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  1. Albers, J. and J. M. Deutch (1973), On the Rate Equation Description of the Spectral Lines, Chem. Phys., 89–98.
  2. Allard, N. and J. Kielkopf (1982), The effect of neutral nonresonant collisions on atomic spectral lines, Rev. Mod. Phys., 54(4), 1103–1182.
  3. Anderson, P. W. (1949), Pressure Broadening in the Microwave and Infra-Red Regions, Phys. Rev., 76(5), 647–661.
  4. Anderson, P. W. (1952), A Method of Synthesis of the Statistical and Impact Theories of Pressure Broadening, Phys. Rev., 809.
  5. Armstrong, B. H. (1967), Spectrum line profiles: the Voigt function, J. Quant. Spectrosc. Radiat. Transfer, 7, 61–88.
  6. Baranger, M. (1958), General Impact Theory of Pressure Broadening, Phys. Rev., 112(3), 855–865.
  7. Baranger, M. (1958), Problem of Overlapping Line in the Theory of Pressure Broadening, Phys. Rev., 111(2), 494–504.
  8. Baranger, M. (1958), Simplified Quantum-Mechanical Theory of Pressure Broadening, Phys. Rev., 111(2), 481–493.
  9. Barlow, H. M. and A. L. Cullen (1950), Micro-Wave measurements, University College London, University of Sheffield.
  10. Belov, S. P., A. F. Krupnov, V. N. Markov, A. A. Mel'nikov, V. A. Skvortsov, and M. Y. Tret'yakov (1983), Study of Microwave Pressure Lineshifts: Dynamic and Isotopic Dependences, J. Molec. Spectro., 101, 258–270.
  11. Ben-Aryeh, Y. and A. Sorgen (1971), Self-Broadening of Molecular Spectral Lines. I. General Theory, Phys. Rev., 4(6), 2170–2188.
  12. Ben-Reuven, A. (1965), Transition from Resonant to Nonresonant Line Shape in Microwave Absorption, Phys. Rev., 14(10), 349–351.
  13. Ben-Reuven, A. (1966), Impact Broadening of Microwave Spectra, Phys. Rev., 145(1), 7–22.
  14. Ben-Reuven, A. (1971), Resonance Broadening of Spectral Lines, Phys. Rev., 4(6), 2215–2120.
  15. Benedict, W. S. and L. D. Kaplan (1959), Calculation of Line Widths in H2O-N2 Collisions, J. Chem. Phys., 30(2), 388–399.
  16. Benedict, W. S., R. Herman, G. E. Moore, and S. Silverman (1962), The Strengths, Widths, and Shapes of Lines in the Vibration-Rotation Bands of CO, Astrophys. J., 135, 277–297.
  17. Birnbaum, G. and E. R. Cohen (1976), Theory of line shape in pressure-induced absorption, Can. J. Phys., 54, 593–602.
  18. Birnbaum, G. (1979), The shape of collision broadened lines from resonance to the far wings, J. Quant. Spectrosc. Radiat. Transfer, 21, 597–607.
  19. Birnbaum, G., S.-I. Chu, A. Dalgarno, L. Frommhold, and E. L. Wright (1984), Theory of collision-induced translation-rotation spectra: H2-He, Phys. Rev., 29(2), 595–603.
  20. Bloom, S. and H. Margenau (1953), Quantum Theory of Spectral Line Broadening, Phys. Rev., 90(5), 791–794.
  21. Boone, C. D., K. A. Walker, and P. F. Bernath (2011), An efficient analytical approach for calculating line mixing in atmospheric remote sensing applications, J. Quant. Spectrosc. Radiat. Transfer, 112(6), 980–989, doi:10.1016/j.jqsrt.2010.11.013.
  22. Boulet, C., D. Robert, and L. Galatry (1980), Influence of the finite duration of collisions on the infrared line shape, J. Chem. Phys., 72(1), 751–759.
  23. Breene, R. G. Jr. (1957), Line Shape, Rev. Mod. Phys., 29(1), 94–143.
  24. Buffa, G. and O. Tarrini (1983), Comparison of Pressure Shift Impact Calculations with Experimental Results, J. Molec. Spectro., 101, 271–277.
  25. Chaussard, F., X. Michaut, R. Saint-Loup, H. Berger, P. Joubert, B. Lance, J. Bonamy, and D. Robert (2000), Collisional effects on spectral line shape from the Doppler to the collisional regime: A rigorous test of a unified model, J. Chem. Phys., 112(1), 158–166.
  26. Ch'en, S.-Y. and M. Takeo (1957), Broadening and Shift of Spectral Lines Due to the Presence of Foreign Gases, Rev. Mod. Phys., 29(1), 20–73.
  27. Chou, S.-I., D. S. Baer, and R. K. Hanson (1999), Spectral Intensity and Lineshape Measurements in the First Overtune Band of HF Using Tunable Diode Lasers, J. Molec. Spectro., 195, 123–131.
  28. Ciurylo, R. and A. S. Pine (2000), Speed-dependent line mixing profiles, J. Quant. Spectrosc. Radiat. Transfer, 67, 375–393.
  29. Ciurylo, R., A. S. Pine, and J. Szudy (2001), A generalized speed-dependent line profile combining soft and hard partially correlated Dicke-narrowing collisions, J. Quant. Spectrosc. Radiat. Transfer, 68, 257–271.
  30. Ciurylo, R. and J. Szudy (2001), Line-mixing and collision-time asymmetry of spectral line shape, Phys. Rev., 63, 042814-1–042714-6.
  31. Cooper, J. (1967), Broadening of Isolated Lines in the Impact Approximation Using a Density Matrix Formulation, Rev. Mod. Phys., 39(1), 167–177.
  32. Dattagupta, S. and L. A. Turski (1985), Boltzmann-Lorentz model of collisional broadening of spectra, Phys. Rev., 32(3), 1439–1446.
  33. Davies, R. W. (1975), Many-body treatment of pressure shifts associated with collisional broadening, Phys. Rev., 12(3), 927–946.
  34. del Toro Iniesta, J. C. (2003), Introduction to Spectropolarimetry, Cambridge University Press, ISBN 0-521-81827-3.
  35. 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.
  36. De Souza-Machade, S., L. L. Strow, D. Tobin, H. Motteler, and S. Hannon (2002), UMBC-LBL vers 7: An Algorithm to Compute Line-by-Line Spectra, University of Maryland Baltimore Country.
  37. Dicke, R. H. (1953), The Effect of Collision upon the Doppler Width of Spectral Lines, Phys. Rev., 89(2), 472–473.
  38. Dicke, R. H. (1953), The Effect of Collisions upon the Doppler Width of Spectral Lines, Phys. Rev., 89(2), 472–473, doi:10.1103/PhysRev.89.472.
  39. Dillon, T. A., E. W. Smith, J. Cooper, and M. Mizushima (1970), Semiclassical Treatment of Strong Collision in Pressure Broadening, Phys. Rev., 2(5), 1839–18846.
  40. Dillon, T. A. and J. T. Godfrey (1972), Pressure Broadening of the O2 Microwave Spectrum, Phys. Rev., 5(2), 599–605.
  41. Drayson, S. R. (1976), Rapid computation of the Voigt profile, J. Quant. Spectrosc. Radiat. Transfer, 16, 611–614.
  42. Drouin, B. J., J. Fischer, and R. R. Gamache (2002), Temperature dependent pressure induced lineshape of O3 rotational transitions in air, J. Quant. Spectrosc. Radiat. Transfer, 83, 63–81.
  43. Drouin, B. J. (2004), Temperature dependent pressure-induced lineshape of the HCl J = 1 ← 0 rotational in nitrogen and oxygen, J. Quant. Spectrosc. Radiat. Transfer, 83, 321–331.
  44. Dryagin, Y. A., V. V. Parshin, A. F. Krupnov, N. Gopalsami, and A. C. Raptis (1996), Precision Broadband Wavemeter for Millimeter and Submillimeter Range, IEEE T. Microw. Theory, 44(9), 1610–1613.
  45. Duggan, P., P. M. Sinclair, M. P. Le Flohic, J. W. Forsman, R. Berman, A. D. May, and J. R. Drummond (1993), Testing the validity of the optical diffusion coefficient: Line-shape measurements of CO perturbed by N2, Phys. Rev., 48(3), 2077–2083.
  46. Edwards, D. P. and L. L. Strow (1991), Spectral Line Shape Considerations for Limb Temperatur Sounders, J. Geophys. Res., 96(D11), 20,859–20,868.
  47. Evenson, K. M. and M. Mizushima (1972), Laser Magnetic Resonance of the O2 Molecule Using 119- and 78-μm H2O Laser Lines, Phys. Rev., 6(5), 2197–2204.
  48. Fano, U. (1963), Pressure Broadening as a Prototype of Relaxation, Phys. Rev., 131(1), 259–268, doi:10.1103/PhysRev.131.259.
  49. Filippov, N. N. and M. V. Tonkov (1996), Line mixing in the infrared spectra of simple gases at moderate and high densities, Spectro. Acta Part A: Molec. and Biomolec. Spectro., 52(8), 901–918, doi:10.1016/0584-8539(96)01669-8.
  50. Foley, H. M. (1946), The Pressure Broadening of Spectral Lines, Phys. Rev., 69(11–12), 616–628.
  51. Futurelle, R. P. (1972), Unified Theory of Spectral Line Broadening in Gases, Phys. Rev., 5(5), 2162–2182.
  52. Galatry, L. (1961), Simultaneous Effect of Doppler and Foreign Gas Broadening on Spectral Lines, Phys. Rev., 122(4), 1218–1223.
  53. Gallagher, A. (1996), Line Shape and Radiation Transfer, University of Colorado and National Institute of Standards and Technology.
  54. Gamache, R. R. and J.-M. Hartmann (2004), Collisional parameters of the H2O lines: effects of vibration, J. Quant. Spectrosc. Radiat. Transfer, 83, 119–147.
  55. Gamache, R. R., A. Goldman, and L. S. Rothman (1998), Improved Spectral Parameters for the three most abundant Isotopomers of the Oxygen Molecule, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 495–509.
  56. Gamache, R. R., R. Lynch, and S. P. Neshyba (1998), New Developments in the Theory of Pressure-Broadening and Pressure-Shifting of Spectral Lines of H2O: The Complex Robert-Bonamy Formalism, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 319–335.
  57. Gamache, R. R., E. Arie, C. Boursier, and J.-M. Hartmann (1998), Pressure-broadening and pressure-shifting of spectral lines of ozone, Spectrochimica Acta, 54, 35–63.
  58. Gao, B., G. C. Tabisz, M. Trippenbach, and J. Cooper (1991), Spectral line shape arising from collisional interference between electric-dipole-allowed and collision-induced transitions, Phys. Rev., 44(11), 7379–7391.
  59. Gersten, J. I. and H. M. Foley (1969), Theory of Pressure Broadeing of Microwave Spectral Lines, Phys. Rev., 182(1), 24–38.
  60. Gordon, R. G. (1966), Semiclassical Theory of Spectra and Relaxation in Molecular Gases, J. Chem. Phys., 45(5), 1649–1655.
  61. Gordon, R. G. (1967), On the Pressure Broadening of Molecular Multiplet Spectra, J. Chem. Phys., 46(2), 448–455.
  62. Gross, E. P. (1955), Shape of Collision-Broadened Spectral Lines, Phys. Rev., 97(2), 395–403.
  63. 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.
  64. Heer, C. V. (1972), Statistical Mechanics, Kinetic Theory, and Stochastic Processes, Ohio State University.
  65. 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.
  66. Houdeau, J. P., C. Boulet, and D. Robert (1985), A theoretical and experimental study of the infrared line shape from resonance to the wings for uncoupled lines, J. Chem. Phys., 82(4), 1661–1673.
  67. Huber, D. L. and J. H. van Vleck (1966), The Role of Boltzmann Factors in Line Shape, Rev. Mod. Phys., 38(1), 187–204, doi:10.1103/RevModPhys.38.187.
  68. Hui, A. K., B. H. Armstrong, and A. A. Wray (1977), Rapid computation of the Voigt and complex error functions, J. Quant. Spectrosc. Radiat. Transfer, 19, 509–516.
  69. Johri, G. K., P. Gupta, and M. Johri (2000), Theoretical study of molecular collisions and microwave linewidth, J. Quant. Spectrosc. Radiat. Transfer, 66, 215–221.
  70. Kolb, A. C. and H. Griem (1958), Theory of Line Broadening in Multiplet Spectra, Phys. Rev., 111(2), 514–521.
  71. Kuntz, M. (1997), A new implementation of the Humlicek algorithm for the calculation of the Voigt profile function, J. Quant. Spectrosc. Radiat. Transfer, 57, 819–824.
  72. Lance, B. and D. Robert (1998), An analytical model for collisional effects on spectral line shape from the Doppler to the collision regime, J. Chem. Phys., 109(19), 8283–8288.
  73. Loss, D., A: Thellung, and L. A. Turski (1990), Quantum Boltzmann-Lorentz model approach to the line-shape problem, Phys. Rev., 41(6), 3005–3015.
  74. Ma, Q. and R. H. Tipping (2000), The density matrix of H2O-N2 in the coordinate representation: A Monte Carlo calculation on the far-wing line shape, J. Chem. Phys., 112(2), 574–584.
  75. Ma, Q. and R. H. Tipping (2002), The frequency detuning correction and the asymmetry of line shapes: The far wings of H2O-H2, J. Chem. Phys., 116(10), 4102–4115.
  76. Ma, Q. and R. H. Tipping (1991), A far wing line shape theory and its application to the water continuum absorption in the infrared region.I, J. Chem. Phys., 95(9), 6290–6301.
  77. Ma, Q. and R. H. Tipping (1992), A far wing line shape theory and its application to the water vibrational bands II, J. Chem. Phys., 96(12), 8655–8663.
  78. Ma, Q. and R. H. Tipping (1992), A far wing line shape theory and its application to the foreign-broadened water continuum absorption. III, J. Chem. Phys., 97(2), 818–828.
  79. Ma, Q. and R. H. Tipping (1994), A near-wing correction to the quasistatic far-wing line shape theory, J. Chem. Phys., 100(4), 2537–2546.
  80. Ma, Q. and R. H. Tipping (1998), The distribution of density matrices over potential-energy surfaces: Application to the calculation of the far-wing line shapes for CO2, J. Chem. Phys., 108(9), 3386–3399.
  81. Ma, Q., R. H. Tipping, and C. Boulet (1998), A Far-Wing Line Shape Theory which Satisfies the Detailed Balance Principle, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 245–257.
  82. Ma, Q., R. H. Tipping, G. Birnbaum, and C. Boulet (1998), Sum Rules and the Symmetry of the Memory Function in Spectral Line Shape Theories, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 259–271.
  83. Ma, Q. and R. H. Tipping (1999), The averaged density matrix in the coordinate representation: Application to the calculation on the far-wing line shapes for CO2, J. Chem. Phys., 111(13), 5909–5921.
  84. Margenau, H. (1933), Pressure Effects on Spectral Lines.II., Phys. Rev., 43, 129–134.
  85. Margenau, H. (1935), Theory of Pressure Effects of Foreign Gases on Spectral Lines, Rev. Mod. Phys., 48, 755–765.
  86. Margenau, H. and W. W. Watson (1936), Pressure Effects on Spectral Lines, Rev. Mod. Phys., 8, 22–53.
  87. Margenau, H. and R. Meyerott (1954), Quantum Theory of Line Broadening by an Ionic Plasma, Yale University.
  88. Margenau, H. and M. Lewis (1959), Structure of Spectral Lines from Plasmas, Rev. Mod. Phys., 31(3), 569–615.
  89. Marteau, P., C. Boulet, and D. Robert (1984), Finite duration of collisions and vibrational dephasing effects on the Ar broadened HF infrared line shapes: Asymmetric profiles, J. Chem. Phys., 80(8), 3632–3639.
  90. Maryott, A. A. and G. Birnbaum (1967), Line Shape and Collision Effects in the Microwave Wing of Far-Infrared Rotational Lines, J. Chem. Phys., 47(9), 3200–3205.
  91. Meyer, R., H. Mannstein, R. Meerkoetter, U. Schumann, and P. Wendling (2002), Regional radiative forcing by line-shaped contrails derived from satellite data, J. Geophys. Res., 107(D10), doi:10.1029/2001JD000426.
  92. Minnis, P., U. Schumann, D. R. Doelling, K. M. Gierens, and D. W. Fahey (1999), Global distribution of contrail radiative forcing, Geophys. Res. Lett., 26(13), 1853–1856.
  93. Mizushima, M. (1951), The Theory of Pressure Broadening and Its Application to Microwave Spectra, Phys. Rev., 83(1), 94–102.
  94. Osborn, T. A., M. F. Kondrat'eva, G. C. Tabisz, and B. R. McQuarrie (1999), Mixed Weyl Symbol Calculus and Spectral Line Shape Theory, J. Optical Soc. o. Am., 32, 4143–4169.
  95. Ouyang, X. and P. L. Varghese (1989), Reliable and efficient program for fitting Galatry and Voigt profiles to spectral data on multiple lines, Appl. Opt., 28(8), 1538–1545.
  96. Ozanne, L., J.-P. Bouanich, R. Rodrigues, J.-M. Hartmann, G. Blanquet, and J. Walrand (1998), Diode-Laser Measurements of He- and N2- Broadening Coefficients and Line-Mixing Effects in the Q-Branch of the ν$_1−\nu$2 Band of CO2, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 337–344.
  97. Payne, V. H., J. S. Delamere, K. E. Cady-Pereira, R. R. Gamache, J.-L. Moncet, E. J. Mlawer, and S. A. Clough (2008), Air-Broadened Half-Widths of the 22- and 183-GHz Water-Vapor Lines, IEEE T. Geosci. Remote, 46(11), 3601–3617, doi:10.1109/TGRS.2008.2002435.
  98. Peach, G. (1975), The Width of Spectral Lines, Contemp. Phys., 16(1), 17–34.
  99. Pickett, H. M. (1980), Effects of velocity averaging on the shapes of absorption lines, J. Chem. Phys., 73, 919–928, doi:10.1063/1.440145.
  100. Pickett, H. M., E. A. Cohen, and D. E. Brinza (1981), Pressure Broadening of Oxygen and its Implications for Cosmic Background Measurements, Astrophys. J., 248, 49–51.
  101. Pieroni, D., N. Van-Thanh, C. Brodbeck, C. Claveau, A. Valentin, J. M. Hartmann, T. Gabard, J.-P. Champion, D. Bermejo, and J.-L. Domenech (1999), Experimental and theoretical study of line mixing in methane spectra. I. The N2-broadenend band at room temperatur, J. Chem. Phys., 110(16), 7717–7732.
  102. Pine, A. S. (1997), Line Mixing Sum Rules for the Analysis of Multiplet Spectra, J. Quant. Spectrosc. Radiat. Transfer, 57(2), 145–155.
  103. Priem, D., J.-M. Colmont, F. Rohart, G. Wlodarczak, and R. R. Gamache (2000), Relaxation and Lineshape of the 500.4.-GHz Line of Ozone Perturbed by N2 and O2, J. Molec. Spectro., 204, 204–215.
  104. Puzzarini, C., L. Dore, and G. Cazzoli (2002), A Comparison of Lineshape Models in the Analysis of Modulated and Natural Rotational Line Profiles: Application to the Pressure Broadening of OCS and CO, J. Molec. Spectro., 216, 428–436, doi:10.1029/jmsp.2002.8663.
  105. Rabitz, H. (1974), Rotation and Rotation-Vibration Pressure-Broadened Spectral Lineshapes, Princeton University.
  106. Rautian, S. G. (1111), Collision Anisotropy and Impact Contour of Spectral Lines, Institute of Automation and Electrometry.
  107. Robert, D., J. M. Thuet, J. Bonamy, and S. Temkin (1993), Effect of speed-changing collisions on spectral line shape, Phys. Rev., 47(2), 771–773.
  108. Robert, D. and L. Bonamy (1998), Memory effects in speed-changing collisions and their consequences for spectral lineshape: I. Collision regime, The European Physical Journal D, 2, 245–252.
  109. Rodgers, C. D. (1976), Collisional narrowing: its effect on the equivalent widths of spectral lines, Appl. Opt., 15(3), 714–716.
  110. Roney, P. L. (1994), Theory of spectral line shape. II. Collision time theory and the line wing, J. Chem. Phys., 101(2), 1050–1060.
  111. Roney, P. L. (1994), Theory of spectral line shape. I. Formulation and line coupling, J. Chem. Phys., 101(2), 1037–1049.
  112. Rosenkranz, P. W. (1985), Pressure broadening of rotational bands. I. A statistical theory, J. Chem. Phys., 83(12), 6139–6144.
  113. Rosenkranz, P. W. and D. H. Staelin (1988), Polarized thermal microwave emission from oxygen in the mesosphere, Radio Sci., 23(5), 721–729.
  114. Rosenkranz, P. W. (1990), Oxygen Line Emission as a measure of Temperature in the Upper Stratosphere and Mesosphere, University of Maryland.
  115. Schmuecker, N., C. Trojan, T. Giesen, R. Schieder, K. M. T. Yamada, and G. Winnewisser (1997), Pressure Broadening and Shift of Some H2O Lines in the ν2 Band: Revisited, J. Molec. Spectro., 184, 250–256.
  116. Schreier, F. (1992), The Voigt and complex error function: a comparison of computational methods, J. Quant. Spectrosc. Radiat. Transfer, 48(5/6), 743–762.
  117. Schuller, F. (1998), Extended Impact Theory of Pressure Broadening of Spectral Lines for Van der Waals Interaction Potentials, J. Quant. Spectrosc. Radiat. Transfer, 60(1), 43–51.
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  121. Smith, E. W. and M. Giraud (1979), Pressure broadening of the O2 microwave spectrum, J. Chem. Phys., 71(11), 4209–4217.
  122. Spiering, F. R., M. B. Kiseleva, N. N. Filippov, H. Naus, B. van Lieshout, C. Weijenborg, and W. J. van der Zande (2010), Line mixing and collision induced absorption in the oxygen A-band using cavity ring-down spectroscopy, J. Chem. Phys., 133(11), 114305, doi:10.1063/1.3460924.
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  124. Strow, L. L., D. C. Tobin, W. W. McMillan, S. E. Hannon, W. L. Smith, H. E. Revercomb, and R. O. Knuteson (1998), Impact of a new Water Vapor Continuum and Line Shape Model on Observed High Resolution Infrared Radiances, J. Quant. Spectrosc. Radiat. Transfer, 59(3–5), 303–317.
  125. Tennyson, J., P. F. Bernath, A. Campargue, A. G. Császár, L. Daumont, R. R. Gamache, J. T. Hodges, D. Lisak, O. V. Naumenko, L. S. Rothman, H. Tran, N. F. Zobov, J. Buldyreva, C. D. Boone, M. Domenica De Vizia, L. Gianfrani, J.-M. Hartmann, R. McPheat, D. Weidmann, J. Murray, N. Hoa Ngo, and O. L. Polyansky (2014), Recommended isolated-line profile for representing high-resolution spectroscopic transitions (IUPAC Technical Report), Pure Appl. Chem., 86(12), 1931–1943, doi:10.1515/pac-2014-0208.
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  128. Tinkham, M. and M. W. P. Strandberg (1955), Line Breadths in the Microwave Magnetic Resonance Spectrum of Oxygen, Phys. Rev., 99(2), 537–539.
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  131. Van Vleck, J. H. (1945), On the Shape of Collision-Broadened Lines, Rev. Mod. Phys., 17(2–3), 227–236.
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  134. Wells, R. J. (1999), Rapid approximation to the Voigt/Faddeeva function and its derivatives, J. Quant. Spectrosc. Radiat. Transfer, 62, 29–48.
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  136. Wodkiewicz, K. and N. H. Cong (1111), Stochastic Model of Line Shapes, Warsaw University.
  137. Yamada, M. M., M. Kobayashi, H. Habara, T. Amano, and B. J. Drouin (2003), Submillimeter-wave measurements of the pressure broadening of BrO, J. Quant. Spectrosc. Radiat. Transfer, 83, 391–399.