The HITRAN 2008 molecular spectroscopic database

Journal of Quantitative Spectroscopy and Radiative Transfer

Volumn 110, Issue 9-10, 2009, Pages 533-572

  Rothman, L S ^a   Gordon, I E ^a   Barbe, A ^b   Benner, D Chris ^c   Bernath, P F ^d   Birk, M ^e   Boudon, V ^f   Brown, L R ^g   Campargue, A ^h   Champion, J P ^f   Chance, K ^a   Coudert, L H ⁱ   Dana, V ^j   Devi, V M ^c   Fally, S ^k   Flaud, J M ⁱ   Gamache, R R ^l   Goldman, A ^m   Jacquemart, D ^j   Kleiner, I ⁱ   Lacome, N ^j   Lafferty, W J ⁿ   Mandin, J Y ^j   Massie, S T ^o   Mikhailenko, S N ^p   Miller, C E ^g   Moazzen Ahmadi, N ^q   Naumenko, O V ^p   Nikitin, A V ^p   Orphal, J ⁱ   Perevalov, V I ^p   Perrin, A ⁱ   Predoi Cross, A ^r   Rinsland, C P ^s   Rotger, M ^b,f   Simeckova M ^a   Smith, M A H ^s   Sung, K ^g   Tashkun, S A ^p   Tennyson, J ^t   Toth, R A ^g   Vandaele, A C ^u   Vander Auwera, J ^k   more..

^a HARVARD SMITHSONIAN CENTER FOR ASTROPHYSICS   (United States)

^b UNIVERSITÉ DE REIMS CHAMPAGNE ARDENNE   (France)

^c The College of William and Mary   (United States)

^d UNIVERSITY OF YORK   (United Kingdom)

^e GERMAN AEROSPACE CENTER DLR   (Germany)

^f UNIVERSITÉ DE BOURGOGNE   (France)

^g CALIFORNIA INSTITUTE OF TECHNOLOGY   (United States)

^h UNIV GRENOBLE ALPES   (France)

ⁱ UNIVERSITÉ PARIS EST CRÉTEIL   (France)

^j SORBONNE UNIVERSITÉ   (France)

^k UNIVERSITÉ LIBRE DE BRUXELLES   (Belgium)

^l University of Massachusetts Lowell   (United States)

^m UNIVERSITY OF DENVER   (United States)

ⁿ NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY   (United States)

^o NATIONAL CENTER FOR ATMOSPHERIC RESEARCH   (United States)

^p V E ZUEV INSTITUTE OF ATMOSPHERIC OPTICS   (Russian Federation)

^q UNIVERSITY OF CALGARY   (Canada)

^r UNIVERSITY OF LETHBRIDGE   (Canada)

^s NASA LANGLEY RESEARCH CENTER   (United States)

^t UNIVERSITY COLLEGE LONDON   (United Kingdom)

^u BELGIAN INSTITUTE FOR SPACE AERONOMY   (Belgium)

more..

Author keywords

Absorption cross sections; Aerosols; HITRAN; Molecular absorption; Molecular spectroscopy; Spectroscopic database; Spectroscopic line parameters

Indexed keywords

DATABASE MANAGEMENT SOFTWARES; GAS-PHASE; HITRAN; ISOTOPOLOGUES; MOLECULAR ABSORPTION; MOLECULAR SPECTROSCOPIC DATABASE; RADIATIVE-TRANSFER CALCULATIONS; SPECTRAL FEATURES; SPECTROSCOPIC DATABASE; SPECTROSCOPIC LINE PARAMETERS; SPECTROSCOPIC PARAMETERS; VISIBLE SPECTRUMS;

ATMOSPHERIC AEROSOLS; GAS ABSORPTION; MANAGEMENT INFORMATION SYSTEMS; MOLECULAR SPECTROSCOPY; MOLECULES; REFRACTIVE INDEX; SPECTRUM ANALYSIS;

ABSORPTION SPECTROSCOPY;

ABSORPTION; AEROSOL; DATABASE; MOLECULAR ANALYSIS; RADIATIVE TRANSFER; SOFTWARE;

EID: 64449085988     PISSN: 00224073     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jqsrt.2009.02.013     Document Type: Article

References (394)

1. Rothman L.S., Jacquemart D., Barbe A., Chris Benner D., Birk M., Brown L.R., et al. The HITRAN 2004 molecular spectroscopic database. JQSRT 96 (2005) 139-204
2. Waters J.W., Froidevaux L., Harwood R.S., Jarnot R.F., Pickett H.M., Read W.G., et al. The earth observing system microwave limb sounder (EOS MLS) on the Aura Satellite. IEEE Trans Geosci Remote Sensing 44 (2006) 1075-1092
3. Beer R. TES on the aura mission: scientific objectives, measurements, and analysis overview. IEEE Trans Geosci Remote Sensing 44 (2006) 1102-1105
4. Fischer H., Birk M., Blom C., Carli B., Carlotti M., von Clarmann T., et al. MIPAS: an instrument for atmospheric and climate research. Atmos Chem Phys 8 (2008) 2151-2188
5. Bernath P.F., McElroy C.T., Abrams M.C., Boone C.D., Butler M., Camy-Peyret C., et al. Atmospheric chemistry experiment (ACE): mission overview. Geophys Res Lett 32 (2005) 5
6. Aumann H.H., Chahine M.T., Gautier C., Goldberg M.D., Kalnay E., McMillin L.M., et al. AIRS/AMSU/HSB on the aqua mission: design, science objectives, data products, and processing systems. IEEE Trans Geosci Remote Sensing 41 (2003) 253-264
7. Clerbaux C., Hadji-Lazaro J., Turquety S., George M., Coheur P.F., Hurtmans D., et al. The IASI/MetOp1 mission: first observations and highlights of its potential contribution to GMES2. Space Res Today 168 (2007) 19-24
8. Crisp D., Atlas R.M., Breon F.M., Brown L.R., Burrows J.P., Ciais P., et al. The orbiting carbon observatory (OCO) mission. Adv Space Res 34 (2004) 700-709
9. Yokomizo M. Greenhouse gases observing SATellite (GOSAT) ground systems. Fujitsu Sci Techn J 44 (2008) 410-417
10. Hartmann J.M., Boulet C., and Robert D. Collisional effects on molecular spectra, laboratory experiments and models, consequences for applications (2008), Elsevier, Amsterdam
11. Shiba H., Sato S., Yamashita T., Kobayashi Y., and Takami H. Detection of water vapor in T Tauri stars. Astrophys J Suppl Ser 89 (1993) 299-319
12. Tinetti G., Vidal-Madjar A., Liang M.C., Beaulieu J.P., Yung Y., Carey S., et al. Water vapour in the atmosphere of a transiting extrasolar planet. Nature 448 (2007) 169-171
13. -1. See: 〈http://mark4sun.jpl.nasa.gov/data/spec/〉.
14. Coudert L.H. Line frequency and line intensity analyses of water vapour. Mol Phys 96 (1999) 941-954
15. 16O molecule: line position and line intensity analyses up to the second triad. J Mol Spectrosc 251 (2008) 339-357
16. Lodi L., and Tennyson J. A line list of allowed and forbidden rotational transition intensities for water. JQSRT 109 (2008) 1219-1233
17. Barber R.J., Tennyson J., Harris G.J., and Tolchenov R.N. A high-accuracy computed water line list. Mon Not R Astron Soc 368 (2006) 1087-1094
18. -1 region. JQSRT 105 (2007) 326-355
19. Mikhailenko S.N., Wang L., Kassi S., and Campargue A. Weak water absorption lines around 1.455 and 1.66 μm by CW-CRDS. J Mol Spectrosc 244 (2007) 170-178
20. Lodi L., Tolchenov R.N., Tennyson J., Lynas-Gray A.E., Shirin S.V., Zobov N.F., et al. A new ab initio ground-state dipole moment surface for the water molecule. J Chem Phys 128 (2008) 044304
21. -1 region. JQSRT 109 (2008) 559-568
22. -1: experimental and theoretical studies for a new spectral line database: I. Laboratory measurements. J Mol Spectrosc 208 (2001) 32-42
23. -1. J Mol Spectrosc 211 (2002) 169-178
24. 16O near 0.94 μm: positions, intensities and air-broadening coefficients. J Mol Spectrosc 212 (2002) 57-82
25. -1 frequency range. J Mol Spectrosc 233 (2005) 68-76
26. -1 region. JQSRT 74 (2002) 493-510
27. 17O in the 3ν+δ and 4ν polyad region. J Mol Spectrosc 234 (2005) 1-9
28. -1. The (0 4 1), (2 2 0), (1 2 1), (3 0 0), (2 0 1), (1 0 2), and (0 0 3) interacting states. Can J Phys 65 (1987) 777-789
29. -1 range. J Mol Spectrosc 216 (2002) 77-80
30. -1: assignment and dynamics. J Mol Spectrosc 244 (2007) 87-101
31. -1 spectral region. J Mol Spectrosc 232 (2005) 341-350
32. Gordon I.E., Rothman L.S., Gamache R.R., Jacquemart D., Boone C., Bernath P.F., et al. Current updates of the water-vapor line list in HITRAN: a new "Diet" for air-broadened half-widths. JQSRT 108 (2007) 389-402
33. Cazzoli G., Puzzarini C., Buffa G., and Tarrini O. Experimental and theoretical investigation on pressure-broadening and pressure-shifting of the 22.2 GHz line of water. JQSRT 105 (2007) 438-449
34. 2O near 1.39 μm: application to the in situ sensing of the middle atmosphere with balloonborne diode lasers. JQSRT 94 (2005) 387-403
35. -1) for gas sensing applications at elevated temperature. JQSRT 103 (2007) 565-577
36. Liu X., Jeffries J.B., and Hanson R.K. Measurements of spectral parameters of water-vapour transitions near 1388 and 1345 nm for accurate simulation of high-pressure absorption spectra. Meas Sci Technol (2007) 1185-1194
37. Seta T., Hoshina H., Kasai Y., Hosako I., Otani C., Loßow S., et al. Pressure broadening coefficients of the water vapor lines at 556.936 and 752.033 GHz. JQSRT 109 (2008) 144-150
38. Golubiatnikov G.Y., Koshelev M.A., and Krupnov A.F. Pressure shift and broadening of 110-101 water vapor lines by atmosphere gases. JQSRT 109 (2008) 1828-1833
39. 2O. JQSRT 94 (2005) 1-50
40. Cazzoli G., Puzzarini C., Buffa G., and Tarrini O. Pressure-broadening in the THz frequency region: the 1.113 THz line of water. JQSRT 109 (2008) 1563-1574
41. Koshelev M.A., Tretyakov M.Y., Golubiatnikov G.Y., Parshin V.V., Markov V.N., and Koval I.A. Broadening and shifting of the 321-, 325- and 380-GHz lines of water vapor by pressure of atmospheric gases. J Mol Spectrosc 241 (2007) 101-108
42. 2O around 0.8 μm studied by tuneable diode laser spectroscopy. JQSRT 109 (2008) 2523-2536
43. 2O lines in the spectral region around 3 μm. J Mol Spectrosc 227 (2004) 162-171
44. Cazzoli G., Puzzarini C., Buffa G., and Tarrini O. Pressure-broadening of water lines in the THz frequency region: improvements and confirmations for spectroscopic databases. Part I. JQSRT 109 (2008) 2820-2831
45. 2O using a difference frequency generation spectrometer at 3 μm. J Mol Spectrosc 215 (2002) 244-250
46. 16O. J Mol Spectrosc 2009, submitted.
47. 2 induced halfwidths and line shifts of water vapor transitions in the (3 0 1)←(0 0 0) and (2 2 1)←(0 0 0) bands. JQSRT 59 (1998) 595-613
48. Antony B.K., Neshyba S., and Gamache R.R. Self-broadening of water vapor transitions via the complex Robert-Bonamy theory. JQSRT 105 (2007) 148-163
49. Antony B.K., and Gamache R.R. Self-broadened half-widths and self-induced line shifts for water vapor transitions in the 3.2-17.76 μm spectral region via complex Robert-Bonamy theory. J Mol Spectrosc 243 (2007) 113-123
50. Gamache R.R. Lineshape parameters for water vapor in the 3.2-17.76 μm region for atmospheric applications. J Mol Spectrosc 229 (2005) 9-18
51. -1. J Mol Spectrosc 239 (2006) 221-242
52. -1. J Mol Spectrosc 239 (2006) 243-271
53. -1. J Mol Spectrosc 243 (2007) 43-61
54. -1. J Mol Spectrosc 246 (2007) 133-157
55. -1: positions, intensities, and air- and self-broadening derived with constrained multispectrum analysis. J Mol Spectrosc 242 (2007) 90-117
56. -1: constrained multispectrum analysis of intensities and line shapes in the 30013←00001 band. J Mol Spectrosc 245 (2007) 52-80
57. -1. JQSRT 109 (2008) 906-921
58. -1. J Mol Spectrosc 251 (2008) 64-89
59. 2. J Mol Spectrosc 226 (2004) 146-160
60. 2 near 1.5 μm. J Mol Spectrosc 230 (2005) 1-21
61. 2 absolute line intensities in the 1.6 μm region. J Mol Spectrosc 252 (2008) 190-197
62. -1: line positions analysis and critical review of the current databases. J Mol Spectrosc 252 (2008) 143-159
63. 2 absolute line intensities from CW-CRDS and FTS measurements in the 1.6 and 2.0 μm regions. JQSRT 109 (2008) 2009-2026
64. -1 region. J Mol Spectrosc 241 (2007) 90-100
65. -1. JQSRT 109 (2008) 2437-2462
66. -1". JQSRT 109 (2008) 2261-2271
67. Teffo J.L., Sulakshina O.N., and Perevalov V.I. Effective Hamiltonian for rovibrational energies and line intensities of carbon dioxide. J Mol Spectrosc 156 (1992) 48-64
68. Perevalov V.I., Lobodenko E.I., Lyulin O.M., and Teffo J.L. Effective dipole moment and band intensities problem for carbon dioxide. J Mol Spectrosc 171 (1995) 435-452
69. 2 vibrational-rotational line positions using the effective Hamiltonian approach. JQSRT 60 (1998) 785-801
70. 2 vibrational-rotational line intensities using the effective operator approach. JQSRT 62 (1999) 571-598
71. Perevalov VI, Tashkun SA. CDSD-296 (Carbon Dioxide Spectroscopic Databank): updated and enlarged version for atmospheric applications. In: 10th HITRAN database conference, Cambridge, MA, USA, 2008.
72. Tashkun SA, Perevalov VI, Teffo JL, Bykov AD, Lavrentieva NN. CDSD-296, the carbon dioxide spectroscopic databank: version for atmospheric applications. In: 14th international symposium on high resolution molecular spectroscopy, Krasnoyarsk, Russia, 2003.
73. 2 near 1600 nm. Can J Phys 2009; accepted.
74. Pollack J.B., Dalton J.B., Grinspoon D., Wattson R.B., Freedman R., Crisp D., et al. Near-infrared light from venus' nightside: a spectroscopic analysis. Icarus 103 (1993) 1-42
75. -1 region. J Mol Spectrosc 235 (2006) 77-83
76. Wattson R.B., and Rothman L.S. Direct numerical diagonalization: wave of the future. JQSRT 48 (1992) 763-780
77. 2. J Mol Spectrosc 247 (2008) 64-75
78. Mikhailenko S, Barbe A, Babikov Y, Tyuterev VG. S&MPO-a databank and information system for ozone spectroscopy on the WEB. See: 〈http://smpo.iao.ru〉.
79. Plateaux J.J., Barbe A., and Delahaigue A. Reims high resolution Fourier transform spectrometer-data reduction for ozone. Spectrochim Acta Part A 51 (1995) 1153-1169
80. See: 〈http://smpo.iao.ru/ru/lev/par/1/6/〉 (December 2007).
81. See: 〈http://smpo.iao.ru/en/lev/par/1/4/〉 (June 2000).
82. Pickett H.M., Cohen E.A., Brown L.R., Rinsland C.P., Smith M.A.H., Devi V.M., et al. The vibrational and rotational spectra for ozone for (0,1,0) and (0,2,0) states. J Mol Spectrosc 128 (1988) 151-171
83. 3. J Mol Spectrosc 166 (1994) 365-371
84. -1 region. J Mol Spectrosc 170 (1995) 244-250
85. Sulakshina O, Institute of Atmospheric Optics, Tomsk, Russia, private communication, 1998. See: 〈http://smpo.iao.ru/en/lev/par/1/7/〉.
86. Flaud J.M., Wagner G., Birk M., Camy-Peyret C., Claveau C., De Backer-Barilly M.R., et al. Ozone absorption around 10 μm. J Geophys Res 108 D9 (2003) 4269
87. 3 bands in the 7-μm region. J Mol Spectrosc 134 (1989) 106-112
88. 2 bands of ozone. Spectrochim Acta Part A 54A (1998) 1935-1945
89. -1 region. J Mol Spectrosc 215 (2002) 29-41
90. De Backer-Barilly MR. Université de Reims, Reims, France, private communication, 2002. See: 〈http://smpo.iao.ru/ru/lev/par/1/5/〉.
91. 2 of ozone. Comparison with theoretical predictions. J Mol Struct 517 (2000) 165-170
92. 3. J Mol Spectrosc 125 (1987) 174-183
93. -1 region. J Mol Spectrosc 187 (1998) 70-74
94. 3. J Mol Spectrosc 174 (1995) 510-519
95. -1. JQSRT 52 (1994) 341-355
96. 3: line positions and intensities. J Mol Spectrosc 124 (1987) 209-217
97. Transition moment parameters. See: 〈http://smpo.iao.ru/ru/tran/par/1/8-3/〉.
98. Hamiltonian parameters. See: 〈http://smpo.iao.ru/ru/lev/par/1/12/〉.
99. Transition moment. See: 〈http://smpo.iao.ru/ru/tran/par/1/8-2/〉.
100. -1 region. Appl Opt 47 (2008) 4612-4618
101. 2 behavior. J Mol Spectrosc 184 (1997) 448-453
102. 3 band of ozone. J Mol Spectrosc 171 (1995) 583-588
103. 3 band of ozone: Line positions and intensities. JQSRT 55 (1996) 449-455
104. 2 bands of ozone. J Mol Spectrosc 180 (1996) 227-235
105. SMPO. See: 〈http://smpo.iao.ru/ru/tran/par/1/17-3/〉.
106. 3 band of ozone. J Mol Spectrosc 182 (1997) 333-341
107. 3. J Mol Spectrosc 171 (1995) 86-90
108. Perrin A.M., Vasserot A.M., Flaud J.M., Camy-Peyret C., Devi V.M., Smith M.A.H., et al. The 2.5 μm bands of ozone: line positions and intensities. J Mol Spectrosc 149 (1991) 519-529
109. Mikhailenko S, Barbe A, Tyuterev VG, Plateaux JJ. New analysis of the (2 1 1)/(1 4 0)/(3 1 0)/(0 0 4)/(1 0 3) interacting states of ozone. In: VIII joint international symposium "atmospheric and ocean optics, atmospheric physics", Irkutsk, Russia, 2001.
110. 3 band of ozone. J Mol Spectrosc 175 (1996) 296-302
111. 3 bands. J Mol Spectrosc 185 (1997) 408-416
112. 3: Line positions and intensities. J Mol Spectrosc 177 (1996) 34-39
113. 3 band. JQSRT 1998;185-94.
114. 3 bands. J Phys B At Mol Opt Phys 31 (1998) 2559-2569
115. 3: Line positions and intensities. J Mol Spectrosc 192 (1998) 102-110
116. 3 bands. Mol Phys 94 (1998) 751-757
117. 18O: line positions and intensities. J Mol Spectrosc 133 (1989) 217-223
118. 16O. J Mol Spectrosc 205 (2001) 347-349
119. -1: line positions. J Mol Spectrosc 216 (2002) 454-464
120. De Backer-Barilly MR. Université de Reims, Reims, France, private communication, 2007.
121. Wagner G., Birk M., Schreier F., and Flaud J.M. Spectroscopic database for ozone in the fundamental spectral regions. J Geophys Res 107 D22 (2002) 4626
122. Drouin B.J., and Gamache R.R. Temperature dependent air-broadened linewidths of ozone rotational transitions. J Mol Spectrosc 251 (2008) 194-202
123. 2 band and their temperature dependence. J Mol Spectrosc 182 (1997) 221-238
124. Larsen R.W., Nicolaisen F.M., and Sørensen G.O. Determination of self-, air-, and oxygen-broadening coefficients of pure rotational absorption lines of ozone and of their temperature dependencies. J Mol Spectrosc 210 (2001) 259-270
125. Flaud J.M., Camy-Peyret C., Rinsland C.P., Devi V.M., Smith M.A.H., and Goldman A. Improved line parameters for ozone bands in the 10 μm spectral region. Appl Opt 29 (1990) 3667-3671
126. -1. Appl Opt 30 (1991) 5289-5315
127. 2O. Appl Opt 32 (1993) 7326-7365
128. Negrão A., Hirtzig M., Coustenis A., Gendron E., Drossart P., Rannou P., et al. The 2-μm spectroscopy of Huygens probe landing site on Titan with very large telescope/nasmyth adaptive optics system near-infrared imager and spectrograph. J Geophys Res 112 (2007) E02S92
129. Swain M.R., Vasisht G., and Tinetti G. The presence of methane in the atmosphere of an extrasolar planet. Nature 452 (2008) 329-331
130. -1. Chem Phys 356 (2009) 131-146
131. 4: a low temperature far-infrared study. JQSRT 103 (2007) 102-117
132. 3 band of methane and its implication on atmospheric retrievals. Atmos Chem Phys 8 (2008) 5061-5075
133. -1. Appl Opt 27 (1988) 4038-4051
134. -1. Appl Opt 29 (1990) 2295-2302
135. -1 region by absorption spectroscopy at 81 K. J Mol Spectrosc 253 (2009) 55-63
136. -1. J Mol Spectrosc 232 (2005) 231-246
137. -1: II. Air-broadening coefficients (widths and shifts). J Mol Spectrosc 236 (2006) 201-215
138. Brown L.R., Benner D.C., Champion J.P., Devi V.M., Fejard L., Gamache R.R., et al. Methane line parameters in HITRAN. JQSRT 82 (2003) 219-238
139. Brown L.R. Empirical line parameters of methane from 1.1 to 2.1 μm. JQSRT 96 (2005) 251-270
140. 4 band: I. Air-broadened half widths, pressure-induced shifts, temperature dependences and line mixing. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2009.02.015.
141. 4 band: II. Self-broadened half widths, pressure-induced shifts, temperature dependences and line mixing. JQSRT 2009, to be submitted.
142. -1 spectral region. J Mol Spectrosc 251 (2008) 268-281
143. -1 region. JQSRT 2009, this issue, doi:10.1016/j.jqsrt.2009.02.012.
144. Kassi S., Gao B., Romanini D., and Campargue A. The near-infrared (1.30-1.70 μm) absorption spectrum of methane down to 77 K. Phys Chem Chem Phys 10 (2008) 4410
145. Thiévin J., Georges R., Carles S., Benidar A., Rowe B., and Champion J.P. High-temperature emission spectroscopy of methane. JQSRT 109 (2008) 2027-2036
146. Wenger C., Champion J.P., and Boudon V. The partition sum of methane at
147. Lattanzi V., Walters A., Pearson J.C., and Drouin B.J. THz spectrum of monodeuterated methane. JQSRT 109 (2008) 580-586
148. Pickett H.M., Poynter R.L., Cohen E.A., Delitsky M.L., Pearson J.C., and Müller H.S.P. Submillimeter, millimeter and microwave spectral line catalog. JQSRT 60 (1998) 883-890
149. Müller H.S.P., Schlöder F., Stutzki J., and Winnewisser G. The cologne database for molecular spectroscopy, CDMS: a useful tool for astronomers and spectroscopists. J Mol Struct 742 (2005) 215
150. 3D on Titan. Icarus 191 (2007) 397-400
151. 3v molecules: energy and intensity formulation (computer programs). J Mol Spectrosc 119 (1986) 418-425
152. 3D. J Mol Spectrosc 201 (2000) 9-17
153. 3D in the Triad region: 6-10 μm. J Mol Struct 695-696 (2004) 181-188
154. -1. J Mol Spectrosc 240 (2006) 14-25
155. 2 band of monodeuterated methane. JQSRT 60 (1998) 501-514
156. 3D using a multispectrum fitting technique. JQSRT 74 (2002) 1-41
157. 2 A-band. J Mol Spectrosc 251 (2008) 27-37
158. Robichaud D.J., Hodges J.T., Brown L.R., Lisak D., Maslowski P., Yeung L.Y., et al. Experimental intensity and lineshape parameters of the oxygen A-band using frequency-stabilized cavity ring-down spectroscopy. J Mol Spectrosc 248 (2008) 1-13
159. Robichaud D.J., Hodges J.T., Lisak D., Miller C.E., and Okumura M. High-precision pressure shifting measurement technique using frequency-stabilized cavity ring-down spectroscopy. JQSRT 109 (2008) 435-444
160. Brown L.R., and Plymate C. Experimental line parameters of the oxygen A band at 760 nm. J Mol Spectrosc 199 (2000) 166-179
161. Robichaud DJ, Yeung LY, Long DA, Havey DK, Hodges JT, Lisak D, et al. Experimental line parameters of the A-band of oxygen isotopologues at 760 nm using frequency-stabilized cavity ring-down spectroscopy. J Phys Chem A 2009, submitted for publication.
162. 2 A-band. JQSRT 90 (2005) 309-321
163. Predoi-Cross A., Holladay C., Heung H., Bouanich J.P., Mellau G.C., Keller R., et al. Nitrogen-broadened lineshapes in the oxygen A-band: experimental results and theoretical calculations. J Mol Spectrosc 251 (2008) 159-175
164. Falke S., Tiemann E., Lisdat C., Schnatz H., and Grosche G. Transition frequencies of the D lines of K39, K40, and K41 measured with a femtosecond laser frequency comb. Phys Rev A 74 (2006) 32503
165. Babcock H.D., and Herzberg L. Fine structure of the red system of atmospheric oxygen bands. Astrophys J 108 (1948) 167
166. Predoi-Cross A., Hambrook K., Keller R., Povey C., Schofield I., Hurtmans D., et al. Spectroscopic lineshape study of the self-perturbed oxygen A-band. J Mol Spectrosc 248 (2008) 85-110
167. 2 A band absorption model and its consequences for retrievals of photon paths and surface pressures. J Geophys Res (2008) 113
168. Washenfelder R.A., Toon G.C., Blavier J.F., Yang Z., Allen N.T., Wennberg P.O., et al. Carbon dioxide column abundances at the Wisconsin Tall Tower site. J Geophys Res 111 (2006) D22305
169. - (0,0) transition: a comparison of cavity ringdown and high resolution Fourier transform spectroscopy with a long-path absorption cell. J Chem Phys 110 (1999) 10749-10757
170. - (0,0) transition. J Phys Chem A 104 (2000) 9467-9480
171. Goldman A., Brown L.R., Schoenfeld W.G., Spencer M.N., Chackerian Jr. C., Giver L.P., et al. Nitric oxide line parameters: review of 1996 HITRAN update and new results. JQSRT 60 (1998) 825-838
172. 2. J Mol Spectrosc 189 (1998) 55-63
173. 2. J Mol Spectrosc 160 (1993) 272-278
174. 2 atmosphere. Icarus 176 (2005) 283-304
175. 2 from high resolution study of the infrared spectrum in the 7-8 μm wavelength region. JQSRT 109 (2008) 2491-2510
176. 2. J Mol Spectrosc 179 (1996) 137-141
177. 2. J Mol Spectrosc 176 (1996) 127-132
178. 2 between 90 and 500 K. JQSRT 56 (1996) 109-117
179. 2S. J Mol Spectrosc 181 (1997) 160-167
180. 2. Spectrochim Acta Part A 55 (1999) 1931-1939
181. 2. J Mol Struct 599 (2001) 39-49
182. 2 self broadening. J Mol Spectrosc 175 (1996) 37-47
183. 2: high-resolution analysis of the (0 3 0), (1 0 1), (1 1 1), (0 0 2) and (2 0 1) vibrational states; determination of equilibrium rotational constants for sulfur dioxide and anharmonic vibrational constants. J Mol Spectrosc 253 (2009) 51-54
184. 2. J Mol Spectrosc 252 (2008) 72-76
185. 2. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2009.12.003.
186. 3 line parameters using MIPAS satellite measurements. Atmos Chem Phys 6 (2006) 5037-5048
187. -1. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2008.07.004.
188. 3 by infrared and millimeter wave techniques: line positions and intensities. J Mol Spectrosc 228 (2004) 375-391
189. -1. JQSRT 82 (2003) 429-441
190. 3. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2009.02.003.
191. 3 using comparison of rotational and vibrational spectroscopy. J Geophys Res 111 (2006) D19305
192. 3 spectroscopic parameters using atmospheric absorption and emission measurements. JQSRT 110 (2009) 109-117
193. 3. J Mol Spectrosc 218 (2003) 127-130
194. 3. JQSRT 92 (2005) 129-141
195. 9 fundamental. J Mol Spectrosc 184 (1997) 140-144
196. 3 vapor. J Opt Soc Am 65 (1975) 10-12
197. 3. Mol Phys 67 (1989) 249-270
198. 3): line positions and intensities. J Mol Spectrosc 237 (2006) 27-35
199. 3 in atmospheric spectra. Geophys Res Lett 34 (2007) L03802
200. i state of OH (v=0-10). J Mol Spectrosc 214 (2002) 225-226
201. Colin R. University of Brussels, Brussels, Belgium, private communication, 2008.
202. 2Π (v″,v′) transitions. JQSRT 59 (1998) 453-469
203. 37Cl: line positions from high-resolution laboratory data. J Mol Spectrosc 159 (1993) 274-278
204. + states of HCl. J Mol Spectrosc 203 (2000) 49-64
205. 2 near 204 and 649 GHz and new frequency measurements between 632 and 725 GHz. JQSRT 52 (1994) 151-156
206. Bauer A, Birk M, Bühler S, Colmont JM, von Engeln A, Künzi K, et al. Study on a spectroscopic database for millimeter and submillimeter wavelength. Final report of ESA no. 11581/95/NL/CN, 1998.
207. 32S molecule. JQSRT 74 (2002) 455-470
208. -1. J Mol Struct 780-781 (2006) 134-141
209. -1 and selection of a line-pointing program. J Mol Spectrosc 192 (1998) 91-101
210. Fayt A., Vandenhaute R., and Lahaye J.G. Global rovibrational analysis of carbonyl sulfide. J Mol Spectrosc 119 (1986) 233-266
211. 18OCS). J Mol Spectrosc 123 (1987) 48-83
212. 2 laser Stark spectroscopy of the isotopomers of carbonyl sulfide. J Mol Spectrosc 154 (1992) 137-162
213. -1. J Mol Spectrosc 189 (1998) 206-219
214. 3 bands. JQSRT 2009; submitted for publication.
215. -1. JQSRT, in preparation.
216. 32S. J Mol Spectrosc 185 (1997) 26-30
217. Rohart F. Université de Lille, Lille, France, private communication, 2008.
218. Matton S., Rohart F., Bocquet R., Mouret G., Bigourd D., Cuisset A., et al. Terahertz spectroscopy applied to the measurement of strengths and self-broadening coefficients for high-J lines of OCS. J Mol Spectrosc 239 (2006) 182-189
219. Koshelev M.A., and Tretyakov M.Y. Collisional broadening and shifting of OCS rotational spectrum lines. JQSRT 110 (2009) 118-128
220. 3 band of OCS. J Mol Spectrosc 200 (2000) 266-276
221. 1 band of OCS. JQSRT 39 (1988) 353-365
222. Perrin A, Jacquemart D, Kwabia Tchana F, Lacome N. Absolute line intensities measurements and calculations for the 5.7 and 3.6 μm bands of formaldehyde. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2008.11.005.
223. 2CO) distributions from high-resolution MIPAS-Envisat spectra. Atmos Chem Phys 8 (2008) 463-470
224. Dufour G., Szopa S., Barkley M.P., Boone C.D., Perrin A., Palmer P., et al. Global upper tropospheric formaldehyde seasonal cycles investigated through ACE-FTS space borne observations. Atmos Chem Phys 9 (2009) 1051-1095
225. 6 interacting bands. J Mol Spectrosc 245 (2007) 141-144
226. 16O. Can J Phys, accepted.
227. 2CO. J Mol Struct 780-781 (2006) 28-44
228. Sharpe S.W., Johnson T.J., Sams R.L., Chu P.M., Rhoderick G.C., and Johnson P.A. Gas-phase databases for quantitative infrared spectroscopy. Appl Spectrosc 58 (2004) 1452-1461
229. -1) and ultraviolet (300-360 nm) spectral regions. J Geophys Res 112 (2007) D05305
230. Gratien A., Nilsson E., Doussin J.F., Johnson M.S., Nielsen C.J., Stenstrom Y., et al. UV and IR absorption cross-sections of HCHO, HCDO, and DCDO. J Phys Chem A 111 (2007) 11506-11513
231. 2. JQSRT 103 (2007) 168-174
232. 2. J Chem Phys 126 (2007) 4301
233. Yang C., Buldyreva J., Gordon I.E., Rohart F., Cuisset A., Mouret G., et al. Oxygen, nitrogen and air broadening of HCN spectral lines at terahertz frequencies. JQSRT 109 (2008) 2857-2868
234. 2-broadening, shifts and their temperature dependences. JQSRT 82 (2003) 343-362
235. 14N: part I. Intensities, broadening, and shift coefficients. J Mol Spectrosc 231 (2005) 66-84
236. -1). J Mol Spectrosc 230 (2005) 174-184
237. Perrin A., Valentin A., Flaud J.M., Camy-Peyret C., Schriver L., Schriver A., et al. The 7.9-μm band of hydrogen peroxide: line positions and intensities. J Mol Spectrosc 171 (1995) 358-373
238. 2. J Mol Spectrosc 195 (1999) 154-161
239. Lyulin O.M., Perevalov V.I., Mandin J.Y., Dana V., Gueye F., Thomas X., et al. Line intensities of acetylene: measurements in the 2.5-μm spectral region and global modeling in the Δp=4 and 6 series. JQSRT 103 (2007) 496-523
240. 2 in the 3.8-μm spectral region. JQSRT 103 (2007) 478-495
241. 2: line intensity measurements in the 1.4 μm region and update of the databases. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2008.10.002.
242. 2 in the 1.3, 1.2, and 1 μm spectral regions. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2008.11.009.
243. Matsuura M., Wood P.R., Sloan G.C., Zijlstra A.A., van Loon J.T., Groenewegen M.A.T., et al. Spitzer observations of acetylene bands in carbon-rich asymptotic giant branch stars in the Large Magellanic Cloud. Mon Not R Astron Soc 371 (2006) 415-420
244. 2: analysis of Herman-Wallis effects and forbidden transitions. J Mol Spectrosc 201 (2000) 143-150
245. Rothman L.S., Gamache R.R., Barbe A., Goldman A., Gillis J.R., Brown L.R., et al. AFGL atmospheric absorption line parameters compilation: 1982 edition. Appl Opt 22 (1983) 2247-2256
246. Vander Auwera J., Moazzen-Ahmadi N., and Flaud J.M. Toward an accurate database for the 12 μm region of the ethane spectrum. Astrophys J 662 (2007) 750-757
247. 12 fundamental. J Mol Spectrosc 239 (2006) 51-58
248. 7 band of ethane. J Mol Spectrosc 175 (1996) 21-30
249. Blass W.E., Halsey G.W., and Jennings D.E. Self- and foreign-gas broadening of ethane lines determined from diode laser measurements at 12 μm. JQSRT 38 (1987) 183-184
250. 13C ethane. J Geophys Res 96 E2 (1991) 17489-17492
251. 12 at 12.2 μm. J Mol Spectrosc 159 (1993) 388-394
252. 12 torsion-vibration-rotation band: frequencies, intensities, and barriers to internal rotation. J Chem Phys 100 (1994) 8681-8688
253. 6 in the 12 μm region. NASA technical memorandum 104601, Greenbelt; 1994.
254. Beer R., and Taylor F.W. Phosphine absorption in the 5-μm window of Jupiter. Icarus 40 (1979) 189-192
255. 3) between 2.8 and 3.7 μm: line positions, intensities, and assignments. J Mol Spectrosc 238 (2006) 178-192
256. 3 preliminary results. J Mol Spectrosc, in press, doi:10.1016/j.jms.2009.01.008.
257. Boudon V., and Pierre G. Rovibrational spectroscopy of sulphur hexafluoride: a review. In: Pandalai S.G. (Ed). Recent research developments in molecular spectroscopy vol. 1 (2002), Transworld Research Network, Trivandrum, India 25-55
258. -1. J Mol Spectrosc 205 (2001) 304-311
259. 6. J Mol Spectrosc 76 (1979) 322-340
260. 6. J Mol Spectrosc 98 (1983) 229-257
261. 6 molecules. JQSRT 66 1 (2000) 1-16. http://icb.u-bourgogne.fr/OMR/SMA/SHTDS [see also: 〈http://icb.u-bourgogne.fr/OMR/SMA/SHTDS〉]
262. Vander Auwera J., Didriche K., Perrin A., and Keller F. Absolute line intensities for formic acid and dissociation constant of the dimer. J Chem Phys 126 (2007) 124311
263. Perrin A., and Vander Auwera J. An improved database for the 9 μm region of the formic acid spectrum. JQSRT 108 (2007) 363-370
264. 3 fundamental band of trans-formic acid. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2008.09.006.
265. 2CO and PAN by infrared occultation from space. Atmos Chem Phys Discuss 7 (2007) 7907-7932
266. Herndon S.C., Zahniser M.S., Nelson D.D., Shorter J., McManus J.B., Jimenez R., et al. Airborne measurements of HCHO and HCOOH during the New England Air Quality Study 2004 using a pulsed quantum cascade laser spectrometer. J Geophys Res 112 (2007) D10S03
267. Goldman A, Gillis JR. Line parameters and line calculation for molecules of stratospheric interest. Technical report, Department of Physics, University of Denver, 1984.
268. 6 region of HCOOH and its measurement in the infrared tropospheric spectrum. J Geophys Res 104 D15 (1999) 18661-18666
269. + fundamental and first hot ro-vibrational line frequencies from MIPAS/Envisat atmospheric spectra. J Mol Spectrosc 237 (2006) 218-224
270. +. J Chem Phys 77 (1982) 4261
271. +. J Mol Spectrosc 149 (1991) 559-561
272. Hilpert G., Linnartz H., Havenith M., ter Meulen J.J., and Meerts W.L. Tunable infrared and far-infrared direct absorption spectroscopy of molecular ions in a supersonic jet expansion. Chem Phys Lett 219 (1994) 384-388
273. +-banden. Helv Phys Acta 29 (1956) 135-144
274. LeRoy RJ. DParfit 3.3, A computer program for fitting multi-isotopomer diatomic molecule spectra. University of Waterloo Chemical Physics research report CP-660, 2005. See: 〈http://leroy.uwaterloo.ca/〉.
275. Lary D.J. Gas phase atmospheric bromine photochemistry. J Geophys Res 101 D1 (1996) 1505-1516
276. Lary D.J., Chipperfield M.P., Toumi R., and Lenton T. Heterogeneous atmospheric bromine chemistry. J Geophys Res 101 D1 (1996) 1489-1504
277. 2O on submicron sulfuric acid aerosol and the implications for the lower stratosphere. J Geophys Res 101 D4 (1996) 9063-9069
278. Pfeilsticker K., Sturges W.T., Bösch H., Camy-Peyret C., Chipperfield M.P., Engel A., et al. Lower stratospheric organic and inorganic bromine budget for the arctic winter 1998/99. Geophys Res Lett 27 (2000) 3305-3308
279. Sander R., and Crutzen P.J. Model study indicating halogen activation and ozone destruction in polluted air masses transported to the sea. J Geophys Res 101 (1996) 9121-9138
280. Vogt R., Crutzen P.J., and Sander R. A mechanism for halogen release from sea-salt aerosol in the remote marine boundary layer. Nature 383 (1996) 327-330
281. Johnson D.G., Traub W.A., Chance K.V., and Jucks K.W. Detection of HBr and upper limit for HOBr: Bromine partitioning in the stratosphere. Geophys Res Lett 22 (1995) 1373-1376
282. Orphal J., Flaud J.M., Kou Q., Tchana F.K., and Pirali O. The far infrared rotational spectrum of HOBr: line positions and intensities. J Mol Struct 742 (2005) 153-159
283. 3 bands of HOBr around 16 μm studied by high-resolution Fourier-transform spectroscopy. J Mol Spectrosc 221 (2003) 239-243
284. 1 bands of HOBr in the near-infrared. J Mol Spectrosc 2009, to be submitted.
285. Rothman L.S., Barbe A., Benner D.C., Brown L.R., Camy-Peyret C., Carleer M.R., et al. The HITRAN molecular spectroscopic database: edition of 2000 including updates through 2001. JQSRT 82 (2003) 5-44
286. -1: an experimental and theoretical study. JQSRT 109 (2008) 952-962
287. 7 band of ethylene at room and low temperatures. J Mol Spectrosc 222 (2003) 284-290
288. 4 at planetary atmospheric temperatures. JQSRT 47 (1992) 237-242
289. 4. JQSRT 50 (1993) 477-482
290. 4. J Mol Spectrosc 201 (2000) 56-61
291. Xu LH. University of New Brunswick, St John, Canada, private communication, 2007.
292. McElroy M.B., Salawitch R.J., Wofsy S.C., and Logan J.A. Reductions of Antarctic ozone due to synergistic interactions of chlorine and bromine. Nature 321 (1986) 759-762
293. Kurylo MJ, Rodriguez JM, Andreae MO, Atlas EL, Blake DR, Butler JH, et al. World Meteorological Organization; 1999.
294. 81Br. J Mol Spectrosc 228 (2004) 441-452
295. Kwabia Tchana F., Jacquemart D., Lacome N., Kleiner I., and Orphal J. Absolute line intensities in methyl bromide: the 7-μm region. J Mol Spectrosc 235 (2006) 132-143
296. 3Br in the 10-μm spectral region. JQSRT 105 (2007) 264-302
297. 2 collisions. JQSRT 4 (1964) 453-469
298. -1. J Mol Spectrosc 218 (2003) 135-150
299. Rothman L.S., Gamache R.R., Goldman A., Brown L.R., Toth R.A., Pickett H.M., et al. The HITRAN database: 1986 edition. Appl Opt 26 (1987) 4058-4097
300. 3Cl spectral lines. J Mol Spectrosc 161 (1993) 416-426
301. 35Cl. J Mol Struct 780-781 (2006) 268-276
302. 3 calculated by Quantum Fourier Transform Theory with realistic collision dynamics. J Mol Spectrosc 109 (1985) 283-299
303. 3Br in the 10-μm spectral region. JQSRT 109 (2008) 569-579
304. 6 Q branches of methyl bromide broadened by nitrogen: experiment and modelling. JQSRT 109 (2008) 119-131
305. 3Br at low temperatures. J Mol Spectrosc 2009, in press.
306. 2-broadening, and pressure-induced shifts. JQSRT 109 (2008) 974-994
307. Fabian M., Morino I., and Yamada K.M.T. Analysis of the line profiles of
308. 14N located near 220.7 GHz. J Mol Spectrosc 238 (2006) 98-107
309. 6 inferred from firn air. Environ Sci Technol 41 (2007) 2184-2189
310. Cicerone R.J. Atmospheric carbon tetrafluoride: a nearly inert gas. Science 206 (1979) 59-61
311. 4) based on ATMOS observations from space. Geophys Res Lett 23 (1996) 2353-2356
312. 4) increase inferred from 1985-2004 infrared space-based solar occultation measurements. Geophys Res Lett 33 (2006) 02808
313. 4 in infrared balloon-borne solar spectra. Geophys Res Lett 6 (1979) 609-612
314. Brown L.R., Farmer C.B., Rinsland C.P., and Toth R.A. Molecular line parameters for the atmospheric trace molecule spectroscopy (ATMOS) experiment. Appl Opt 26 (1987) 5154-5182
315. 4. Mol Phys 85 (1995) 735-744
316. Wenger C., Boudon V., Rotger M., Sanzharov M., and Champion J.P. XTDS and SPVIEW: graphical tools for the analysis and simulation of high-resolution molecular spectra. J Mol Spectrosc 251 (2008) 102-113
317. Papoušek D., Papouskova Z., and Chong D.P. Density functional computations of the dipole moment derivatives for halogenated methanes. J Phys Chem 99 (1995) 15387-15395
318. 4. In preparation.
319. 4. J Mol Spectrosc 178 (1996) 139-142
320. Massie S.T., and Goldman A. The infrared absorption cross-section and refractive-index data in HITRAN. JQSRT 82 (2003) 413-428
321. Di Lonardo G., and Masciarelli G. Infrared absorption cross-sections and integrated absorption intensities of HFC-125 and HFC-143a. JQSRT 66 (2000) 129-142
322. Smith K., Newnham D., Page M., Ballard J., and Duxbury G. Infrared absorption cross-sections and integrated absorption intensities of HFC-134 and HFC-143a vapour. JQSRT 59 (1998) 437-451
323. Clerbaux C., Colin R., Simon P.C., and Granier C. Infrared cross sections and global warming potentials of 10 alternative hydrohalocarbons. J Geophys Res 98 D6 (1993) 10491-10497
324. Rinsland C.P., Sharpe S.W., and Sams R.L. Temperature-dependent infrared absorption cross sections of methyl cyanide (acetonitrile). JQSRT 96 (2005) 271-280
325. Allen G., Remedios J.J., and Smith K.M. Low temperature mid-infrared cross-sections for peroxyacetyl nitrate (PAN) vapour. Atmos Chem Phys 5 (2005) 3153-3158
326. Allen G., Remedios J.J., Newnham D.A., Smith K.M., and Monks P.S. Improved mid-infrared cross-sections for peroxyacetyl nitrate (PAN) vapour. Atmos Chem Phys 5 (2005) 47-56
327. Remedios J.J., Allen G., Waterfall A.M., Oelhaf H., Kleinert A., and Moore D.P. Detection of organic compound signatures in infra-red, limb emission spectra observed by the MIPAS-B2 balloon instrument. Atmos Chem Phys 7 (2007) 1599-1613
328. Rinsland C.P., Devi V.M., Blake T.A., Sams R.L., Sharpe S., and Chiou L. Quantitative measurement of integrated band intensities of benzene vapor in the mid-infrared at 278, 298, and 323 K. JQSRT 109 (2008) 2511-2522
329. 2. J Mol Spectrosc 207 (2001) 120
330. Chance K. Ultraviolet and visible spectroscopy and spaceborne remote sensing of the Earth's atmosphere. C R Phys 6 (2005) 836-847
331. Bass A.M., and Paur R.J. UV absorption cross-sections for ozone: the temperature dependence. J Photochem 17 (1981) 41
332. Bass A.M., and Paur R.J. The ultraviolet cross-sections of ozone: I-the measurements. In: Zerefos C.S., and Ghazi A. (Eds). Atmospheric ozone (1985), Reidel D, Dordrecht 606-610
333. Bass A.M., and Paur R.J. The ultraviolet cross-sections of ozone: II-results and temperature dependence. In: Zerefos C.S., and Ghazi A. (Eds). Atmospheric ozone (1985), Reidel D, Dordrecht 611-616
334. Liu X., Chance K., Sioris C.E., and Kurosu T.P. Impact of using different ozone cross sections on ozone profile retrievals from Global Ozone Monitoring Experiment (GOME) ultraviolet measurements. Atmos Chem Phys 7 (2007) 3571-3578
335. Daumont D., Brion J., Charbonnier J., and Malicet J. Ozone UV spectroscopy I: absorption cross-sections at room temperature. J Atmos Chem 15 (1992) 145-155
336. 3. Temperature effect. Chem Phys Lett 213 (1993) 610-612
337. Malicet C., Daumont D., Charbonnier J., Parisse C., Chakir A., and Brion J. Ozone UV spectroscopy, II. Absorption cross sections and temperature dependence. J Atmos Chem 21 (1995) 263-273
338. Brion J., Chakir A., Charbonnier J., Daumont D., Parisse C., and Malicet J. Absorption spectra measurements for the ozone molecule in the 350-830 nm region. J Atmos Chem 30 (1998) 291-299
339. Fleischmann O.C., Hartmann M., Burrows J.P., and Orphal J. New ultraviolet absorption cross-sections of BrO at atmospheric temperatures measured by time-windowing Fourier transform spectroscopy. J Photochem Photobiol A 168 (2004) 117-132
340. 1/2 transition of BrO. J Phys Chem A 103 (1999) 8935-8945
341. Meller R., and Moortgat G.K. Temperature dependence of the absorption cross sections of formaldehyde between 223 and 323 K in the wavelength range 225-375 nm. J Geophys Res 105 D6 (2000) 7089-7101
342. Cantrell C.A., Davidson J.A., McDaniel A.H., Shetter R.E., and Calvert J.G. Temperature-dependent formaldehyde cross sections in the near-ultraviolet spectral region. J Phys Chem 94 (1990) 3902-3908
343. 3 photochemistry: part 1: determination of the absolute absorption cross sections of iodine oxides of atmospheric relevance. J Photochem Photobiol A 176 (2005) 15-38
344. Saiz-Lopez A., Chance K., Liu X., Kurosu T.P., and Sander S.P. First observations of iodine oxide from space. Geophys Res Lett 34 (2007) 12812
345. 2 and SO. J Chem Phys 40 (1964) 1132-1136
346. 2 absorption cross-section measurement in the UV using a Fourier transform spectrometer. J Geophys Res 99 (1994) 25599-25605
347. 2 using a frequency-doubled pulsed dye laser, with application to the remote sensing of atmospheric pollutants. Opt Commun 33 (1980) 281-291
348. 2 UV absorption cross sections at elevated temperatures and pressures. Appl Spectrosc 51 (1997) 1311-1315
349. 2 in the 2080- to 2950-A region, with application to Io. Icarus 145 (2000) 289-296
350. 2 cross section data in the ultraviolet region. Geophys Res Lett 8 (1981) 769-771
351. 2 absorption coefficients using a tunable dye laser. J Appl Phys 46 (1975) 3040-3043
352. 2, 2: 220 to 325 nm at 295 K. J Geophys Res (2003) 108 10.1029/2002JE001931
353. 2 from 106 to 403 nm. JQSRT 50 (1993) 267-276
354. 2 absorption cross sections in the near UV. JQSRT 37 (1987) 165-182
355. 2 entre 200 et 300 K. Moon Planets 29 (1983) 177-183
356. 2 at 300 K. JQSRT 45 (1991) 69-75
357. Brassington D.J. Sulfur dioxide absorption cross-section measurements from 290 to 317 nm. Appl Opt 20 (1981) 3774-3779
358. Bogumil K., Orphal J., Homann T., Voigt S., Spietz P., Fleischmann O.C., et al. Measurements of molecular absorption spectra with the SCIAMACHY pre-flight model: instrument characterization and reference data for atmospheric remote-sensing in the 230-2380 nm region. J Photochem Photobiol A 157 (2003) 167-184
359. 2 at 188-231 and 278.7-320 nm. JQSRT 47 (1992) 359-373
360. 34S sulfur dioxide: ultraviolet absorption cross sections and isotope effects. J Geophys Res (2008) 113 10.1029/2007JD009695
361. Sidebottom H.W., Badcock C.C., Jackson G.E., Calvert J.G., Reinhardt G.W., and Damon E.K. Photooxidation of sulfur dioxide. Environmental Science & Technology 6 (1972) 72-79
362. Clements J.H. On the absorption spectrum of sulphur dioxide. Phys Rev 47 (1933) 224-232
363. 2 absorption cross-section measurements from 320 to 405 nm. JQSRT 53 (1995) 349-352
364. -1 (225-345 nm) region. JQSRT 2009; submitted for publication.
365. -1 (345-425 nm) region. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2009.01.031.
366. WHO air quality guidelines for Europe, 2nd ed. WHO Regional Publications, European Series no. 91, Copenhagen, Denmark, ISBN 92-890-1358-3, ISSN 0378-2255, 2000.
367. Finlayson-Pitts B.J., and Pitts J.N.J. Chemistry of the upper and lower atmosphere (2000), Academic Press, New York
368. Volkamer R., Etzkorn T., Geyer A., and Platt U. Correction of the oxygen interference with UV spectroscopic (DOAS) measurements of monocyclic aromatic hydrocarbons in the atmosphere. Atmos Environ 32 (1998) 3731-3747
369. Kim S.J., Caldwell J., Rivolo A.R., Wagener R., and Orton G.S. Infrared polar brightening on Jupiter: III. Spectrometry from the Voyager 1 IRIS experiment. Icarus 64 (1985) 233-248
370. Bézard B., Drossart P., Encrenaz T., and Feuchtgruber H. Benzene on the giant planets. Icarus 154 (2001) 492-500
371. Coustenis A., Salama A., Schulz B., Ott S., Lellouch E., Encrenaz Th., et al. Titan's atmosphere from ISO mid-infrared spectroscopy. Icarus 161 (2003) 383-403
372. Bruston P., Khlifi M., Bénilan Y., and Raulin F. Laboratory studies of organic chemistry in planetary atmospheres: from simulation experiments to spectroscopic determinations. J Geophys Res 99 E9 (1994) 19047-19062
373. 2CHCCH). Bull Am Astron Soc (2001) 1109
374. 6. Bull Am Astron Soc (2000) 1646
375. 10 (l=±1) band. J Mol Spectrosc 193 (1999) 293-305
376. Fally S, Carleer M, Vandaele AC. UV Fourier transform absorption cross sections of benzene, toluene, meta-, ortho-, and para-xylene. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2008.11.014.
377. Etzkorn T., Klotz B., Sorensen S., Patroescu I.V., Barnes I., Becker K.H., et al. Gas-phase absorption cross sections of 24 monocyclic aromatic hydrocarbons in the UV and IR spectral ranges. Atmos Environ 33 (1999) 525-540
378. Suto M., Wang X., Shan J., and Lee L.C. Quantitative photoabsorption and fluorescence spectroscopy of benzene, naphthalene, and some derivatives at 106-295 nm. JQSRT 48 (1992) 79-89
379. Trost B., Stutz J., and Platt U. UV-absorption cross sections of a series of monocyclic aromatic compounds. Atmos Environ 31 (1997) 3999-4008
380. Wagner R., Benz S., Mohler O., Saathoff H., Schnaiter M., and Schurath U. Mid-infrared extinction spectra and optical constants of supercooled water droplets. J Phys Chem A 109 (2005) 7099-7112
381. Downing H.D., and Williams D. Optical constants of water in the infrared. J Geophys Res 80 (1975) 1656-1661
382. Warren S.G., and Brandt R.E. Optical constants of ice from the ultraviolet to the microwave: a revised compilation. J Geophys Res (2008) 113
383. Warren S.G. Optical constants of ice from the ultraviolet to the microwave. Appl Opt 23 (1984) 1206-1225
384. Clapp M.L., Miller R.E., and Worsnop D.R. Frequency-dependent optical constants of water ice obtained directly from aerosol extinction spectra. J Phys Chem 99 (1995) 6317-6326
385. Matzler C. Microwave dielectric properties of ice. In: Matzler C., et al. (Ed). Thermal microwave radiation-applications for remote sensing, electromagnetization, waves series vol. 52 (2006), Inst Eng Technology, Stevenage, UK 455-462 [chapter 5]
386. 4 at different temperatures and compositions: variations in dissociation and optical properties. J Phys Chem A 107 (2003) 1979-1991
387. 2O at low temperatures in the infrared region. J Phys Chem A 109 (2005) 7166-7171
388. 2O Optical constants: new measurements from aerosol spectroscopy under stratospheric conditions. J Phys Chem A 106 (2002) 6075-6083
389. 2O in the mid infrared at atmospheric temperatures. J Phys Chem A 104 (2000) 783-793
390. 18O. JQSRT 2009; this issue, doi:10.1016/j.jqsrt.2009.02.014.
391. Bernath P.F. Spectra of atoms and molecules. 2nd ed (2005), Oxford University Press, New York
392. Šimečková M., Jacquemart D., Rothman L.S., Gamache R.R., and Goldman A. Einstein A-coefficients and statistical weights for molecular absorption transitions in the HITRAN database. JQSRT 98 (2006) 130-155
393. Rothman L.S., Rinsland C.P., Goldman A., Massie S.T., Edwards D.P., Flaud J.M., et al. The HITRAN molecular spectroscopic database and HAWKS (HITRAN Atmospheric Workstation): 1996 edition. JQSRT 60 (1998) 665-710
394. De Bièvre P., Gallet M., Holden N.E., and Barnes I.L. Isotopic abundances and atomic weights of the elements. J Phys Chem Ref Data 13 (1984) 809-891