高光谱分辨率时间调制傅氏变换成像光谱技术研究
|
摘要
时间调制傅氏变换成像光谱技术可以获得极高的光谱分辨率,这是现有其他类型光谱技术所不能达到的,加之高精确度等优点,它在科学研究及工业生产领域发挥着越来越重要的作用,它在大气遥感、超精细光谱测量上的应用已成为一种必然的趋势,并成为近年来人们研究的热点之一。
本文深入系统地研究了时间调制傅氏变换成像光谱技术,针对干涉仪动镜的倾斜及横移、匀速性误差、探测器非线性响应导致干涉强度畸变等关键理论与技术问题,取得了创新性成果。
对干涉仪动镜的倾斜及横移进行了深入的理论研究,从调制度和相位误差角度建立了平面动镜倾斜误差容限公式,给出了猫眼动镜横移及次镜倾斜误差容限的相关公式,分析了角锥体的倾斜补偿能力,归纳总结了国内外现有的解决方案及其优缺点。
首次提出了双平面动镜、双面反射动镜、新型双猫眼动镜和新型双角锥体动镜等四种新型干涉仪结构,理论分析表明,上述方案不仅可减小或消除动镜倾斜及横移对干涉图的影响,而且可增大光程差,提高光谱分辨率。其中,新型双猫眼动镜和新型双角锥体动镜干涉仪结构,光程差均为动镜位移的8倍,可获得极大的最大光程差,从而获得极高的光谱分辨率。
提出了一种改进的移动光楔干涉仪结构,通过选择光楔材料的折射率和楔角,可使光程差与移动光楔位移的比值很小(比如0.3),从而可减小动镜速度匀速性误差对采样干涉图的影响。
提出了双路输出双猫眼动镜干涉仪和双路输出双角锥体动镜干涉仪两种新型结构,理论分析表明可大大减小探测器非线性响应导致的干涉强度畸变,从而可减小傅里叶变换光谱的畸变,提高了仪器的信噪比;同时消除了动镜倾斜及横移对干涉图的影响;其光程差为动镜位移的4倍,相比迈克尔逊干涉仪,可获得更高的仪器分辨率。
The very high spectral resolution is the most outstanding feature to the time-modulated Fourier transform imaging spectroscopy (TMFTIS). Any other existing type of spectroscopy does not have this feature. Together with the high accuracy advantage, TMFTIS is currently well accepted and much used at scientific and industrial laboratories for various kinds of applications, and its application at atmospheric remote sensing and the measurement of the hyperfine spectrum has become an inevitable trend.
The biggest problem associated with the use of a Michelson interferometer as a Fourier transform spectrometer is the tilt of the moving plane mirror during scanning. It is extremely difficult to solve the basic problem mechanically, so we have to searchfor optical solutions.
In order to develop the very-high-spectral-resolution Fourier transform imaging spectrometer, this dissertation systematically and in depth studied the key theoretical and technical problems of the TMFTIS, and made some achievements of innovation in scientific research.
In this dissertation the tilt tolerance of the moving plane mirror in Michelson interferometer is systematically analyzed by means of modulation depth and phase error. The lateral shift of the single moving cat's-eye retro-reflector and the tilt of its secondary mirror are analyzed. Some novel types of interferometers, the moving-mirror-pair interferometer, the moving-double-sided-mirror interferometer, the novel moving-cat's-eye-pair interferometer and the novel moving-corner-cube-pair interferometer, are presented for the first time. Their principle and properties are studied. The novel moving-corner-cube-pair and the novel moving-cat's-eye-pair nterferometer have neither tilt nor shearing problems, and the OPD value is eight times the displacement of the moving element. So the larger maximum OPD value can be created by the straight reciprocating motion of the moving element. Therefore, the very high spectral resolution can be obtained by the novel moving-corner-cube-pair interferometer or the novel moving-cat's-eye-pair interferometer. In addition, the novel moving-cat's-eye-pair interferometer is very applicable to very-high-resolution Fourier transform spectrometers for any wave-number region from the far infrared down to the visible if the cat's-eye retro-reflector comprises a parabolic primary and a spherical secondary. The novel moving-corner-cube-pair interferometer is almost ideal for the very-high-resolution Fourier transform infrared spectrometers.
In this dissertation the moving-optical-wedge interferometer and a modified moving-optical-wedge interferometer are presented, and their principle and properties are studied. The ratio of the OPD value and the displacement of the moving optical wedge may be very small (for example, 0.3), if the values of the refractive index and the wedge angle of the optical wedges are chosen properly. Thus, the moving-optical-wedge interferometer is not so sensitive to the velocity variation of the moving element compared with the Michelson interferometer. That is, the moving-optical-wedge interferometer can reduce the impact of the velocity varation on the interferogram sampling error.
In this dissertation the two-output moving-corner-cube-pair interferometer and the two-output moving-cat's-eye-pair interferometer are presented, and their principle and properties are studied. Each one generates two output beams received by two detectors. The resulting interferogram is made up of the difference between the signals of the two detectors, and these signals have the same amplitude and opposite phases. Hence, these two novel two-output interferometers remove the most important intensity distortions from Fourier transform spectra recorded with nonlinear detectors, and they have neither tilt nor shearing problems. The OPD value is four times the displacement of the moving element, so the instrumental resolution of the above novel two-output interferometers is higher than the Michelson interferometer.
本文深入系统地研究了时间调制傅氏变换成像光谱技术,针对干涉仪动镜的倾斜及横移、匀速性误差、探测器非线性响应导致干涉强度畸变等关键理论与技术问题,取得了创新性成果。
对干涉仪动镜的倾斜及横移进行了深入的理论研究,从调制度和相位误差角度建立了平面动镜倾斜误差容限公式,给出了猫眼动镜横移及次镜倾斜误差容限的相关公式,分析了角锥体的倾斜补偿能力,归纳总结了国内外现有的解决方案及其优缺点。
首次提出了双平面动镜、双面反射动镜、新型双猫眼动镜和新型双角锥体动镜等四种新型干涉仪结构,理论分析表明,上述方案不仅可减小或消除动镜倾斜及横移对干涉图的影响,而且可增大光程差,提高光谱分辨率。其中,新型双猫眼动镜和新型双角锥体动镜干涉仪结构,光程差均为动镜位移的8倍,可获得极大的最大光程差,从而获得极高的光谱分辨率。
提出了一种改进的移动光楔干涉仪结构,通过选择光楔材料的折射率和楔角,可使光程差与移动光楔位移的比值很小(比如0.3),从而可减小动镜速度匀速性误差对采样干涉图的影响。
提出了双路输出双猫眼动镜干涉仪和双路输出双角锥体动镜干涉仪两种新型结构,理论分析表明可大大减小探测器非线性响应导致的干涉强度畸变,从而可减小傅里叶变换光谱的畸变,提高了仪器的信噪比;同时消除了动镜倾斜及横移对干涉图的影响;其光程差为动镜位移的4倍,相比迈克尔逊干涉仪,可获得更高的仪器分辨率。
The very high spectral resolution is the most outstanding feature to the time-modulated Fourier transform imaging spectroscopy (TMFTIS). Any other existing type of spectroscopy does not have this feature. Together with the high accuracy advantage, TMFTIS is currently well accepted and much used at scientific and industrial laboratories for various kinds of applications, and its application at atmospheric remote sensing and the measurement of the hyperfine spectrum has become an inevitable trend.
The biggest problem associated with the use of a Michelson interferometer as a Fourier transform spectrometer is the tilt of the moving plane mirror during scanning. It is extremely difficult to solve the basic problem mechanically, so we have to searchfor optical solutions.
In order to develop the very-high-spectral-resolution Fourier transform imaging spectrometer, this dissertation systematically and in depth studied the key theoretical and technical problems of the TMFTIS, and made some achievements of innovation in scientific research.
In this dissertation the tilt tolerance of the moving plane mirror in Michelson interferometer is systematically analyzed by means of modulation depth and phase error. The lateral shift of the single moving cat's-eye retro-reflector and the tilt of its secondary mirror are analyzed. Some novel types of interferometers, the moving-mirror-pair interferometer, the moving-double-sided-mirror interferometer, the novel moving-cat's-eye-pair interferometer and the novel moving-corner-cube-pair interferometer, are presented for the first time. Their principle and properties are studied. The novel moving-corner-cube-pair and the novel moving-cat's-eye-pair nterferometer have neither tilt nor shearing problems, and the OPD value is eight times the displacement of the moving element. So the larger maximum OPD value can be created by the straight reciprocating motion of the moving element. Therefore, the very high spectral resolution can be obtained by the novel moving-corner-cube-pair interferometer or the novel moving-cat's-eye-pair interferometer. In addition, the novel moving-cat's-eye-pair interferometer is very applicable to very-high-resolution Fourier transform spectrometers for any wave-number region from the far infrared down to the visible if the cat's-eye retro-reflector comprises a parabolic primary and a spherical secondary. The novel moving-corner-cube-pair interferometer is almost ideal for the very-high-resolution Fourier transform infrared spectrometers.
In this dissertation the moving-optical-wedge interferometer and a modified moving-optical-wedge interferometer are presented, and their principle and properties are studied. The ratio of the OPD value and the displacement of the moving optical wedge may be very small (for example, 0.3), if the values of the refractive index and the wedge angle of the optical wedges are chosen properly. Thus, the moving-optical-wedge interferometer is not so sensitive to the velocity variation of the moving element compared with the Michelson interferometer. That is, the moving-optical-wedge interferometer can reduce the impact of the velocity varation on the interferogram sampling error.
In this dissertation the two-output moving-corner-cube-pair interferometer and the two-output moving-cat's-eye-pair interferometer are presented, and their principle and properties are studied. Each one generates two output beams received by two detectors. The resulting interferogram is made up of the difference between the signals of the two detectors, and these signals have the same amplitude and opposite phases. Hence, these two novel two-output interferometers remove the most important intensity distortions from Fourier transform spectra recorded with nonlinear detectors, and they have neither tilt nor shearing problems. The OPD value is four times the displacement of the moving element, so the instrumental resolution of the above novel two-output interferometers is higher than the Michelson interferometer.
引文
1.张良培,张立福.高光谱遥感.武汉:武汉大学出版社,2005
2.童庆禧,张兵,郑兰芬.高光谱遥感—原理技术与应用.北京:高等教育出版社,2006
3.金锡哲.干涉成像光谱仪技术研究.博士论文.中国科学院长春光学精密机械研究所.2000
4.陈立武.CE-1成像光谱仪工程化光学技术理论研究.博士论文.中国科学院西安光学精密机械研究所.2006
5.A.F.H.Goet,et al.Imaging spectrometry for remote sensing:vision to reality in 15 years.SPIE,1995,Vol.2480:2
6.A.N.Drake,S.Mackin,J.J.Settle.Mapping vegetation,soils and geology in semiarid shrublands using spectral matching and mixture modeling of SWIR AVIRIS imagery.Remote Sensing Environment,1999,68:12-25
7.P.S.Fouche,E.J.Botha,O.A.Ogunnaike.Monitoring nitrogen response on wheat using airborne multi-spectral imaging.21st Canadian symposium on remote sensing,Ottawa,Canada,1999,Ⅱ:312-320
8.R.S.Fraser,Y.F.Kaufman.The relative important of aerosol scattering and absorption in remote sensing.IEEE Transactions on Geosciences and Remote Sensing,1985,23(5):625-633
9.K.Fukunaga,W.L.G.Koontz.Application of the Karbunen Loeve expansion to feature selection and ordering.IEEE Transactions on Computer,1970,C-19(4):311-318
10.L.R.Gaddis,J.S.Tyo,A.Konsolukis,et al.Decomposition of AVIRIS spectral extraction of surface-reflectance,atmospheric,and instrumental components.IEEE Transactions on Geosciences and Remote Sensing,1996,34(1):21-28
11.B.C.Gao,F.H.Goetz.Column atmospheric water vapor and vegetation liquid water retrieval from airborne imaging spectrometer data.Journal of Geophysical Research,1990,95(D4):3549-3563
12.B.C.Gao,K.B.Heidebrecht,F.H.Goetz.Derivation of scaled surface reflectance from AVIRIS data.Remote Sensing Environment,1993,44:165-178
13.刘良云.计算层析成像光谱技术的研究.博士论文.中国科学院西安光学精密机械研究所.2000
14.S.Geman,D.Geman.Stochastic relaxation,Gibbs distributions and the Bayesian restoration of images.IEEE Transactions on Pattern Analysis and Machine Intelligence,1984,6:721-741
15.V.Demarez,E.Mougin,G.Marty,et al.Seasonal variation of leaf chlorophyll content of a temperate forest inversion of the prospect model.International Journal of Remote Sensing,1999,20:879-894
16.D.J.Diner,J.V.Martonchik.Influence of aerosol scallering on atmospheric buming of surface features.IEEE Transactions on Geosciences and Remote Sensing,1985,23(5):618-624
17.M.A.Gilabert,S.Gandia,J.Melia.Analyses of spectral-biophysical relationships for a corn canopy.Remote Sensing of Environment,1996,55:11-20
18.C.Labaw.Airborne imaging spectrometer:an advanced concept instrument.Proc.SPIE,1983,Vol.430:68
19.W.M.Proter,et al.,A system overview of the Airborne Visible/Infrared Imaging Spectrometer(AVIRIS).Proc.SPIE,1987,Vol.834:22
20.S.K.Babey,et al.,Compact airborne spectrographic imager(casi):a progress review.Proc.SPIE,1993,Vol.1937:152
21.R.O.Green,et al.Airborne Visible/Infrared Imaging Spectrometer(AVIRIS):Recent improvements to the Sensor and Data Facility.Proc.SPIE,1993,Vol.1937:180
22.B.Braam.Design and first test results of the Finnish Airborne imaging spectrometer for different applications.Proc.SPIE,1993,Vol.1937:142
23.龚惠兴.德国的航天遥感.遥感技术与应用,1993,8(1)
24.L.J.Rickard,YDICE:An airborne system for hyperspectral imaging.Proc.SPIE,1993,Vol.1937:173
25.T.Cocks,R.Jenssen,A.Stewart,et al.The Hymap~(TM) airborne hyperspectral sensor:the system,calibration and performance.Proceeding of 1st Earsel Workshop on Imaging Spectroscopy,1998,5:37-45
26.http://www.earthsearch.com/index.php?sp=10
27.http://findarticles.com/p/articles/mi_m0EIN/is_1999_Dec_16/ai_58272244
28.A.F.H.Goetz,M.Herring.The high resolution imaging spectrometer(HIRIS)for EOS.IEEE Transactions on Geosciences and Remote Sensing,1989,Vol.27:136-144
29.C.D.Elvidge,Z.Chen,D.P.Groeneveld.Detection of trace quantities of green vegetation 1990 AVIRIS data.Remote Sensing of Environment,1993,44(2～3):271-279
30.http://modis.gsfc.nasa.gov/about/
31.W.L.Barnes,et al.Preliminary system concepts for MODIS:a moderate resolution imaging spectrometer for EOS.Proc.SPIE,1986,Vol.644:86
32.L.L.Thompson.Moderate resolution imaging spectrometer(MODIS) for the NASA earth observing system(EOS).Proc.SPIE,1990,Vol.1298:105
33.http://asterweb.jpl.nasa.gov/
34.M.J.Barnsley,J.J.Settle,M.A.Cutter.The PROBA/CHRIS mission:A low-cost small-sat for hyperspectral,multi-angle observations of the earth surface and atmosphere.IEEE Transactions on Geosciences and Remote Sensing,2004,42:1512-1520
35.http://earth.esa.int/missions/thirdpartymission/proba.html
36.http://envisat.esa.int/object/index.cfm?fobjectid=3762
37.http://www.eorc.jaxa.jp/en/hatoyama/satellite/sendata/gli_e.html
38.C.M.Zhang,B.Xiangli,B.C.Zhao.A static Polarization Imaging Spectrometer based on a Savart polariscope.Opt.Commun.,2002,203(1-2):21-25
39.C.M.Zhang,B.C.Zhao,B.Xiangli.Novel Wide Field of View Polarization Interference Imaging Spectrometer.Appl.Opt.,2004,43(33):6090-6094
40.张淳民.干涉成像光谱技术研究.博士论文.中国科学院西安光学精密机械研究所.2000
41.张淳民,杨建峰,袁新晶,等.偏振干涉成像光谱技术的新发展.光电子激光,2000,(5):444-448
42.张淳民,相里斌,赵葆常,等.干涉成像光谱仪技术的新发展.光学技术,2000,26(3):232-234
43.W.L.Wolfe.Introduction to imaging spectrometers.SPIE OPTICAL ENGINEERING PRESS.Bellingham,Washington USA.,1997
44.P.G.Lucey,K.Horton,et al.SMIFTS:A cryogenically-cooled spatially-Modulated imaging infrared interferometer spectrometer,SPIE,1993,Vol.1937:130
45.J.B.Rafert,R.G.Sellar,Eirik Holbert,et al.Hyperspectral imaging Fourier Transform Spectrometers for astronomical and remote sensing observations.SPIE,1994,Vol.2198:338
46.A.Villemaire,et al.,An Imaging Fourier Transform Spectrometer,SPIE,1995,Vol.2480:387
47.E.Holbert,et al.,Verification of the spectral performance model of an imaging Fourier Transform spectrometer,SPIE,1995,Vol.2480:398
48.J.Bruce Rafert,et al.,An interactive Performance model for spatially modulated Fourier transform spectrometers,SPIE,1995,VOI.2480:410
49.L.John Otten III,et al.,The design of an airborne Fourier Transform visible hyperspectral imaging system for light aircraft environmental remote sensing,SPIE,1995,Vol.2480:418
50.A.D.Meigs,et al.,Airborne visible hyperspectral imaging spectrometer:optical and system level description,SPIE,1995,Vol.2819:278
51.A.D.Meigs,et al.,Kestral's New FTVHSI Instrument for Hyperspectral Remote Sensing from Light Aircraft,SPIE,1996,Vol.2960:174
52.A.D.Meigs,et al.,LWIR and MWIR Ultraspectral Fourier Transform Imager, SPIE,1997,Vol.3221:421
53.T.Okamoto,S.Kawata,S.Minami,Fourier transform spectrometer with a self-scanning photodiode array,Appl.Opt.,1984,23(2):269
54.T.H.Barnes,Photodiode array Fourier transform spectrometer with improved dynamic range,Appl.Opt.,1985,24(22):3702
55.Marja-Leena Junttila,Stationary Fourier-transform spectrometer,Appl.Opt.,1992,31(21):4106
56.M.P.Dierking,M.A.Karim,Solid-block stationary Fourier-transform spectrometer,Appl.Opt.,1996,35(1):84
57.吴航行.傅里叶变换光谱仪技术进展概况.红外,2002,9:38-41
58.C.D.Elvidge,Z.Chen.Comparison of broad-band and narrow-band red and near-infrared vegetation indices.Remote Sensing of Environment,1995,54:38-48
59.W.H.Farrand,R.R.Singer,E.Merenyi.Retrival of apparent surface reflectance from AVIRIS data:a comparison of empirical line,radiative transfer,and spectral mixing methods.Remote Sensing Environment,1994,47:311-321
60.J.G.Giroux,M.A.Soucy,F.Chateauneuf,et al.Design of the atmospheric chemistry experiment instrument[A].SPIE[C],2000,4131:334-347
61.Akihiko Kuze,Hideaki Nakajima,Jun Tanii,et al.Conceptual design of solar occultation FTS for inclined-orbit satellite(SOFIS) on GCOM-Al[A].SPIE [C],2000,4131:305-314
62.http://remus.jpl.nasa.gov/atmos/detailed.instr.html
63.http://remus.jpl.nasa.gov/atmos/gif/ATMOS_OpticalLayout.pdf
64.D.Simeoni.New concept for a highly-compact imaging Fourier transform spectrometer(IFTS).SPIE,1993,Vol.1479:127
65.C.L.Bennett,et al.Imaging Fourier transform spectrometer.SPIE,1993,Vol.1937:191
66.M.R.Carter,et al.Gaseous effluent monitoring and identification using an imaging Fourier transform spectrometer.SPIE,1994,Vol.2092:16
67.C.L.Bennett,et al.Infrared Hyperspectral imaging results from Vapor Plume Experiments.SPIE,1996,Vol.2480:435
68.C.L.Bennett,et al.Hyperspectral imaging in the infrared using LIFTIRS.SPIE,1996,Vol.2883:267
69.J.J.Puschell,P.Tompkins.Imaging spectrometers for future earth observing system.SPIE,1997,Vol.3117:36
70.N.H.Macoy.On Fourier transform spectrometer optimal design consideration.SPIE,1999,Vol.3756:47
71.http://www.blockeng.com/ispec.htm
72.http://envisat.esa.int/instruments/mipas/
73.H.Nett,J.Frerick,T.Paulsen and G.Levrini.The Atmospheric Instruments and their applications:GOMOS,MIPAS and SCIAMACHY.ESA bulletin 106.June 2001.
74.http://sci.esa.int/science-e/www/object/index.cfm?fobjectid=33964&fbodylon gid=1441
75.V.Formisano,F.Angrilli,G.Arnold,et.The planetary fourier spectrometer (PFS) onboard the European Venus Express mission.Planetary and Space Science.2006,54:1298-1314
76.http://www.ace.uwaterloo.ca/instruments_acefts.html
77.http://www.ace.uwaterloo.ca/images/FTS_Optical_Layout.jpg
78.http://aura.gsfc.nasa.gov/instruments/tes.html
79.http://tes.jpl.nasa.gov/instrument/opticallayout/
80.http://smsc.cnes.fr/IASI/
81.http://www.ifsi-roma.inaf.it/vir/index.php?categoryid=8
1.吴瑾光等.近代傅里叶变换红外光谱技术及应用(上卷).北京:科学技术文献出版社,1994,1-50
2.金锡哲.干涉成像光谱仪技术研究.博士论文.中国科学院长春光学精密机械研究所.2000
3.陈立武.CE-1成像光谱仪工程化光学技术理论研究.博士论文.中国科学院西安光学精密机械研究所.2006
4.张知廉.傅里叶变换光谱.北京:北京大学出版社,1990,42-44
5.翁诗甫.傅里叶变换红外光谱仪.北京:化学工业出版社,2005,40-42
6.J.D.Ingle and S.R.Crouch,Spectrochemical Analysis,Prentice Hall,Englewood Cliffs,NJ,1988,P.71
7.R.J.Bell,Introductory Fourier Transform Spectroscopy,Academic Press,New York and London,1972
8.D.Chase,Phase Correction in FT-IR,Appl.Spectrosc.,1982,36(3):240-244
9.P.R.Griffiths and J.A.de Haseth,Fourier Transform Infrared Spectrometry,John Wiley & Sons,Inc.,Hoboken,New Jersey,2007
10. R. H. Norton and R. Beer, New apodizing functions for Fourier spectrometry, J. Opt. Soc. Am., 1976,66 (3): 259-264; errarum: 67 (1977), 419
11. J. K. Kauppinen, D. J. Moffatt, D. G. Cameron, et al., Noise in Fourier self-deconvolution,Appl. Opt., 1981,20(10): 1866-1879
12. L. Mertz, Auxiliary computation for Fourier spectrometry, Infrared Phys., 1967, 7 (1): 17-23
13. M. L. Forman, W. H. Steel and G A. Vanasse, Correction of Asymmetric Interferograms Obtained in Fourier Spectroscopy, J. Opt. Soc. Am., 1966, 56 (1): 59-63.
14. H. Sakai, G A. Vanasse and M. L. Forman, Spectral Recovery in Fourier Spectroscopy, J. Opt. Soc. Am., 1968,58 (1): 84-90.
15. T. Hirschfeld, Quantitative IR: a detailed look at the problems involved, in Fourier Transform Infrared Spectroscopy: Applications to Chemical Systems, J. R. Ferraro and L. J. Basile, Eds., Academic Press, New York, 1979, Vol. 2, p. 193.
16. A. S. Zachor and S. M. Aaronson, Delay compensation: its effect in reducing sampling errors in Fourier spectroscopy,Appl. Opt., 1979,18 (1): 68-75.
1.相里斌,杨建峰,高瞻,等.干涉光谱仪动镜倾斜误差容限分析.光子学报,1997,26(2):132-135
2.相里斌.傅里叶变换光谱仪中的主要技术环节.光子学报,1997,26(6):550-553
3.曾立波,尹邦胜,何冰,龚丹.傅里叶变换红外光谱仪动镜倾斜误差分析.光学精密工程,2006,14(2):191-196
4.尹邦胜,曾立波,雷俊锋,杨琨.光谱仪动镜倾斜误差分析及其动态校正技术研究.光学仪器,2006,28(1):74-79
5.吴航行,王模昌.傅里叶变换光谱仪信号调制度下降的分析.红外与毫米波学报,2004,23(5):337-340
6.陶然,相里斌,杜述松,等.高通量傅里叶变换成像光谱仪调制度分析.光子学报,2006,35(5):675-678
7.于立民,代作晓.傅里叶光谱仪动态校正技术研究.红外,2003,24(2):18-22
8.R.J.Bell,Introductory Fourier Transform Spectroscopy,Academic Press,New York,San Francisco,London,1972,141-145
9.D.L.Cohen,Performance degradation of a Michelson interferometer when its misalignment angle is a rapidly varying,random time series,Appl.Opt.,1997,36(18):4034-4042
10.相里斌,赵葆常,薛明球,等.干涉成像光谱仪动镜运动误差分析(Ⅰ)-平面动镜倾斜容限分析.光电子·激光,1997,8(3):195-198
11.G.W.Stroke,Photoelectric fringe signal information and range in interferometers with moving mirrors,J.Opt.Soc.Am.,1957,47(12):1097-103
12.高晓峰,崔燕,相里斌.转镜式光谱仪端反射镜误差容限分析.光子学报,2006,35(4):614-617
13.杨庆华,周仁魁,赵葆常.迈克尔逊干涉光谱仪动镜倾斜误差容限分析.光子学报,2009,38(3):677-680
14.A.H.Vaughan,Imaging Michelson spectrometer for Hubble space telescope.SPIE,1988,1036:2-14
15.R.Beer,D.Marjaniemi,Wavefronts and Construction Tolerances for a Cat's-Eye Retroreflector,Appl.Opt,1966,5(7):1191-1197
16.J.Connes and P.Connes,Near-Infrared Planetary Spectra by Fourier Spectroscopy.I.Instruments and Results,J.Opt.Soc.Am.,1966,56(7):896-910
17.J.J.Snyder,Paraxial ray analysis of a cat's-eye retroreflector.Appl.Opt,1975,14(8):1825-1828
18.G.Guelachvili,Near infrared wide-band spectroscopy with 27-MHz resolution,Appl.Opt.,1977,16(8):2097-2101
19.D.E.Jennings,R.Hubbard and J.W.Brault,Double passing the Kitt Peak 1-m Fourier transform spectrometer,Appl.Opt.,1985,24(21):3438-3440
20.G.Durry and G.Guelachvili,High-information time-resolved step-scan Fourier interferometer,Appl.Opt.,1995,34(12):1971-1981
21.R.L.Richardson and P.R.Griffiths,Design and performance considerations of cat's-eye retroreflectrors for use in open-path Fourier-transform-infrared spectrometry,Appl.Opt.,2002,41(30):6332-6340
22.杨庆华,周仁魁,赵葆常.猫眼动镜横移误差容限及次镜倾斜分析.光子学报,2009,38(5):1171-1175
23.E.R.Peck,Theory of the Corner-Cube Interferometer,J.Opt.Soc.Am.,1948,38(12):1015-1024
24.M.V.R.K.Murty,Some more aspects of the Michelson interferometer with cube corners,J.Opt.Soc.Am.,1960,50(1):7-10.
25.D.A.Thomas and J.C.Wyant,Determination of the dihedral angle errors of a corner cube from its Twyman-Green interferogram,J.Opt.Soc.Am.,1977,67(4):467-472.
26.R.L.White,Performance of an FT-IR with a Cube-Corner Interferometer,Appl.Spectrosc.,1985,39(2):320-326.
27.J.Kauppinen and V.M.Horneman,Large aperture cube corner interferometer with a resolution of 0.001 cm~(-1),Appl.Opt.,1991,30(18):2575-2578.
28.J.Kauppinen and P.Saarinen,Line-shape distortions in misaligned cube corner interferometers,Appl.Opt.,1992,31(1):69-74.
29.P.Haschberger and V.Tank,Optimization of a Michelson interferometer with a rotating retroreflector in optical design,spectral resolution,and optical throughput,J.Opt.Soc.Am.A.,1993,10(11):2338-2345.
30.相里斌,赵葆常,薛明球,等.干涉成像光谱仪动镜运动误差分析(Ⅱ)-角反射体或猫眼镜横移容限分析.光电子·激光,1997,8(3):199-201
31.杨建峰,相里斌,高瞻,等.傅里叶变换光谱仪中角反射体特性的研究.光子学报,1997,26(1):66-70
32.Pierre Connes and Guy Michel,Astronomical Fourier spectrometer,Appl.Opt.,1975,14(9):2067-2084
33.G.Guelachvili,Distortion free interferograms in Fourier transform spectroscopy with nonlinear detectors,Appl. Opt., 1986,25 (24): 4644-4648
34. J. Kauppinen, J. Heinonen and I. Kauppinen, Interferometers based on the rotational motion, Appl. Spectrosc. Rev., 2004,39 (1): 99-129
35. E. R. Peck and S. W. Obetz, Wavelength or length measurement by reversible fringe counting,J. Opt. Soc. Am. A., 1953,43 (6): 505-509
36. J. Kauppinen and V. -M. Horneman. High-performance cube corner interferometer with the optical path difference of eight meters. In International Conference on Fourier and Computerized Infrared Spectroscopy; J. G. Grasseli, D. G. Cameron, Eds.; SPIE-The International Society for Optical Engineering: Ottawa Ontario, Canada, 1985; 402. Vol. 553 of Proc. SPIE Carlton University.
37. Mattson Instruments, Inc., for example, the Cygnus 100 interferometer
38. Bomem, Inc., interferometers such as Models DA3-002, DA3-01, and DA3-02
39. P. R. Griffiths and J. A. de Haseth, Fourier Transform Infrared Spectrometry, John Wiley & Sons, Inc., Hoboken, New Jersey, 2007
40. A. Simon, J. Gast, A. Keens, Fourier Spectrometer, United States Patent 5309217,1994
41. J. Ukon, Multibeam Interferometer for use in a Fourier Transform Spectrometer and a Driving Device for Moving the Mirrors Used Therein, United States Patent 5159405,1992
42. J. Kauppinen and V. -M. Horneman, Dynamic Alignment system of a Michelson Interferometer, Rep, Series Turku-FTL-R174. Department of Physical Sciences. Turku, Finland, 1989
43. E. Kyro, J. Kauppinen, M. -L. Junttila, et al, Fourier transform wavemeter, Rev. Sci. Instrum., 1987, 58 (7): 1180-1184
44. J. Rasanen and J. Kauppinen. Mirror Arrangement in a Focusing Interferometer, United States Patent 5,459,572, 1992
45. P. Haschberger, V. Tank and F. Lanzl, Michelson interferometer with a rotating retroreflector: investigations on special features, Infrared Phys., 1991, 31 (4): 351-360
46. P. Haschberger, Impact of the sinusoidal drive on the instrument line shape function of a Michelson interferometer with rotating retroreflector,Appl.Spectrosc.,1994,48(3):307-315
47.http://pid.da.op.dlr.de/l_org-einheit/IMF-EV /Infrastruktur/Hardware/mirror/mirror_engl.html
48.N.H.Macoy,H.Broberg,et al.,Dynamic alignment design and assessment for scanning interferometers[C].SPIE,2832:126-154
49.T.Yanagisaa,T.Akiyama,et al.,Influence of vibrations on Fourier transform spectrometer[C].SPIE,3221:429-436
50.H.SHIMODA,T.OGAWA,Interferometric Monitor for Greenhouse Gases (IMG)[C].SPIE,3221:110-120
51.R.Stenzel,W.F.Bluhm,et al.,UV-VIS Fourier Transform Spectrometer with Automatic Adjustment[C].SPIE,1575:236-237
52.R.H.Haycock,B.Bartschi,H.Nguyen,Automatic alignment technique for cryogenically cooled interferometers[C].SPIE,364:30-35
53.H.Sakai,T.C.Li,et al.,Study of atmospheric infrared emission using a balloon-borne cryogenic Fourier spectrometer[C].SPIE,364:38-45
54.于立民.傅里叶变换光谱仪自适应校正系统的研究,红外,2001,12:1-11
55.于立民.傅里叶光谱仪动态校正技术的研究,红外,2003,2:18-23
56.于立民.相位检测法定镜自适应校正,光学精密工程,2003,10:18-23
57.孙方.星载傅里叶光谱仪动态校正技术研究,红外,2006,10:41-46
58.J.Kauppinen,Double-beam high resolution Fourier spectrometer for the far infrared,Appl.Opt.,1975,14(8):1987-1992
59.L.B.Scott,assigned to Perkin-Elmer Corporation,U.S.Patent 2,841,049,1958
60.W.H.Steel,On M(o|¨)bius-band interferometers,J.Mod.Opt.,1964,11(3):211-217
61.瑾光等.近代傅里叶变换红外光谱技术及应用(卷).北京:科学技术文献出版社,1994,61-78
62.J.P.Dybwad,Refractively Scanned Interferometer,U.S.Patent 4,654,530,1987
63.杨晓许.高速光谱成像技术研究.博士论文.中国科学院西安光学精密机械 研究所.2006
64.Perkin-Elmer company information:FTIR 1700 Series and 1800 Series recommend,1985
65.Perkin-Elmer Corp.,System 2000 Dynascan interferometer
66.V.Tank,et al,Rotating Mirror Interferometer,U.S.Patent 5,457,529,1995
67.P.R.Brierley,Interferometer Spectrometer Having Tiltable Reflector Assembly and Reflector Assembly Therefor,U.S.Patent 4,915,502,1990
68.J.K.Kauppinen,I.K.Salomaa and J.O.Partanen,Carousel interferometer,Appl.Opt.,1995,34(27):6081-6085
69.J.Kauppinen,Interferometer,U.S.Patent 6,075,598,2000
70.P.Griffiths,B.Hirsche and C.Manning,Ultra-rapid-scanning Fourier transform infrared spectroscopy,Vib.Spectrosc.,1999,19(1):165-176
71.V.Tank,H.Dietl,P.Haschberger and O.Mayer,Michelson Interferometer for producing optical path differences by rotating corner cube retroreflectors,U.S.Patent 5,148,235,1992
72.W.H.Steel,Interferometers for Fourier spectroscopy,in Aspen International Conference on Fourier Spectroscopy,1970,G.A.Vanasse,A.T.Stair,Jr.,and D.J.Baker,Eds.,U.S.Air Force,L.G.Hanscom Field,Bedford,MA,1971,Vol.AFCRL-71-0019,p.43
73.R.S.Jackson,Continuous-scanning interferometers for mid-infrared spectroscopy,in Handbook of Vibrational Spectroscopy,J.M.Chalmers and P.R.Griffiths,Eds.,Wiley,Chichester,West Sussex,England,2002,Vol.1,p.264.
74.翁诗甫.傅里叶变换红外光谱仪.北京:化学工业出版社,2005,73-78
75.Q.H.Yang,B.C.Zhao and R.K.Zhou,Novel moving cat's-eye-pair interferometer,J.Mod.Opt.,2009,in press
76.Q.H.Yang,R.K.Zhou and B.C.Zhao,Novel moving-corner-cube-pair interferometer,J.Opt.A:Pure Appl.Opt.,2009,11(1):015505.
1.Q.H.Yang,R.K.Zhou and B.C.Zhao,Principle of the moving-mirror-pair interferometer and the tilt tolerance of the double moving mirror,Appl.Opt.,2008,47(13):2486-2493.
2.Q.H.Yang,B.C.Zhao and R.K.Zhou,Novel moving cat's-eye-pair interferometer,J.Mod.Opt.,2009,in press
3.Q.H.Yang,R.K.Zhou and B.C.Zhao,Novel moving-corner-cube-pair interferometer,J.Opt.A:Pure Appl.Opt.,2009,11(1):015505.
1.A.S.Zachor,Drive nonlinearities:their effects in Fourier spectroscopy,Appl.Opt.,1977,16(5):1412-1424
2.A.S.Zachor and S.M.Aaronson,Delay compensation:its effect in reducing sampling errors in Fourier spectroscopy,Appl.Opt.,1979,18(1):68-75
3.D.L.Cohen,Performance Degradation of a Michelson Interferometer Due to Random Sampling Errors,Appl.Opt.,1999,38(1):139-151
4.L.Palchetti and D.Lastrucci,Spectral noise due to sampling errors in Fourier-transform spectroscopy,Appl.Opt.,2001,40(19):3235-3243
5.B.Saggin,L.Comolli and V.Formisano,Mechanical disturbances in Fourier spectrometers,Appl.Opt.,2007,46(22):5248-5256
6.T.Yoshimura,Y.Syoji and N.Wakabayashi,Absolute velocity control of a M(o|¨)ssbauer spectrometer by utilizing a laser interferometer,J.Phys.E:Sci Instrum.,1977,10(2):829-833
7.J.Kauppinen and V.-M.Horneman,Dynamic Alignment system of a Michelson Interferometer,Rep,Series Turku-FTL-R174.Department of Physical Sciences.Turku,Finland,1989
8.N.H.Macoy,H.Broberg,et al.,Dynamic alignment design and assessment for scanning interferometers[C].SPIE,2832:126-154
9.T.Yanagisaa,T.Akiyama,et al.,Influence of vibrations on Fourier transform spectrometer[C].SPIE,3221:429-436
10.H.SHIMODA,T.OGAWA,Interferometric Monitor for Greenhouse Gases (IMG)[C].SPIE,3221:110-120
11.R.Stenzel,W.F.Bluhm,et al.,UV-VIS Fourier Transform Spectrometer with Automatic Adjustment[C].SPIE,1575:236-237
12.R.H.Haycock,B.Bartschi,H.Nguyen,Automatic alignment technique for cryogenically cooled interferometers[C].SPIE,364:30-35
13.H.Sakai,T.C.Li,et al.,Study of atmospheric infrared emission using a balloon-borne cryogenic Fourier spectrometer[C].SPIE,364:38-45
14.Bomem,Inc.,interferometers such as Models DA3-002,DA3-01,and DA3-02
15.于立民.傅里叶变换光谱仪自适应校正系统的研究,红外,2001,12:1-11
16.于立民.傅里叶光谱仪动态校正技术的研究,红外,2003,2:18-23
17.于立民.相位检测法定镜自适应校正,光学精密工程,2003,10:18-23
18.孙方.星载傅里叶光谱仪动态校正技术研究,红外,2006,10:41-46
19.Q.H.Yang,R.K.Zhou and B.C.Zhao,Principle and analysis of the moving-optical-wedge,Appl.Opt.,2008,47(13):2186-2191
1.P.Jacquinot,How the search for a throughput advantage led to Fourier transform spectroscopy,Infrared.Phys.,1984,24(2-3):99-101
2.E.R.Peck and S.W.Obetz,Wavelength or length measurement by reversible fringe counting,J.Opt.Soc.Am.,1953,43(6):505-509
3.G.Guelachvili,Near infrared wide-band spectroscopy with 27-MHz resolution,Appl.Opt.,1977,16(8):2097-2101
4.G.Guelachvili,Distortion free interferograms in Fourier transform spectroscopy with nonlinear detectors,Appl.Opt.,1986,25(24):4644-4648
5.G.Durry and G.Guelachvili,High-information time-resolved step-scan Fourier interferometer,Appl.Opt.,1995,34(12):1971-1981
6.B.Chen,X.Cheng and D.Li,Dual-wavelength interferometric technique with subnanometric resolution,Appl.Opt.,2002,41(28):5933-5937
2.童庆禧,张兵,郑兰芬.高光谱遥感—原理技术与应用.北京:高等教育出版社,2006
3.金锡哲.干涉成像光谱仪技术研究.博士论文.中国科学院长春光学精密机械研究所.2000
4.陈立武.CE-1成像光谱仪工程化光学技术理论研究.博士论文.中国科学院西安光学精密机械研究所.2006
5.A.F.H.Goet,et al.Imaging spectrometry for remote sensing:vision to reality in 15 years.SPIE,1995,Vol.2480:2
6.A.N.Drake,S.Mackin,J.J.Settle.Mapping vegetation,soils and geology in semiarid shrublands using spectral matching and mixture modeling of SWIR AVIRIS imagery.Remote Sensing Environment,1999,68:12-25
7.P.S.Fouche,E.J.Botha,O.A.Ogunnaike.Monitoring nitrogen response on wheat using airborne multi-spectral imaging.21st Canadian symposium on remote sensing,Ottawa,Canada,1999,Ⅱ:312-320
8.R.S.Fraser,Y.F.Kaufman.The relative important of aerosol scattering and absorption in remote sensing.IEEE Transactions on Geosciences and Remote Sensing,1985,23(5):625-633
9.K.Fukunaga,W.L.G.Koontz.Application of the Karbunen Loeve expansion to feature selection and ordering.IEEE Transactions on Computer,1970,C-19(4):311-318
10.L.R.Gaddis,J.S.Tyo,A.Konsolukis,et al.Decomposition of AVIRIS spectral extraction of surface-reflectance,atmospheric,and instrumental components.IEEE Transactions on Geosciences and Remote Sensing,1996,34(1):21-28
11.B.C.Gao,F.H.Goetz.Column atmospheric water vapor and vegetation liquid water retrieval from airborne imaging spectrometer data.Journal of Geophysical Research,1990,95(D4):3549-3563
12.B.C.Gao,K.B.Heidebrecht,F.H.Goetz.Derivation of scaled surface reflectance from AVIRIS data.Remote Sensing Environment,1993,44:165-178
13.刘良云.计算层析成像光谱技术的研究.博士论文.中国科学院西安光学精密机械研究所.2000
14.S.Geman,D.Geman.Stochastic relaxation,Gibbs distributions and the Bayesian restoration of images.IEEE Transactions on Pattern Analysis and Machine Intelligence,1984,6:721-741
15.V.Demarez,E.Mougin,G.Marty,et al.Seasonal variation of leaf chlorophyll content of a temperate forest inversion of the prospect model.International Journal of Remote Sensing,1999,20:879-894
16.D.J.Diner,J.V.Martonchik.Influence of aerosol scallering on atmospheric buming of surface features.IEEE Transactions on Geosciences and Remote Sensing,1985,23(5):618-624
17.M.A.Gilabert,S.Gandia,J.Melia.Analyses of spectral-biophysical relationships for a corn canopy.Remote Sensing of Environment,1996,55:11-20
18.C.Labaw.Airborne imaging spectrometer:an advanced concept instrument.Proc.SPIE,1983,Vol.430:68
19.W.M.Proter,et al.,A system overview of the Airborne Visible/Infrared Imaging Spectrometer(AVIRIS).Proc.SPIE,1987,Vol.834:22
20.S.K.Babey,et al.,Compact airborne spectrographic imager(casi):a progress review.Proc.SPIE,1993,Vol.1937:152
21.R.O.Green,et al.Airborne Visible/Infrared Imaging Spectrometer(AVIRIS):Recent improvements to the Sensor and Data Facility.Proc.SPIE,1993,Vol.1937:180
22.B.Braam.Design and first test results of the Finnish Airborne imaging spectrometer for different applications.Proc.SPIE,1993,Vol.1937:142
23.龚惠兴.德国的航天遥感.遥感技术与应用,1993,8(1)
24.L.J.Rickard,YDICE:An airborne system for hyperspectral imaging.Proc.SPIE,1993,Vol.1937:173
25.T.Cocks,R.Jenssen,A.Stewart,et al.The Hymap~(TM) airborne hyperspectral sensor:the system,calibration and performance.Proceeding of 1st Earsel Workshop on Imaging Spectroscopy,1998,5:37-45
26.http://www.earthsearch.com/index.php?sp=10
27.http://findarticles.com/p/articles/mi_m0EIN/is_1999_Dec_16/ai_58272244
28.A.F.H.Goetz,M.Herring.The high resolution imaging spectrometer(HIRIS)for EOS.IEEE Transactions on Geosciences and Remote Sensing,1989,Vol.27:136-144
29.C.D.Elvidge,Z.Chen,D.P.Groeneveld.Detection of trace quantities of green vegetation 1990 AVIRIS data.Remote Sensing of Environment,1993,44(2～3):271-279
30.http://modis.gsfc.nasa.gov/about/
31.W.L.Barnes,et al.Preliminary system concepts for MODIS:a moderate resolution imaging spectrometer for EOS.Proc.SPIE,1986,Vol.644:86
32.L.L.Thompson.Moderate resolution imaging spectrometer(MODIS) for the NASA earth observing system(EOS).Proc.SPIE,1990,Vol.1298:105
33.http://asterweb.jpl.nasa.gov/
34.M.J.Barnsley,J.J.Settle,M.A.Cutter.The PROBA/CHRIS mission:A low-cost small-sat for hyperspectral,multi-angle observations of the earth surface and atmosphere.IEEE Transactions on Geosciences and Remote Sensing,2004,42:1512-1520
35.http://earth.esa.int/missions/thirdpartymission/proba.html
36.http://envisat.esa.int/object/index.cfm?fobjectid=3762
37.http://www.eorc.jaxa.jp/en/hatoyama/satellite/sendata/gli_e.html
38.C.M.Zhang,B.Xiangli,B.C.Zhao.A static Polarization Imaging Spectrometer based on a Savart polariscope.Opt.Commun.,2002,203(1-2):21-25
39.C.M.Zhang,B.C.Zhao,B.Xiangli.Novel Wide Field of View Polarization Interference Imaging Spectrometer.Appl.Opt.,2004,43(33):6090-6094
40.张淳民.干涉成像光谱技术研究.博士论文.中国科学院西安光学精密机械研究所.2000
41.张淳民,杨建峰,袁新晶,等.偏振干涉成像光谱技术的新发展.光电子激光,2000,(5):444-448
42.张淳民,相里斌,赵葆常,等.干涉成像光谱仪技术的新发展.光学技术,2000,26(3):232-234
43.W.L.Wolfe.Introduction to imaging spectrometers.SPIE OPTICAL ENGINEERING PRESS.Bellingham,Washington USA.,1997
44.P.G.Lucey,K.Horton,et al.SMIFTS:A cryogenically-cooled spatially-Modulated imaging infrared interferometer spectrometer,SPIE,1993,Vol.1937:130
45.J.B.Rafert,R.G.Sellar,Eirik Holbert,et al.Hyperspectral imaging Fourier Transform Spectrometers for astronomical and remote sensing observations.SPIE,1994,Vol.2198:338
46.A.Villemaire,et al.,An Imaging Fourier Transform Spectrometer,SPIE,1995,Vol.2480:387
47.E.Holbert,et al.,Verification of the spectral performance model of an imaging Fourier Transform spectrometer,SPIE,1995,Vol.2480:398
48.J.Bruce Rafert,et al.,An interactive Performance model for spatially modulated Fourier transform spectrometers,SPIE,1995,VOI.2480:410
49.L.John Otten III,et al.,The design of an airborne Fourier Transform visible hyperspectral imaging system for light aircraft environmental remote sensing,SPIE,1995,Vol.2480:418
50.A.D.Meigs,et al.,Airborne visible hyperspectral imaging spectrometer:optical and system level description,SPIE,1995,Vol.2819:278
51.A.D.Meigs,et al.,Kestral's New FTVHSI Instrument for Hyperspectral Remote Sensing from Light Aircraft,SPIE,1996,Vol.2960:174
52.A.D.Meigs,et al.,LWIR and MWIR Ultraspectral Fourier Transform Imager, SPIE,1997,Vol.3221:421
53.T.Okamoto,S.Kawata,S.Minami,Fourier transform spectrometer with a self-scanning photodiode array,Appl.Opt.,1984,23(2):269
54.T.H.Barnes,Photodiode array Fourier transform spectrometer with improved dynamic range,Appl.Opt.,1985,24(22):3702
55.Marja-Leena Junttila,Stationary Fourier-transform spectrometer,Appl.Opt.,1992,31(21):4106
56.M.P.Dierking,M.A.Karim,Solid-block stationary Fourier-transform spectrometer,Appl.Opt.,1996,35(1):84
57.吴航行.傅里叶变换光谱仪技术进展概况.红外,2002,9:38-41
58.C.D.Elvidge,Z.Chen.Comparison of broad-band and narrow-band red and near-infrared vegetation indices.Remote Sensing of Environment,1995,54:38-48
59.W.H.Farrand,R.R.Singer,E.Merenyi.Retrival of apparent surface reflectance from AVIRIS data:a comparison of empirical line,radiative transfer,and spectral mixing methods.Remote Sensing Environment,1994,47:311-321
60.J.G.Giroux,M.A.Soucy,F.Chateauneuf,et al.Design of the atmospheric chemistry experiment instrument[A].SPIE[C],2000,4131:334-347
61.Akihiko Kuze,Hideaki Nakajima,Jun Tanii,et al.Conceptual design of solar occultation FTS for inclined-orbit satellite(SOFIS) on GCOM-Al[A].SPIE [C],2000,4131:305-314
62.http://remus.jpl.nasa.gov/atmos/detailed.instr.html
63.http://remus.jpl.nasa.gov/atmos/gif/ATMOS_OpticalLayout.pdf
64.D.Simeoni.New concept for a highly-compact imaging Fourier transform spectrometer(IFTS).SPIE,1993,Vol.1479:127
65.C.L.Bennett,et al.Imaging Fourier transform spectrometer.SPIE,1993,Vol.1937:191
66.M.R.Carter,et al.Gaseous effluent monitoring and identification using an imaging Fourier transform spectrometer.SPIE,1994,Vol.2092:16
67.C.L.Bennett,et al.Infrared Hyperspectral imaging results from Vapor Plume Experiments.SPIE,1996,Vol.2480:435
68.C.L.Bennett,et al.Hyperspectral imaging in the infrared using LIFTIRS.SPIE,1996,Vol.2883:267
69.J.J.Puschell,P.Tompkins.Imaging spectrometers for future earth observing system.SPIE,1997,Vol.3117:36
70.N.H.Macoy.On Fourier transform spectrometer optimal design consideration.SPIE,1999,Vol.3756:47
71.http://www.blockeng.com/ispec.htm
72.http://envisat.esa.int/instruments/mipas/
73.H.Nett,J.Frerick,T.Paulsen and G.Levrini.The Atmospheric Instruments and their applications:GOMOS,MIPAS and SCIAMACHY.ESA bulletin 106.June 2001.
74.http://sci.esa.int/science-e/www/object/index.cfm?fobjectid=33964&fbodylon gid=1441
75.V.Formisano,F.Angrilli,G.Arnold,et.The planetary fourier spectrometer (PFS) onboard the European Venus Express mission.Planetary and Space Science.2006,54:1298-1314
76.http://www.ace.uwaterloo.ca/instruments_acefts.html
77.http://www.ace.uwaterloo.ca/images/FTS_Optical_Layout.jpg
78.http://aura.gsfc.nasa.gov/instruments/tes.html
79.http://tes.jpl.nasa.gov/instrument/opticallayout/
80.http://smsc.cnes.fr/IASI/
81.http://www.ifsi-roma.inaf.it/vir/index.php?categoryid=8
1.吴瑾光等.近代傅里叶变换红外光谱技术及应用(上卷).北京:科学技术文献出版社,1994,1-50
2.金锡哲.干涉成像光谱仪技术研究.博士论文.中国科学院长春光学精密机械研究所.2000
3.陈立武.CE-1成像光谱仪工程化光学技术理论研究.博士论文.中国科学院西安光学精密机械研究所.2006
4.张知廉.傅里叶变换光谱.北京:北京大学出版社,1990,42-44
5.翁诗甫.傅里叶变换红外光谱仪.北京:化学工业出版社,2005,40-42
6.J.D.Ingle and S.R.Crouch,Spectrochemical Analysis,Prentice Hall,Englewood Cliffs,NJ,1988,P.71
7.R.J.Bell,Introductory Fourier Transform Spectroscopy,Academic Press,New York and London,1972
8.D.Chase,Phase Correction in FT-IR,Appl.Spectrosc.,1982,36(3):240-244
9.P.R.Griffiths and J.A.de Haseth,Fourier Transform Infrared Spectrometry,John Wiley & Sons,Inc.,Hoboken,New Jersey,2007
10. R. H. Norton and R. Beer, New apodizing functions for Fourier spectrometry, J. Opt. Soc. Am., 1976,66 (3): 259-264; errarum: 67 (1977), 419
11. J. K. Kauppinen, D. J. Moffatt, D. G. Cameron, et al., Noise in Fourier self-deconvolution,Appl. Opt., 1981,20(10): 1866-1879
12. L. Mertz, Auxiliary computation for Fourier spectrometry, Infrared Phys., 1967, 7 (1): 17-23
13. M. L. Forman, W. H. Steel and G A. Vanasse, Correction of Asymmetric Interferograms Obtained in Fourier Spectroscopy, J. Opt. Soc. Am., 1966, 56 (1): 59-63.
14. H. Sakai, G A. Vanasse and M. L. Forman, Spectral Recovery in Fourier Spectroscopy, J. Opt. Soc. Am., 1968,58 (1): 84-90.
15. T. Hirschfeld, Quantitative IR: a detailed look at the problems involved, in Fourier Transform Infrared Spectroscopy: Applications to Chemical Systems, J. R. Ferraro and L. J. Basile, Eds., Academic Press, New York, 1979, Vol. 2, p. 193.
16. A. S. Zachor and S. M. Aaronson, Delay compensation: its effect in reducing sampling errors in Fourier spectroscopy,Appl. Opt., 1979,18 (1): 68-75.
1.相里斌,杨建峰,高瞻,等.干涉光谱仪动镜倾斜误差容限分析.光子学报,1997,26(2):132-135
2.相里斌.傅里叶变换光谱仪中的主要技术环节.光子学报,1997,26(6):550-553
3.曾立波,尹邦胜,何冰,龚丹.傅里叶变换红外光谱仪动镜倾斜误差分析.光学精密工程,2006,14(2):191-196
4.尹邦胜,曾立波,雷俊锋,杨琨.光谱仪动镜倾斜误差分析及其动态校正技术研究.光学仪器,2006,28(1):74-79
5.吴航行,王模昌.傅里叶变换光谱仪信号调制度下降的分析.红外与毫米波学报,2004,23(5):337-340
6.陶然,相里斌,杜述松,等.高通量傅里叶变换成像光谱仪调制度分析.光子学报,2006,35(5):675-678
7.于立民,代作晓.傅里叶光谱仪动态校正技术研究.红外,2003,24(2):18-22
8.R.J.Bell,Introductory Fourier Transform Spectroscopy,Academic Press,New York,San Francisco,London,1972,141-145
9.D.L.Cohen,Performance degradation of a Michelson interferometer when its misalignment angle is a rapidly varying,random time series,Appl.Opt.,1997,36(18):4034-4042
10.相里斌,赵葆常,薛明球,等.干涉成像光谱仪动镜运动误差分析(Ⅰ)-平面动镜倾斜容限分析.光电子·激光,1997,8(3):195-198
11.G.W.Stroke,Photoelectric fringe signal information and range in interferometers with moving mirrors,J.Opt.Soc.Am.,1957,47(12):1097-103
12.高晓峰,崔燕,相里斌.转镜式光谱仪端反射镜误差容限分析.光子学报,2006,35(4):614-617
13.杨庆华,周仁魁,赵葆常.迈克尔逊干涉光谱仪动镜倾斜误差容限分析.光子学报,2009,38(3):677-680
14.A.H.Vaughan,Imaging Michelson spectrometer for Hubble space telescope.SPIE,1988,1036:2-14
15.R.Beer,D.Marjaniemi,Wavefronts and Construction Tolerances for a Cat's-Eye Retroreflector,Appl.Opt,1966,5(7):1191-1197
16.J.Connes and P.Connes,Near-Infrared Planetary Spectra by Fourier Spectroscopy.I.Instruments and Results,J.Opt.Soc.Am.,1966,56(7):896-910
17.J.J.Snyder,Paraxial ray analysis of a cat's-eye retroreflector.Appl.Opt,1975,14(8):1825-1828
18.G.Guelachvili,Near infrared wide-band spectroscopy with 27-MHz resolution,Appl.Opt.,1977,16(8):2097-2101
19.D.E.Jennings,R.Hubbard and J.W.Brault,Double passing the Kitt Peak 1-m Fourier transform spectrometer,Appl.Opt.,1985,24(21):3438-3440
20.G.Durry and G.Guelachvili,High-information time-resolved step-scan Fourier interferometer,Appl.Opt.,1995,34(12):1971-1981
21.R.L.Richardson and P.R.Griffiths,Design and performance considerations of cat's-eye retroreflectrors for use in open-path Fourier-transform-infrared spectrometry,Appl.Opt.,2002,41(30):6332-6340
22.杨庆华,周仁魁,赵葆常.猫眼动镜横移误差容限及次镜倾斜分析.光子学报,2009,38(5):1171-1175
23.E.R.Peck,Theory of the Corner-Cube Interferometer,J.Opt.Soc.Am.,1948,38(12):1015-1024
24.M.V.R.K.Murty,Some more aspects of the Michelson interferometer with cube corners,J.Opt.Soc.Am.,1960,50(1):7-10.
25.D.A.Thomas and J.C.Wyant,Determination of the dihedral angle errors of a corner cube from its Twyman-Green interferogram,J.Opt.Soc.Am.,1977,67(4):467-472.
26.R.L.White,Performance of an FT-IR with a Cube-Corner Interferometer,Appl.Spectrosc.,1985,39(2):320-326.
27.J.Kauppinen and V.M.Horneman,Large aperture cube corner interferometer with a resolution of 0.001 cm~(-1),Appl.Opt.,1991,30(18):2575-2578.
28.J.Kauppinen and P.Saarinen,Line-shape distortions in misaligned cube corner interferometers,Appl.Opt.,1992,31(1):69-74.
29.P.Haschberger and V.Tank,Optimization of a Michelson interferometer with a rotating retroreflector in optical design,spectral resolution,and optical throughput,J.Opt.Soc.Am.A.,1993,10(11):2338-2345.
30.相里斌,赵葆常,薛明球,等.干涉成像光谱仪动镜运动误差分析(Ⅱ)-角反射体或猫眼镜横移容限分析.光电子·激光,1997,8(3):199-201
31.杨建峰,相里斌,高瞻,等.傅里叶变换光谱仪中角反射体特性的研究.光子学报,1997,26(1):66-70
32.Pierre Connes and Guy Michel,Astronomical Fourier spectrometer,Appl.Opt.,1975,14(9):2067-2084
33.G.Guelachvili,Distortion free interferograms in Fourier transform spectroscopy with nonlinear detectors,Appl. Opt., 1986,25 (24): 4644-4648
34. J. Kauppinen, J. Heinonen and I. Kauppinen, Interferometers based on the rotational motion, Appl. Spectrosc. Rev., 2004,39 (1): 99-129
35. E. R. Peck and S. W. Obetz, Wavelength or length measurement by reversible fringe counting,J. Opt. Soc. Am. A., 1953,43 (6): 505-509
36. J. Kauppinen and V. -M. Horneman. High-performance cube corner interferometer with the optical path difference of eight meters. In International Conference on Fourier and Computerized Infrared Spectroscopy; J. G. Grasseli, D. G. Cameron, Eds.; SPIE-The International Society for Optical Engineering: Ottawa Ontario, Canada, 1985; 402. Vol. 553 of Proc. SPIE Carlton University.
37. Mattson Instruments, Inc., for example, the Cygnus 100 interferometer
38. Bomem, Inc., interferometers such as Models DA3-002, DA3-01, and DA3-02
39. P. R. Griffiths and J. A. de Haseth, Fourier Transform Infrared Spectrometry, John Wiley & Sons, Inc., Hoboken, New Jersey, 2007
40. A. Simon, J. Gast, A. Keens, Fourier Spectrometer, United States Patent 5309217,1994
41. J. Ukon, Multibeam Interferometer for use in a Fourier Transform Spectrometer and a Driving Device for Moving the Mirrors Used Therein, United States Patent 5159405,1992
42. J. Kauppinen and V. -M. Horneman, Dynamic Alignment system of a Michelson Interferometer, Rep, Series Turku-FTL-R174. Department of Physical Sciences. Turku, Finland, 1989
43. E. Kyro, J. Kauppinen, M. -L. Junttila, et al, Fourier transform wavemeter, Rev. Sci. Instrum., 1987, 58 (7): 1180-1184
44. J. Rasanen and J. Kauppinen. Mirror Arrangement in a Focusing Interferometer, United States Patent 5,459,572, 1992
45. P. Haschberger, V. Tank and F. Lanzl, Michelson interferometer with a rotating retroreflector: investigations on special features, Infrared Phys., 1991, 31 (4): 351-360
46. P. Haschberger, Impact of the sinusoidal drive on the instrument line shape function of a Michelson interferometer with rotating retroreflector,Appl.Spectrosc.,1994,48(3):307-315
47.http://pid.da.op.dlr.de/l_org-einheit/IMF-EV /Infrastruktur/Hardware/mirror/mirror_engl.html
48.N.H.Macoy,H.Broberg,et al.,Dynamic alignment design and assessment for scanning interferometers[C].SPIE,2832:126-154
49.T.Yanagisaa,T.Akiyama,et al.,Influence of vibrations on Fourier transform spectrometer[C].SPIE,3221:429-436
50.H.SHIMODA,T.OGAWA,Interferometric Monitor for Greenhouse Gases (IMG)[C].SPIE,3221:110-120
51.R.Stenzel,W.F.Bluhm,et al.,UV-VIS Fourier Transform Spectrometer with Automatic Adjustment[C].SPIE,1575:236-237
52.R.H.Haycock,B.Bartschi,H.Nguyen,Automatic alignment technique for cryogenically cooled interferometers[C].SPIE,364:30-35
53.H.Sakai,T.C.Li,et al.,Study of atmospheric infrared emission using a balloon-borne cryogenic Fourier spectrometer[C].SPIE,364:38-45
54.于立民.傅里叶变换光谱仪自适应校正系统的研究,红外,2001,12:1-11
55.于立民.傅里叶光谱仪动态校正技术的研究,红外,2003,2:18-23
56.于立民.相位检测法定镜自适应校正,光学精密工程,2003,10:18-23
57.孙方.星载傅里叶光谱仪动态校正技术研究,红外,2006,10:41-46
58.J.Kauppinen,Double-beam high resolution Fourier spectrometer for the far infrared,Appl.Opt.,1975,14(8):1987-1992
59.L.B.Scott,assigned to Perkin-Elmer Corporation,U.S.Patent 2,841,049,1958
60.W.H.Steel,On M(o|¨)bius-band interferometers,J.Mod.Opt.,1964,11(3):211-217
61.瑾光等.近代傅里叶变换红外光谱技术及应用(卷).北京:科学技术文献出版社,1994,61-78
62.J.P.Dybwad,Refractively Scanned Interferometer,U.S.Patent 4,654,530,1987
63.杨晓许.高速光谱成像技术研究.博士论文.中国科学院西安光学精密机械 研究所.2006
64.Perkin-Elmer company information:FTIR 1700 Series and 1800 Series recommend,1985
65.Perkin-Elmer Corp.,System 2000 Dynascan interferometer
66.V.Tank,et al,Rotating Mirror Interferometer,U.S.Patent 5,457,529,1995
67.P.R.Brierley,Interferometer Spectrometer Having Tiltable Reflector Assembly and Reflector Assembly Therefor,U.S.Patent 4,915,502,1990
68.J.K.Kauppinen,I.K.Salomaa and J.O.Partanen,Carousel interferometer,Appl.Opt.,1995,34(27):6081-6085
69.J.Kauppinen,Interferometer,U.S.Patent 6,075,598,2000
70.P.Griffiths,B.Hirsche and C.Manning,Ultra-rapid-scanning Fourier transform infrared spectroscopy,Vib.Spectrosc.,1999,19(1):165-176
71.V.Tank,H.Dietl,P.Haschberger and O.Mayer,Michelson Interferometer for producing optical path differences by rotating corner cube retroreflectors,U.S.Patent 5,148,235,1992
72.W.H.Steel,Interferometers for Fourier spectroscopy,in Aspen International Conference on Fourier Spectroscopy,1970,G.A.Vanasse,A.T.Stair,Jr.,and D.J.Baker,Eds.,U.S.Air Force,L.G.Hanscom Field,Bedford,MA,1971,Vol.AFCRL-71-0019,p.43
73.R.S.Jackson,Continuous-scanning interferometers for mid-infrared spectroscopy,in Handbook of Vibrational Spectroscopy,J.M.Chalmers and P.R.Griffiths,Eds.,Wiley,Chichester,West Sussex,England,2002,Vol.1,p.264.
74.翁诗甫.傅里叶变换红外光谱仪.北京:化学工业出版社,2005,73-78
75.Q.H.Yang,B.C.Zhao and R.K.Zhou,Novel moving cat's-eye-pair interferometer,J.Mod.Opt.,2009,in press
76.Q.H.Yang,R.K.Zhou and B.C.Zhao,Novel moving-corner-cube-pair interferometer,J.Opt.A:Pure Appl.Opt.,2009,11(1):015505.
1.Q.H.Yang,R.K.Zhou and B.C.Zhao,Principle of the moving-mirror-pair interferometer and the tilt tolerance of the double moving mirror,Appl.Opt.,2008,47(13):2486-2493.
2.Q.H.Yang,B.C.Zhao and R.K.Zhou,Novel moving cat's-eye-pair interferometer,J.Mod.Opt.,2009,in press
3.Q.H.Yang,R.K.Zhou and B.C.Zhao,Novel moving-corner-cube-pair interferometer,J.Opt.A:Pure Appl.Opt.,2009,11(1):015505.
1.A.S.Zachor,Drive nonlinearities:their effects in Fourier spectroscopy,Appl.Opt.,1977,16(5):1412-1424
2.A.S.Zachor and S.M.Aaronson,Delay compensation:its effect in reducing sampling errors in Fourier spectroscopy,Appl.Opt.,1979,18(1):68-75
3.D.L.Cohen,Performance Degradation of a Michelson Interferometer Due to Random Sampling Errors,Appl.Opt.,1999,38(1):139-151
4.L.Palchetti and D.Lastrucci,Spectral noise due to sampling errors in Fourier-transform spectroscopy,Appl.Opt.,2001,40(19):3235-3243
5.B.Saggin,L.Comolli and V.Formisano,Mechanical disturbances in Fourier spectrometers,Appl.Opt.,2007,46(22):5248-5256
6.T.Yoshimura,Y.Syoji and N.Wakabayashi,Absolute velocity control of a M(o|¨)ssbauer spectrometer by utilizing a laser interferometer,J.Phys.E:Sci Instrum.,1977,10(2):829-833
7.J.Kauppinen and V.-M.Horneman,Dynamic Alignment system of a Michelson Interferometer,Rep,Series Turku-FTL-R174.Department of Physical Sciences.Turku,Finland,1989
8.N.H.Macoy,H.Broberg,et al.,Dynamic alignment design and assessment for scanning interferometers[C].SPIE,2832:126-154
9.T.Yanagisaa,T.Akiyama,et al.,Influence of vibrations on Fourier transform spectrometer[C].SPIE,3221:429-436
10.H.SHIMODA,T.OGAWA,Interferometric Monitor for Greenhouse Gases (IMG)[C].SPIE,3221:110-120
11.R.Stenzel,W.F.Bluhm,et al.,UV-VIS Fourier Transform Spectrometer with Automatic Adjustment[C].SPIE,1575:236-237
12.R.H.Haycock,B.Bartschi,H.Nguyen,Automatic alignment technique for cryogenically cooled interferometers[C].SPIE,364:30-35
13.H.Sakai,T.C.Li,et al.,Study of atmospheric infrared emission using a balloon-borne cryogenic Fourier spectrometer[C].SPIE,364:38-45
14.Bomem,Inc.,interferometers such as Models DA3-002,DA3-01,and DA3-02
15.于立民.傅里叶变换光谱仪自适应校正系统的研究,红外,2001,12:1-11
16.于立民.傅里叶光谱仪动态校正技术的研究,红外,2003,2:18-23
17.于立民.相位检测法定镜自适应校正,光学精密工程,2003,10:18-23
18.孙方.星载傅里叶光谱仪动态校正技术研究,红外,2006,10:41-46
19.Q.H.Yang,R.K.Zhou and B.C.Zhao,Principle and analysis of the moving-optical-wedge,Appl.Opt.,2008,47(13):2186-2191
1.P.Jacquinot,How the search for a throughput advantage led to Fourier transform spectroscopy,Infrared.Phys.,1984,24(2-3):99-101
2.E.R.Peck and S.W.Obetz,Wavelength or length measurement by reversible fringe counting,J.Opt.Soc.Am.,1953,43(6):505-509
3.G.Guelachvili,Near infrared wide-band spectroscopy with 27-MHz resolution,Appl.Opt.,1977,16(8):2097-2101
4.G.Guelachvili,Distortion free interferograms in Fourier transform spectroscopy with nonlinear detectors,Appl.Opt.,1986,25(24):4644-4648
5.G.Durry and G.Guelachvili,High-information time-resolved step-scan Fourier interferometer,Appl.Opt.,1995,34(12):1971-1981
6.B.Chen,X.Cheng and D.Li,Dual-wavelength interferometric technique with subnanometric resolution,Appl.Opt.,2002,41(28):5933-5937