The doppler wind and temperature system of the ALOMAR lidar facility: overview and initial results

David Rees , Mikhail Vyssogorets , Nigel P. Meredith , Eoghan Griffin , Yvan Chaxell
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引用次数: 39

Abstract

The Arctic Lidar Observatory for Middle Atmosphere Research (ALOMAR) facility is a new and major facility for atmospheric research. It is located at Andøya in Northern Norway. One of the important facilities of ALOMAR is the Doppler Wind and Temperature System (DWTS). The DWTS will determine atmospheric wind and temperature profiles between about 8 and 90 km altitude from the Doppler shift and broadening of the lidar signal Rayleigh back-scattered from the atmosphere. The DWTS uses a double-etalon Fabry-Perot interferometer to perform the high-resolution spectral analysis of the back-scattered lidar signal, and to reject the bright background light from the daytime sky. After spectral analysis, the Fabry-Perot fringes are imaged onto a multi-ring anode imaging photon detector which provides, pulse-by-pulse, time-resolved detection of the spectrum of the laser light back-scattered from the atmosphere. The double-etalon Fabry-Perot interferometer has been designed to detect the returned signal during daytime, and thus summer-time conditions at ALOMAR, as well as during night-time. The entire optical system has been designed to maximise the transmission and detection of light, to make maximum use of the faint signals available from high-altitude regions, up to around 80–90 km. This paper reports on the objectives and design of the ALOMAR DWTS, and presents some initial results obtained during commissioning periods in October 1994 and January 1995.

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ALOMAR激光雷达设施的多普勒风和温度系统:概述和初步结果
北极中大气研究激光雷达观测站(ALOMAR)设施是一个新的重要的大气研究设施。它位于挪威北部的Andøya。ALOMAR的重要设备之一是多普勒风温系统(DWTS)。DWTS将根据多普勒频移和雷利反向散射激光雷达信号的加宽,确定大约8至90公里高度之间的大气风和温度剖面。DWTS使用双标准法布里-珀罗干涉仪对后向散射激光雷达信号进行高分辨率光谱分析,并抑制来自白天天空的明亮背景光。经过光谱分析,法布里-珀罗条纹被成像到多环阳极成像光子探测器上,该探测器提供了对来自大气的激光反向散射的脉冲逐脉冲、时间分辨的光谱检测。双标准子法布里-珀罗干涉仪被设计用于在白天探测返回的信号,因此在ALOMAR的夏季条件下,以及在夜间。整个光学系统被设计为最大化光的传输和探测,最大限度地利用来自高海拔地区的微弱信号,最高可达80-90公里。本文报告了ALOMAR DWTS的目标和设计,并介绍了1994年10月和1995年1月调试期间取得的一些初步结果。
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Rocket measurements of the equatorial airglow: MULTIFOT 92 database European meeting on atmospheric studies by optical methods University College of London, 12–16 September 1994 ALOMAR: atmospheric science using lidars, radars and ground based instruments The doppler wind and temperature system of the ALOMAR lidar facility: overview and initial results Modelling of the twilight sky brightness using a numerical solution of the radiation transfer equation
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