用于激光光谱仪的光谱接收器

M. Sandford, P. Lucey, Xiaoli Sun, D. Cremons
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摘要

多波段激光雷达系统,通常是单波长的传输和接收,正变得越来越适用于科学用途。然而,传统的激光雷达接收器不能很好地扩展到数十或数百个接收波段。我们介绍了一种使用阵列探测器的激光光谱仪的光谱接收器的设计,并提出了许多可能的应用中的两种:可见范围的荧光光谱和红外反射光谱。每个激光脉冲都具有激发不同波长目标的能力,并且光谱接收器能够解释这种激发,而典型的由单一波长接收器组成的激光雷达则不能。在具有可见或紫外脉冲激光的系统中使用摄谱仪能够检测荧光信号。这些光谱揭示了有机物的存在,是一种适用于行星科学的技术。光谱仪与红外范围内的脉冲激光相结合,显示了探测各种形式水存在的能力,这也是地球和行星科学的适用技术。这两种系统都采用了带有ZnSe棱镜的切尔尼-特纳光谱仪设计,用于将光色散到雪崩光电二极管(APD)上。本文介绍了一种用于激光光谱仪的光谱接收器的概念和设计,以及两种可能的应用。
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A spectrographic receiver for laser spectrometers
Multiband LiDAR systems, which are typically single wavelength in transmission and reception, are becoming more applicable for scientific use. However, traditional LiDAR receivers do not scale well to tens or hundreds of received bands. We introduce the design for a spectrographic receiver using an array detector for laser spectrometers and present two of the many possible applications: fluorescence spectroscopy in the visible range and IR reflectance spectroscopy. Each laser pulse has the capability of exciting a target in various wavelengths, and a spectrographic receiver would be able to interpret this excitation, while a typical LiDAR consisting of single wavelength receiver would not. Using a spectrograph in a system with a pulsed laser in the visible or UV range is capable of the detection of fluorescent signal. These spectra reveal the presence of organics and is an applicable technology for planetary science. A spectrograph coupled with a pulsed laser in the IR range shows capability of detecting the presence of water in various forms also applicable technology for both Earth and planetary science. Both systems utilize a Czerny-Turner spectrograph design with a ZnSe prism for the dispersion of light onto an Avalanche Photo Diode (APD). This paper introduces the concept and design of a spectrographic receiver for laser spectrometers, as well as two possible applications.
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