了在低地球轨道上对硅光电倍增管性能进行2年半(958天)测量后获得的结果。电子器件和传感器的温度范围为- 7℃~ 4℃。用于偏置硅光电倍增管的DC-DC升压变换器在29.1 V的设定偏置电压下保持工作。在不同的LED照明下,硅光电倍增管的预期电流增加,这些值随着任务时间的增加而增加。有几种假设正在评估中,比如对电子设备的逐渐损坏,对不透光外壳的损坏,或者两者兼而有之。
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Study of Silicon Photomultipliers in Low Earth Orbit
The LabOSat collaboration aims to increase the Technology Readiness Level of electronic devices and components for space-borne applications in Low Earth Orbits. Since 2014, the collaboration has tested different electronic components in space environments using different versions of its flagship testing platform: LabOSat-01. Some of the electronic components tested in the past include resistive switching memories and dosimeters based on field-effect transistors. A daughter board was developed for LabOSat-01, which was used to characterize four ONSEMI MicroFC-60035-SMT Silicon Photomultipliers in DC mode. Each Silicon Photomultiplier was enclosed in a light-tight aluminum housing along with an LED to test it under controlled illumination.In this Proceeding, we report the results obtained after 2 and a half years (958 days) of measurements of Silicon Photomultiplier performance in Low Earth Orbit. The temperature range of the electronics and sensors was −7 °C to 4 °C. The DC-DC boost converters used to bias the Silicon Photomultipliers remained operational at the set bias voltage of 29.1 V. An increase of expected Silicon Photomultiplier current under various LED illuminations was observed and these values increased with mission time. Several hypotheses are under evaluation, like gradual damage to the electronics, to the light-tight housings, or both.
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