高性能红外焦平面区域阵列探测器光电特性试验台的研制

A. Jain, P. Anees, Roshan Tamang, N. Pendyala, A. Banerjee
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引用次数: 1

摘要

波长范围从3微米到18微米的红外(IR)探测由于其在商业、国防和空间应用中的关键作用,一直是广泛研究的主题。红外探测器需要低温冷却才能工作。第一代红外成像系统使用离散元件探测器,在地球静止平台上以扫帚扫描模式工作。由于非常少的互连和缓慢的读出速率,这些探测器可以很容易地表征实验室真空杜瓦使用标准仪器。第二代和第三代成像系统使用区域阵列红外探测器结合高性能读出集成电路(roic),即焦平面阵列(FPA),以更快的成像速率对更宽的区域进行成像[1]。在地面应用中,为了便于大阵列红外探测器的表征,集成探测器杜瓦冷却器组件(IDDCA)是必不可少的,其中FPA位于主动式低温冷却器的冷端上,探测器冷却器组件在热隔离杜瓦中真空密封。在将FPA与冷却器集成之前,需要对FPA进行单独表征,以评估其在成像系统中的可用性。这给测试工程师带来了挑战,他们需要开发一个FPA特性测试台,以满足FPA在低温下的操作要求和测试。本文介绍了国产红外fpga电光性能测试台的设计细节。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of electro-optical characterization test bench for high performance infrared focal plane area array detectors
Infrared (IR) detection in wavelength ranging from 3µm to 18µm has been a subject of extensive research due to its key role in commercial, defense and space applications. Infrared detectors require cryogenic cooling for their operation. First generation IR imaging systems used discrete element detectors operating in whiskbroom scanning mode from geostationary platform. Due to very less interconnections and slow readout rates, these detectors can be easily characterized in lab vacuum Dewars using standard instrumentation. Second and third generation imaging systems use area array infrared detectors coupled with high performance read-out-integrated circuits (ROICs), known as focal plane array (FPA), to image wider areas at faster imaging rates [1]. In terrestrial applications, to facilitate characterization of large array IR detectors, an Integrated Detector Dewar Cooler Assembly (IDDCA) is essential whereby the FPA sits over the cold tip of an active cryo-cooler and the detector cooler assembly is vacuum sealed in a thermally isolated Dewar. Before integrating the FPA with cooler, the FPA needs to be characterized separately for assessing its usability in the imaging system. This imposes challenges for test engineers to develop an FPA characterization test bench meeting the operational requirements and testing of FPAs at cryogenic temperatures. This paper gives design details of an indigenously developed test bench to characterize electro-optical performance of infrared FPAs.
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