喷气推进实验室的中红外和热红外遥感

W. Johnson, S. Hook
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引用次数: 1

摘要

地球表面的中红外和热红外(MTIR)定义在3 ~ 14µm之间。在太阳系外,物体更冷,它们的普朗克响应向更长的波长移动。因此,对于这些天体(如冰卫星、极帽、彗星、木卫二),热红外定义通常延伸到50微米以上。光谱学一直是这一科学探索的关键部分,因为它能够远程确定元素和矿物组成。许多重要的气体,如甲烷、氨、硫等,也有振动带,这些振动带出现在背景响应上方的热红外光谱中。在过去的几十年里,喷气推进实验室一直在建立一套技术组合,以捕获MTIR用于各种科学应用。简要介绍了近年来的三种传感器:机载高光谱热发射光谱仪(HyTES)、生态系统星载空间站热辐射计实验(ECOSTRESS)和火星气候探测器(MCS)/DIVINER。这些传感器中的每一个都利用不同的技术来提供基于MTIR科学的遥感产品。例如,HyTES是一种推刷高光谱成像仪,它利用了一个大画幅量子阱红外光电探测器(QWIP)。目标是将其转化为一种新的互补屏障红外光电探测器(CBIRD),具有类似的长波截止和更高的灵敏度。ECOSTRESS是一种基于汞镉碲(MCT)的高速多波段推刷式成像仪,最终将从美国邻近地区的国际空间站(ISS)观察和表征植物/植被功能和压力指数。MCS/DIVINER利用热电堆技术捕获来自月球极帽和阴影区域的热发射。每个传感器都使用特定的喷气推进实验室技术来捕捉独特的科学。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mid and thermal infrared remote sensing at the Jet Propulsion Laboratory
The mid and thermal infrared (MTIR) for the Earth surface is defined between 3 and 14µm. In the outer solar system, objects are colder and their Planck response shifts towards longer wavelengths. Hence for these objects (e.g. icy moons, polar caps, comets, Europa), the thermal IR definition usually stretches out to 50µm and beyond. Spectroscopy has been a key part of this scientific exploration because of its ability to remotely determine elemental and mineralogical composition. Many key gas species such as methane, ammonia, sulfur, etc. also have vibrational bands which show up in the thermal infrared spectrum above the background response. Over the past few decades, the Jet Propulsion Laboratory has been building up a portfolio of technology to capture the MTIR for various scientific applications. Three recent sensors are briefly reviewed: The airborne Hyperspectral thermal emission spectrometer (HyTES), the ECOsystem Spaceborne Thermal Radiometer Experiment on Space Station (ECOSTRESS) and Mars Climate Sounder (MCS)/DIVINER. Each of these sensors utilize a different technology to provide a remote sensing product based on MTIR science. For example, HyTES is a push-brooming hyperspectral imager which utilizes a large format quantum well infrared photodetector (QWIP). The goal is to transition this to a new complementary barrier infrared photodetector (CBIRD) with a similar long wave cut-off and increased sensitivity. ECOSTRESS is a push-whisk Mercury Cadmium Telluride (MCT) based high speed, multi-band, imager which will eventually observe and characterize plant/vegetation functionality and stress index from the International Space Station (ISS) across the contiguous United States (CONUS). MCS/DIVINER utilizes thermopile technology to capture the thermal emission from the polar caps and shadow regions of the moon. Each sensor utilizes specific JPL technology to capture unique science.
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