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      2002 Back to top

    1. Kuhn, T., A. Bauer, M. Godon, S. A. Buehler, and K. Kuenzi (2002), Water vapor continuum: Absorption measurements at 350 GHz and model calculations, J. Quant. Spectrosc. Radiat. Transfer, 74(5), 545–562, doi:10.1016/S0022-4073(01)00271-0.

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              External references

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              10. Barton, I. J. (1991), Infrared continuum water vapor absorption coefficients derived from satellite data, Appl. Opt., 30(21), 2929–2934.
              11. Bauer, A. and M. Godon (2001), Continuum for H2O-X mixtures in the H2O spectral window at 239 GHz; X=C2H4, C2H6 Are collision-induced absorption processes involved?, J. Quant. Spectrosc. Radiat. Transfer, 69, 277–290.
              12. Bauer, A., B. Duterage, and M. Godon (1986), Temperature dependence of water-vapor absorption in the wing of the 183 GHz line, J. Quant. Spectrosc. Radiat. Transfer, 36(4), 307–318.
              13. Bauer, A. and M. Godon (1991), Temperature dependence of water-vapor absorption in linewings at 190 GHz, J. Quant. Spectrosc. Radiat. Transfer, 46(3), 211–220.
              14. Bauer, A., M. Godon, J. Carlier, Q. Ma, and R. H. Tipping (1993), Absorption by H2O and H2O-N2 Mixtures at 153 GHz, J. Quant. Spectrosc. Radiat. Transfer, 50(5), 463–475.
              15. Bauer, A., M. Godon, and Q. Ma (1995), Water vapor absorption in the atmospheric window at 239 GHz, J. Quant. Spectrosc. Radiat. Transfer, 53(4), 411–423.
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              17. Bauer, A., M. Godon, J. Carlier, and R. R. Gamache (1998), Continuum in the Windows of the Water Vapor Spectrum. Absorption of H2O-Ar at 239 GHz and Linewidth Calculations, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 273–285.
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              19. Belmiloud, D., R. Schermaul, K. S. Smith, N. F. Zobov, J. W. BRault an R. C. M. Learner, D. A. Newnham, and J. Tennyson (2000), New Studies of the Visible and Near-Infrared Absorption by Water Vapour and Some Problems with the HITRAN database, Geophys. Res. Lett., 27(22), 3703–3706.
              20. Ben-Reuven, A. (1965), Transition from Resonant to Nonresonant Line Shape in Microwave Absorption, Phys. Rev., 14(10), 349–351.
              21. Bennartz, R. and U. Lohmann (2001), Impact of improved near infrared water vapor line data on absorption of solar radiation in GCMs, Geophys. Res. Lett., 28(24), 4591–4594.
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              23. Bernath, P., M. Carleer, S. Fally, A. Jenouvrier, A. C. Vandaele, C. Hermans, M.-F. Merienne, and R. Colin (1998), The Wulf bands of oxygen, Chem. Phys. Lett., 297, 293–299.
              24. Betzler, K. (2002), Fabry-Perot Interferometer, Universitaet Osnabrueck.
              25. Birnbaum, G. and A. A. Maryott (1962), Collision-Induced Microwave Absorption in Compressed Gases. II. Molecular Electric Quadrupole Moments, J. Chem. Phys., 36(8), 2032–2036.
              26. Birnbaum, G. (1966), Theory of Microwave Nonresonant Absorption and Relaxation in Gases, Phys. Rev., 150(1), 101–109.
              27. Birnbaum, G. and E. R. Cohen (1976), Theory of line shape in pressure-induced absorption, Can. J. Phys., 54, 593–602.
              28. Birnbaum, G., A. Borysow, and A. Buechele (1993), Collision-induced absorption in mixtures of symmetrical linear and tetrahedral molecules: Methane-nitrogen, J. Chem. Phys., 99(5), 3234–3243.
              29. Birnbaum, G., A. Borysow, and G. S. Orton (1996), Collision-Induced Absorption of H2-H2 and H2-He in the Rotational and Fundamental Bands for Planetary Applications, Icarus, 123, 4–22.
              30. Birnbaum, G. (1111), Collision Induced Spectroscopy: Absorption and Light Scattering, Gaithersburg MD, University of Texas at Austin, University of Manitoba.
              31. Bohren, C. and D. R. Huffman (1998), Absorption and Scattering of Light by Small Particles, Wiley Science Paperback Series.
              32. Boissoles, J., C. Boulet, R. H. Tipping, A. Brown, and Q. Ma (2003), Theoretical calculation of the translation-rotation collision-induced absorption in N2-N2, O2-O2, and N2-O2 pairs, J. Quant. Spectrosc. Radiat. Transfer, 82, 505–516.
              33. Boissoles, J., R. H. Tipping, and C. Boulet (1994), Theoretical Study of the Collision-Induced Fundamental Absorption Spectra of N2-N2 Pairs for Temperatures between 77 and 297 K, J. Quant. Spectrosc. Radiat. Transfer, 51(4), 615–627.
              34. Borysow, A. (2002), Collision-induced absorption in the infrared: A data base for modelling planetary and stellar atmospheres, University of Copenhagen.
              35. Borysow, A. and L. Frommhold (1986), Collision-Induced Rototranslational Absorption Spectra of N2-N2 Pairs for Temperatures from 50 to 300 K, Astrophys. J., 311, 1043–1057.
              36. Borysow, A. and L. Frommhold (1986), Theoretical Collision-Induced Rototranslational Absorption Spectra for Modeling Titan's Atmosphere: H2-N2 Pairs, Astrophys. J., 303, 495–510.
              37. Borysow, A. and L. Frommhold (1986), Theoretical Collision-Induced Rototranslational Absorption Spectra for the outer Planets: H2-CH4 Pairs, Astrophys. J., 304, 849–865.
              38. Borysow, A. and M. Moraldi (1992), Effects of Anisotropic Interaction on Collision-Induced Absorption by Pairs of Linear Molecules, Phys. Rev. L, 68(25), 3686–3689.
              39. Bosisio, A. V. and G. Drufuca (2003), Retrieval of two-dimensional absorption coefficient structure from a scanning radiometer at 23.8 GHz, Radio Sci., 38(3), doi:10.1029/2002RS002628.
              40. Bosomworth, D. R. and H. P. Gush (1965), Collision-Induced Absorption of Compressed Gases in the far infrared, Part I, Can. J. Phys., 43, 729–750.
              41. Bosomworth, D. R. and H. P. Gush (1965), Collision-Induced Absorption of Compressed Gases in the far infrared, Part II, Can. J. Phys., 43, 751–769.
              42. Boulet, C. and D. Robert (1982), Short time behavior of the dipole autocorrelation function and molecular gases absorption spectrum, J. Chem. Phys., 77(8), 4288–4299.
              43. Boulet, C. (1111), On some Aspects of Molecular Broadening, from Resonance to the far Wings, Universite de Rennes.
              44. Brindley, H. E. and J. E. Harries (1998), The Impact of Far I.R. Absorption on clear sky greenhouse forcing: sensitivity studies at high spectral resolution, J. Quant. Spectrosc. Radiat. Transfer, 60(2), 151–180.
              45. Brown, W. B. and H. A. Gebbie (1992), Millimetre Wave Absorption by Aqueous Aerosol Clusters, Infrared Phys., 33(5), 359–371.
              46. Buffey, I. P., W. B. Brown, and H. A. Gebbie (1990), A Theoretical Study of the Infrared Absorption Spectra of Large Water Clusters, J. Chem. Soc. Far. Trans., 86(13), 2357–2360.
              47. Buontempo, U., S. Cunsolo, and G. Jacucci (1975), The far infrared absorption spectrum of N2 in the gas and liquid phases, J. Chem. Phys., 63(6), 2570–2576.
              48. Burch, D. E. (1968), Absorption of Infrared Radiant Energy by CO2 and H2O. III. Absorption by H2O between 0.5 and 36 cm-1 ( 287 μ – 2 cm), J. Optical Soc. o. Am., 58(10), 1383–1394.
              49. Burkhalter, J. H., R. S. Anderson, W. V. Smith, and W. Gordy (1949), A Preliminary Report on the Fine Structue of the Microwave Absoprtion Spectrum of Oxygen, Duke University.
              50. Burkhalter, J. H., R. S. Anderson, W. V. Smith, and W. Gordy (1950), The Fine Structur of the Microwave Absorption Spectrum of Oxygen, Phys. Rev., 79(4), 651–655.
              51. Carlon, H. R. (1978), Phase transition changes in the molecular absorption coefficient of water in the infrared: evidence for clusters, Appl. Opt., 17(20), 3192–3193.
              52. Carlon, H. R. (1981), Infrared water vapor continuum absorption: equilibria of ions and neutral water clusters, Appl. Opt., 20(8), 1316–1322.
              53. Cavalieri, S., E. Arimondo, and M. Matera (1992), Modification of the far-wing absorption profile due to collisional coherence, Phys. Rev., 45(11), 8005–8010.
              54. Cheruy, F. and N. A. Scott (1995), Contribution to the development of radiative transfer models for high spectral resolution observations in infrared, J. Quant. Spectrosc. Radiat. Transfer, 53(6), 597–611.
              55. Chylek, P. and D. J. W. Geldart (1997), Water vapor dimers and atmospheric absorption of electromagnetic radiation, Geophys. Res. Lett., 24(16), 2015–2018.
              56. Chylek, P., Q. Fu, H. C. W. Tso, and D. J. W. Geldart (1999), Contribution of water vapor dimers to clear sky absorption of solar radiation, Tellus, 51, 304–313.
              57. Clough, S. A., M. W. Shephard, E. J. Mlawer, J. S. Delamere, M. Iacono, K. Cady-Pereira, S. Boukabara, and P. D. Brown (2005), Atmospheric radiative transfer modeling: a summary of the AER codes, J. Quant. Spectrosc. Radiat. Transfer, 91(2), 233–244, doi:10.1016/j.jqsrt.2004.05.058.
              58. Clough, S. A., F. X. Kneizys, and R. W. Davies (1989), Line Shape and the Water Vapor Continuum, Atmos. Res., 23, 229–241, doi:10.1016/0169-8095(89)90020-3.
              59. Collins, W. D., J. K. Hackney, and D. P. Edwards (2002), An updated parameterization for infrared emission and absorption by water vapor in the National Center for Atmospheric Research Community Atmosphere Model, J. Geophys. Res., 107(D22), doi:10.1029/2001JD001365.
              60. Crawford, M. F., H. L. Welsh, and J. L. Locke (1949), Infra-Red Absorption of Oxygen and Nitrogen Induced by Intermolecular Forces, University of Toronto.
              61. Dagg, I. R., G. E. Reesor, and J. L. Urbaniak (1975), Collision Induced Absorption in N2, CO2, and H2 at 2.3 cm-1, Can. J. Phys., 53, 1764–1776.
              62. Dagg, I. R., G. E. Reesor, and M. Wong (1978), A microwave cavity measurement of collision-induced absorption in N2 and CO2 at 4.6 cm-1, Can. J. Phys., 56, 1037–1045.
              63. Dagg, I. R., A. Anderson an S. Yan, W. Smith, and L. A. A. Read (1985), Collision-induced absorption in nitrogen at low temperatures, Can. J. Phys., 63, 625–631.
              64. Daniel, J. S., S. Solomon, R. W. Sanders, R. W. Portmann, D. C. Miller, and W. Madsen (1999), Implications for water monomer and dimer solar absorption from observations at Boulder, Colorado, J. Geophys. Res., 104(D14), 16,785–16,791.
              65. Danos, M. and S. Geschwind (1953), Broadening of Microwave Absorption Lines Due to Wall Collisions, Phys. Rev., 91(5), 1159–1162.
              66. Davis, G. R. (1993), The far infrared continuum absorption of water vapor, J. Quant. Spectrosc. Radiat. Transfer, 50(6), 673–694.
              67. de Pater, I. and S. T. Massie (1985), Models of the Millimeter-Centimeter Spectra of the Giant Planets, Icarus, 62(1), 143–171, doi:10.1016/0019-1035(85)90177-0.
              68. Drayson, S. R. (1976), Rapid computation of the Voigt profile, J. Quant. Spectrosc. Radiat. Transfer, 16, 611–614.
              69. Dudhia, A., P. E. Morris, and R. J. Wells (2002), Fast monochromatic radiative transfer calculations for limb sounding, J. Quant. Spectrosc. Radiat. Transfer, 74(6), 745–756, doi:10.1016/S0022-4073(01)00285-0.
              70. Dumesh, B. S. and L. A. Surin (1996), Two highly sensitive microwave cavity spectrometers, Rev. Sci. Inst., 67(10), 3458–3465.
              71. Elsasser, W. M. (1938), Far Infrared Absorption of Atmospheric Water Vapor, Astrophys. J., 87(5), 497–507.
              72. Elsasser, W. M. (1938), Note on Atmospheric Absorption Caused by the Rotational Water Band, Phys. Rev., 53, 768.
              73. Emery, R. J., P. Moffat, R. A. Bohlander, and H. A. Gebbie (1975), Measurements of anomalous atmospheric absorption in the wavenumber range 4 cm-1–15cm-1, J. Atm. Terr. Phys., 37, 587–594.
              74. Emery, R. J., A. M. Zavody, and H. A. Gebbie (1980), Measurements of atmospheric absorption in the range 5-17 cm-1 and its temperature dependence, J. Atm. Terr. Phys., 42, 801–807.
              75. English, S. J., C. Guillou, C. Prigent, and D. C. Jones (1994), Aircraft measurements of water vapour continuum absorption millimetre wavelengths, Q. J. R. Meteorol. Soc., 120, 603–625.
              76. English, S. J., D. C. Jones, P. J. Rayer, T. J. Hewison, R. W. Saunders, C. Guillou, C. Prigent, J. Wang, and G. Anderson (1995), Observations of water vapour absorption using airborne microwave radiometers at 89 and 157 Ghz, IEEE, 1395–1404.
              77. Erukhimova, T. L. and E. V. Suvorov (2001), Retrieval of Ozone-Denisty and Atmospheric-Temperature Profiles using the Spectra of Microwave Absorption in two Rotational Ozone Lines, Radiophys. Quant. Elec., 44(1–2), 129–136.
              78. Evans, G. T. and V. Vaida (2000), Aggregation of water molecules: Atmospheric implications, J. Chem. Phys., 113(16), 6652–6659.
              79. Filippov, N. N., V. P. Ogibalov, and M. V. Tonkov (2002), Line mixing effect on the pure CO2 absorption in the 15 μm region, J. Quant. Spectrosc. Radiat. Transfer, 72, 315–325.
              80. Fogarty, W. E. (1975), Total Atmospheric Absorption at 22.2 GHz, IEEE Trans. Antennas Propag., 441–445.
              81. Fomin, B. A. (1995), Effective Interpolation Technique for Line-by-Line Calculations of Radiation Absorption in Gases, J. Quant. Spectrosc. Radiat. Transfer, 53(6), 663–669, doi:10.1016/0022-4073(95)00029-K.
              82. Fowler, B. W. and C. C. Sung (1976), Inadequacy of the statistical many-body model for molecular infrared absorption in the far wings, Phys. Rev., 13(6), 2318–2321.
              83. Gagliardi, G., G. Rusciano, and L. Gianfrani (2000), Narrow H218O lines and new absolute frequency references in the near-IR, J. Opt. A: Pure Appl. Opt., 2, 310–313.
              84. Gaiduk, V. I. (2003), The Theory of the Second Relaxation Region in Liquid Water, Opt. Spectro., 94(2), 199–208.
              85. Gamache, R.R., S. Kennedy, R. Hawkins, and L.S. Rothman (2000), Total internal partition sums for molecules in the terrestrial atmosphere, J. Molec. Struct., 407–425.
              86. Gao, B.-C., K. Meyer, and P. Yang (2004), A new concept on remote sensing of cirrus optical depth and effective ice particle size using strong water vapor absorption channels near 1.38 and 1.88 micrometer, IEEE T. Geosci. Remote, 42(9), 1891–1899.
              87. Godon, M., A. Bauer, and R. R. Gamache (2000), The Continuum of Water Vapor Mixed with Methane: Absolute Absorption at 239 GHz and Linewidth Calculations, J. Molec. Spectro., 202, 293–202.
              88. Godon, M., J. Carlier, and A. Bauer (1992), Laboratory studies of water vapor absorption in the atmospheric window at 213 GHz, J. Quant. Spectrosc. Radiat. Transfer, 47(4), 275–285.
              89. Gokhale, B. V. and M. W. P. Strandberg (1951), Line Breadths in the 5-mm Microwave Absorption of Oxygen, Massachusetts Institute of Technology.
              90. Golovko, V. F. (2000), Dispersion formula and continuous absorption of water vapor, J. Quant. Spectrosc. Radiat. Transfer, 65, 621–644.
              91. Golovko, V. F. (2001), Continuous absorption of water vapor and a problem of the absorption enhancement in the humid atmosphere, J. Quant. Spectrosc. Radiat. Transfer, 69, 431–446.
              92. Golubiatnikov, G. Y., M. A. Koshelev, and A. F. Krupnov (2003), Reinvestigation of pressure broadening parameters at 60-GHz band and single 118.75 GHz oxygen lines at room temperature, J. Molec. Spectro., 222, 191–197.
              93. Grant, W. B. (1990), Water vapor absorption coefficients in the 8–13 μm spectral region: a critical review, Appl. Opt., 29(4), 451–463.
              94. Greenblatt, G. D., J. J. Orlando, J. B. Burkholder, and A. R. Ravishankara (1990), Absorption Measurements of Oxygen Between 330 and 1140 nm, J. Geophys. Res., 95(D11), 18,577–18,582.
              95. Groenenboom, G. C., E. M. Mas, R. Bukowski, K. Szalewicz, P. E. S. Wormer, and A. van der Avoird (2000), Water Pair and Three-Body Potential of Spectroscopic Quality from Ab Initio Calculations, Phys. Rev. L, 84(18), 4072–4075.
              96. Gross, E. P. (1955), Inertial Effects and Dielectric Relaxation, J. Chem. Phys., 23(8), 1415–1423.
              97. Gross, E. P. and J. Otieno-Malo (1972), Collision Broadening of Rotational Spectrum, J. Chem. Phys., 57(6), 2229–2239.
              98. Gruszka, M. and A. Borysow (1997), Roto-Translational Collision-Induced Absorption of CO2 for the Atmosphere of Venus at Frequencies from 0 to 250 cm-1, at Temperatures from 200 to 800 K, Icarus, 172–177.
              99. Hannon, S., L. L. Strow, and W. W. McMillan (1996), Atmospheric Infrared Fast Transmittance Models: A Comparison of Two Approaches, University of Maryland Baltimore Country.
              100. Harries, J. E. (1979), The temperature dependence of collision-induced absorption in gaseous N2, J. Optical Soc. o. Am., 69(3), 386–393.
              101. Harries, J. E. (1996), The greenhouse Earth: A view from Space, J. Quant. Spectrosc. Radiat. Transfer, 122(532), 799–818.
              102. Hartmann, J. M., C. Brodbeck, P.-M. Flaud, R. H. Tipping, A. Brown, Q. Ma, and J. Lievin (2002), Collision-induced absorption in the ν2 fundamental band of CH4.II. Dependence on the perturber gas, J. Chem. Phys., 116(1), 123–127.
              103. Hartmann, J. M. (1989), Measurements and calculations of CO2 room-temperature high-pressure spectra in the 4.3 μm region, J. Chem. Phys., 90, 2944–2950.
              104. Hartmann, J.-M., J.-P. Bouanich, K. W. Jucks, G. Blanquet, J. Walrand, D. Bermejo, J.-L. Domenech, and N. Lacome (1999), Line-mixing effects in N2O Q branches: Model, laboratory, and atmospheric spectra, J. Chem. Phys., 110(4), 1959–1968.
              105. Harvey, J. N., J. O. Jung, and R. B. Gerber (1998), Ultraviolet spectroscopy of water clusters: Excited electronic states and absorption line shape of (H2O)n, n=2-6, J. Chem. Phys., 109(20), 8747–8750.
              106. Headrick, J. E. and V. Vaida (2001), Signification of Water Complexes in the Atmosphere, Phys. Chem. Earth, 26(7), 479–486.
              107. Heastie, R. and D. H. Martin (1962), Collision-Induced Absorption of Submillimeter Radiation by Non-Polar Atmospheric Gases, Can. J. Phys., 40, 122–127.
              108. Hill, R. J. (1986), Water vapor-absorption line shape comparison using 22-GHz line: The Van Vleck-Weisskopf shape affirmed, Radio Sci., 21(3), 447–451.
              109. Hill, R. J. (1987), Absorption by the Tails of the Oxygen Microwave Resonances at Atmospheric Pressures, IEEE Trans. Antennas Propag., AP-35(2), 198–204.
              110. Hinderling, J., M. W. Sigrist, and F. K. Kneubuehl (1987), Laser-photoacoustic spectroscopy of water-vapor continuum and line absorption in the 8 to 14 μm atmospheric window, Infrared Phys., 27(2), 63–120.
              111. Ho, W., I. A. Kaufman, and P. Thaddeus (1966), Laboratory measurement of microwave absorption in models of the atmosphere of Venus, J. Geophys. Res., 71(21), 5091–5108.
              112. Ho, W., I. A. Kaufman, and P. Thaddeus (1968), Pressure-Induced Microwave Absorption in N2, J. Chem. Phys., 49(8), 3627–3631.
              113. Holdaway, M. A. and J. R. Pardo (1997), Modeling of the Submillimeter Opacity on Chajnanto, , MMA Memo 187.
              114. Hollweg, H.-D. (1993), A k Distribution Method Consindering Centres and Wings of Atmospheric Absorption Lines, J. Geophys. Res., 98(D2), 2747–2756.
              115. Hong, G. (2007), Parameterization of scattering and absorption properties of nonspherical ice crystals at microwave frequencies, J. Geophys. Res., 112, D11208, doi:10.1029/2006JD008364.
              116. Hopponen, J. D. and H. J. Liebe (1986), A Computational Model for the Simulation of Millimeter-Wave Propagation Through the Clear Atmosphere, NTIA.
              117. Hudis, E., Y. Ben-Aryeh, and U. P. Oppenheim (1991), Third-order linear absorption by pairs of molecules, Phys. Rev., 43(7), 3631–3639.
              118. Hudis, E., Y. Ben-Aryeh, and U. P. Oppenheim (1992), The Contribution of Third Order Linear Absorption to the Water Vapor Continuum, J. Quant. Spectrosc. Radiat. Transfer, 47(5), 319–323.
              119. Jacquinet-Husson, N., et al. (1999), The 1997 spectroscopic GEISA databank, J. Quant. Spectrosc. Radiat. Transfer, 205–254.
              120. Jones, D. T. Llewellyn, R. J. Knight, and H. A. Gebbie (1978), Absorption by water vapour at 7.1 cm-1 and its temperature dependence, Nature, 247, 876–878.
              121. Kalmykov, Y. P. and S. V. Titov (1993), Molecular absorption by water vapor in the millimeter and submillimeter ranges, Opt. Spectro., 75(3), 361–364.
              122. Karmakar, P. K., M. Maiti, S. Chattopadhyay, and M. Rahaman (2002), Effects of Water Vapor and Liquid Water on Microwave Absorption, and their Application, Radio Sci., 32–36.
              123. Karmakar, P. K., S. Chattopadhyay, and A. K. Sen (1999), Estimates of water vapour absorption over Calcutte at 22.235 GHz, Int. J. Remote Sensing, 20(13), 2637–2651.
              124. Karman, T., I.E. Gordon, A. van der Avoird, Y. I. Baranov, C. Boulet, B. J. Drouin, G. C. Groenenboom, M. Gustafsson, J.-M. Hartmann, R. L. Kurucz, L. S. Rothman, K. Sun, K. Sung, R. Thalman, H. Tran, E. H. Whishnow, R. Wordsworth, A. A. Vigasin, R. Volkamer, and W. J. van der Zande (in press 2019), Update of the HITRAN collision-induced absorption section, Icarus, doi:10.1016/j.icarus.2019.02.034.
              125. Katkov, V. Y. (1997), A Semiempirical Model of Millimeter and Submillimeter Radio Wave Absorption by Atmospheric Water Vapor, Journal of Communications and Electronics, 42(12), 1344–1349.
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