Fischer H, Oelhaf H
Appl Opt. 1996 Jun 1;35(16):2787-96. doi: 10.1364/AO.35.002787.
A deeper understanding of long-term ozone trends and periods of significant ozone depletion as well as of the anthropogenic greenhouse effect requires the concerted actions of experimenters and modelers. With respect to observations, atmospheric constituents need to be measured simultaneously and on a global basis. Fourier-transform infrared spectrometers are especially suited for this measurement task. Apromising and challenging branch of Fourier-transform infrared spectroscopy is its application to limb-emission sounding by the use of cryogenic instrumentation. This method allows the measurements to be made independently of the time of the day. The MIPAS (Michelson interferometer for passive atmospheric sounding) balloon-borne (MIPAS-B) and space-based (MIPAS-S) experiments apply this technique. While the MIPAS-B instrument has already been used for several years for stratospheric process studies, the MIPAS-S instrument is in development for the European Space Agency's ENVISAT mission. Instrumental aspects of these MIPAS experiments are highlighted, the most important results in ozone research achieved with MIPAS-B are reviewed, and a brief overview of the scientific capabilities of the MIPAS space experiment is given.
要更深入地了解长期臭氧趋势、显著臭氧消耗期以及人为温室效应,需要实验人员和建模人员的协同行动。在观测方面,需要在全球范围内同时测量大气成分。傅里叶变换红外光谱仪特别适合这项测量任务。傅里叶变换红外光谱学一个有前景且具有挑战性的分支是通过使用低温仪器将其应用于临边发射探测。这种方法使得测量可以独立于一天中的时间进行。米帕斯(用于被动大气探测的迈克尔逊干涉仪)气球搭载实验(MIPAS - B)和天基实验(MIPAS - S)都应用了这项技术。虽然MIPAS - B仪器已经用于平流层过程研究数年,但MIPAS - S仪器正在为欧洲航天局的环境卫星任务进行研制。文中突出了这些米帕斯实验的仪器方面内容,回顾了使用MIPAS - B在臭氧研究中取得的最重要成果,并简要概述了米帕斯空间实验的科学能力。