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Non-linear Triatomic Molecules: Part 1Ξ±

✍ Scribed by G. Guelachvili, N. Picqué (auth.), G. Guelachvili (eds.)


Publisher
Springer-Verlag Berlin Heidelberg
Year
2012
Tongue
English
Leaves
508
Series
Landolt-BΓΆrnstein - Group II Molecules and Radicals 20C1alpha : Molecules and Radicals
Edition
1
Category
Library

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✦ Synopsis


With the development of modern instruments and theories, a considerable amount of spectroscopic information is being permanently collected on molecules. The infrared, in particular, is seeing extraordinary activities. Using Fourier transform interferometers and infrared lasers, accurate data are measured often with extreme sensitivity. These data are also analyzed and precise molecular parameters determined. Volume II/20, β€œMolecular Constants Mostly from Infrared Spectroscopy”, is a recent Landolt-BΓΆrnstein publication series bringing together these results. It is made up of several volumes (A, B, C, D) with comprehensive compilation of critically evaluated molecular constants of diatomic (A), linear triatomic (B); nonlinear triatomic (C), and other polyatomic (D) molecules. Subvolume II/20C1 is devoted to H2O.

✦ Table of Contents


Front Matter....Pages I-VIII
Introduction....Pages 1-39
Survey....Pages 40-60
Table 1. H 2 16 O (H 16 OH): Calculated spectroscopic constants....Pages 61-63
Table 2. H 2 16 O (H 16 OH): Vibrational band origins....Pages 64-69
Table 3. H 2 16 O (H 16 OH): Vibrational band origins....Pages 70-75
Table 4. H 2 16 O (H 16 OH): Calculated equilibrium geometries, rotational constants, and harmonic frequencies....Pages 76-77
Table 5. H 2 16 O (H 16 OH): Equilibrium geometries, rotational constants, and harmonic frequencies....Pages 78-78
Table 6. H 2 16 O (H 16 OH): Quadratic, cubic, and quartic force constants....Pages 79-80
Table 7. H 2 16 O (H 16 OH): Molecular parameters from analyses up to the second triad....Pages 81-82
Table 8. H 2 16 O (H 16 OH): Molecular parameters for the (010) state....Pages 83-84
Table 9. H 2 16 O (H 16 OH): Effective and equilibrium ground state rotational constants....Pages 85-86
Table 10. H 2 16 O (H 16 OH): Rotational constants for the (010) and the (000) vibrational states....Pages 87-88
Table 11. H 2 16 O (H 16 OH): Hamiltonian parameters from a fit to 72 vibrational energies....Pages 89-89
Table 12. H 2 16 O (H 16 OH): Fitted parameters of the effective Hamiltonian of the second triad of interacting (030), (110), and (011) vibrational states....Pages 90-92
Table 13. H 2 16 O (H 16 OH): Rotational constants for the vibrational state (000)....Pages 93-93
Table 14. H 2 16 O (H 16 OH): Calculated internal partition function and moments in the 100 K –6000 K temperature domain....Pages 94-95
Table 15. H 2 16 O (H 16 OH): Molecular constants for the Coudert Bending-Rotation Hamiltonian....Pages 96-97
Table 16. H 2 16 O (H 16 OH): Fitted parameters of the Tyuterev effective Hamiltonian of the first triad of interacting (020), (100), and (001) vibrational states....Pages 98-99
Table 17. H 2 16 O (H 16 OH): Fitted parameters of the Tyuterev rotational Hamiltonian of the ground state....Pages 100-101
Table 18. H 2 16 O (H 16 OH): Molecular parameters for the (000) and the (010) states....Pages 102-102
Table 19. H 2 16 O (H 16 OH): Rotational parameters for the (031), (130), and (050) vibrational states....Pages 103-103
Table 20. H 2 16 O (H 16 OH): Rotational parameters for the (111), (210), and (012) vibrational states....Pages 104-104
Table 21. H 2 16 O (H 16 OH): Molecular constants for the ground state....Pages 105-106
Table 22. H 2 16 O (H 16 OH): Molecular constants for the ground state....Pages 107-107
Table 23. H 2 16 O (H 16 OH): Parameters of the effective PadΓ© Hamiltonian operator in the ground state....Pages 108-109
Table 24. H 2 16 O (H 16 OH): Ground state rotational constants....Pages 110-110
Table 25. H 2 16 O (H 16 OH): Rotational and distortion constants of the (010) state....Pages 111-111
Table 26. H 2 16 O (H 16 OH): Harmonic frequencies and anharmonicity constants....Pages 112-112
Table 27. H 2 16 O (H 16 OH): Rotational constants of the (000) and the (010) vibrational states....Pages 113-114
Table 28. H 2 16 O (H 16 OH): Rotational and distortion constants....Pages 115-115
Table 29. H 2 16 O (H 16 OH): Fit coefficients c ijk of the morphing function....Pages 116-117
Table 30. H 2 16 O (H 16 OH): Barrier to linearity....Pages 118-118
Table 31. H 2 16 O (H 16 OH): Improved ab initio Potential Energy Surface (PES) from morphing procedure using highly excited energy levels....Pages 119-119
Table 32. H 2 16 O (H 16 OH): Highly excited vibrational band origins....Pages 120-120
Table 33. H 2 16 O (H 16 OH): Direct measurement of the dissociation energy....Pages 121-121
Table 34. H 2 16 O (H 16 OH): Spectroscopically determined Potential Energy Surface (PES)....Pages 122-123
Table 35. H 2 16 O (H 16 OH): Fit coefficients c ijk of the morphing function....Pages 124-124
Table 36. H 2 16 O (H 16 OH): Fitted energy levels by vibrational band, and band origins....Pages 125-127
Table 37. H 2 16 O (H 16 OH): Fitted energy levels by rotational band....Pages 128-128
Table 38. H 2 16 O (H 16 OH): Equilibrium geometries, harmonic and fundamental frequencies using various potentials....Pages 129-129
Table 39. H 2 16 O (H 16 OH): Fitted Potential Energy Surface (PES) parameters....Pages 130-131
Table 40. H 2 16 O (H 16 OH): Fitted Potential Energy Surface (PES) parameters....Pages 132-134
Table 41. H 2 16 O (H 16 OH): Potential Energy Surface (PES) for various Coupled Cluster/Many-Body Perturbation Theory (CC/MBPT) models....Pages 135-136
Table 42. H 2 16 O (H 16 OH): Normal coordinate force field parameters....Pages 137-137
Table 43. H 2 16 O (H 16 OH): Quartic Potential Energy Function (PEF) in internal coordinates....Pages 138-138
Table 44. H 2 16 O (H 16 OH): Quartic Potential Energy Function (PEF) with expansion parameters Ξ” R / R used instead of Ξ” R ....Pages 139-139
Table 45. H 2 16 O (H 16 OH): Force constants of the Potential Energy Function (PEF) CVRQD calculated at its minimum (CVRQD: composite surface including core, valence, relativistic, quantum electrodynamics, and diagonal Born-Oppenheimer (adiabatic) correction surfaces)....Pages 140-140
Table 46. H 2 16 O (H 16 OH): Force constants provided by the fit using the Hamiltonian of Table 11....Pages 141-142
Table 47. H 2 16 O (H 16 OH): Force constants for the electronic ground state....Pages 143-145
Table 48. H 2 16 O (H 16 OH): Force constants for the electronic ground state....Pages 146-146
Table 49. H 2 16 O (H 16 OH): Normal coordinate force constants derived from the CCSDT βˆ’ 1 Potential Energy Surface (PES) (CCSD(T): Coupled Cluster with Single and Double and partial Triple excitations)....Pages 147-148
Table 50. H 2 16 O (H 16 OH): Spectroscopic constants derived from the CCSDT βˆ’ 1 Potential Energy Surface (PES) (CCSD(T): Coupled Cluster with Single and Double and partial Triple excitations)....Pages 149-150
Table 51. H 2 16 O (H 16 OH): Ab initio force constants from the bending potential....Pages 151-151
Table 52. H 2 16 O (H 16 OH): Ab initio dipole moment....Pages 152-152
Table 53. H 2 16 O (H 16 OH): Vibrationally averaged dipole moments....Pages 153-153
Table 54. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (011)–(000), (110)–(000), and the (030)–(000) bands....Pages 154-154
Table 55. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (011)–(010), (110)–(010), and (030)–(010) bands....Pages 155-155
Table 56. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (021)–(010), (120)–(010) bands....Pages 156-156
Table 57. H 2 16 O (H 16 OH): High vibrational state dipole moment....Pages 157-157
Table 58. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (010)–(000) band....Pages 158-158
Table 59. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (000)–(000) and the (010)–(010) bands....Pages 159-159
Table 60. H 2 16 O (H 16 OH): Dipole moment expansion parametersfor the Ξ½ 2 band....Pages 160-160
Table 61. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (100)–(000) band....Pages 161-161
Table 62. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (100)–(010), (001)–(010), (001)–(000) bands....Pages 162-162
Table 63. H 2 16 O (H 16 OH): Dipole moment expansion coefficients for the (020)–(010), (020)–(000) bands....Pages 163-163
Table 64. H 2 16 O (H 16 OH): Rotation-free dipole moment of the (010) level....Pages 164-164
Table 65. H 2 16 O (H 16 OH): Temperature dependence of the experimental absorption coefficient in the atmospheric window at 239 GHz....Pages 165-165
Table 66. H 2 16 O (H 16 OH): Band intensity for 19 vibrational bands....Pages 166-167
Table 67. H 2 16 O (H 16 OH): Band intensity for 8 vibrational bands....Pages 168-168
Table 68. H 2 16 O (H 16 OH): Band intensity for Ξ½ 1 , Ξ½ 2 , and Ξ½ 3 vibrational transitions....Pages 169-169
Table 69. H 2 16 O (H 16 OH): Band intensity for the (010)–(000), (020)–(000), (100)–(000), (001)–(000), (030)–(000), (110)–(000), and the (011)–(000) vibrational transitions....Pages 170-170
Table 70. H 2 16 O (H 16 OH): Calculated relative dipole oscillator intensities for 7 vibrational transitions....Pages 171-171
Table 71. H 2 16 O (H 16 OH): Line width comparison between bands involving the Ξ½ 2 vibrational quantum number....Pages 172-172
Table 72. H 2 16 O (H 16 OH): Band intensity for 15 vibrational bands....Pages 173-173
Table 73. H 2 16 O (H 16 OH): Band intensity for Ξ½ 1 , Ξ½ 3 , and 2 Ξ½ 2 vibrational transitions....Pages 174-174
Table 74. H 2 16 O (H 16 OH): Rotational transition frequencies within the vibrational state (010) in the range 0–165 cm βˆ’1 ....Pages 175-178
Table 75. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions within the vibrational state (010), in the range 0–100 cm βˆ’1 ....Pages 179-181
Table 76. H 2 16 O (H 16 OH): Calculated wavenumbers, frequencies, line intensities, and lower energy level of rotational transitions within the vibrational state (000), in the range 0.7–828 cm βˆ’1 ....Pages 182-193
Table 77. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions within the vibrational state (000), in the range 0–100 cm βˆ’1 ....Pages 194-198
Table 78. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational state (000), in the range 6.1–1042 cm βˆ’1 ....Pages 199-201
Table 79. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (000)–(000) in the range 373–934 cm βˆ’1 ....Pages 202-211
Table 80. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (010)–(010) in the range 375–934 cm βˆ’1 ....Pages 212-220
Table 81. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (020)–(020) in the range 375–934 cm βˆ’1 ....Pages 221-229
Table 82. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (030)–(030) in the range 376–915 cm βˆ’1 ....Pages 230-235
Table 83. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (001)–(001) in the range 379–920 cm βˆ’1 ....Pages 236-242
Table 84. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (100)–(100) in the range 382–922 cm βˆ’1 ....Pages 243-249
Table 85. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational state (001), in the range 385–759 cm βˆ’1 ....Pages 250-252
Table 86. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (011)–(011) in the range 385–920 cm βˆ’1 ....Pages 253-257
Table 87. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational state (100), in the range 390–764 cm βˆ’1 ....Pages 258-260
Table 88. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (110)–(110) in the range 393–894 cm βˆ’1 ....Pages 261-265
Table 89. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (120)–(120) in the range 397–705 cm βˆ’1 ....Pages 266-267
Table 90. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (101)–(101) in the range 398–585 cm βˆ’1 ....Pages 268-268
Table 91. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (040)–(040) in the range 400–917 cm βˆ’1 ....Pages 269-271
Table 92. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational state (020), in the range 402–784 cm βˆ’1 ....Pages 272-273
Table 93. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (050)–(050) in the range 406–853 cm βˆ’1 ....Pages 274-274
Table 94. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational state (000), in the range 407–921 cm βˆ’1 ....Pages 275-281
Table 95. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (021)–(021) in the range 409–749 cm βˆ’1 ....Pages 282-283
Table 96. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (031)–(031) in the range 412–754 cm βˆ’1 ....Pages 284-284
Table 97. H 2 16 O (H 16 OH): Line parameters for rovibrational transitions (020)–(020) in the range 415–1113 cm βˆ’1 ....Pages 285-286
Table 98. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (060)–(060) in the range 420–607 cm βˆ’1 ....Pages 287-287
Table 99. H 2 16 O (H 16 OH): Pure rotational and rotational difference band lines involving K a = 10 levels heavily mixed for the (020) and (100) vibrational states in the range 427–711 cm βˆ’1 ....Pages 288-289
Table 100. H 2 16 O (H 16 OH): Rotational difference band lines involving isolated interactions, in the range 428–717 cm βˆ’1 ....Pages 290-290
Table 101. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational state (010), in the range 435–910 cm βˆ’1 ....Pages 291-294
Table 102. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational levels (001), (020), and (100) in the range 449–874 cm βˆ’1 ....Pages 295-295
Table 103. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational level (000), in the range 449–874 cm βˆ’1 ....Pages 296-296
Table 104. H 2 16 O (H 16 OH): Wavenumbers and intensities of rotational transitions within the vibrational level (010), in the range 496–865 cm βˆ’1 ....Pages 297-298
Table 105. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (200)–(200) in the range 502–547 cm βˆ’1 ....Pages 299-299
Table 106. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (111)–(111) in the range 506–648 cm βˆ’1 ....Pages 300-300
Table 107. H 2 16 O (H 16 OH): Line position and intensity for one rotational transitions (002)–(002) at 539 cm βˆ’1 ....Pages 301-301
Table 108. H 2 16 O (H 16 OH): Line position and intensity for the rotational transitions (000)–(000) in the range 539–1810 cm βˆ’1 ....Pages 302-317
Table 109. H 2 16 O (H 16 OH): Line position and intensity for the rotational transitions (010)–(010) in the range 565–1962 cm βˆ’1 ....Pages 318-330
Table 110. H 2 16 O (H 16 OH): Line position and intensity for the rotational transitions (100)–(100) in the range 566–1472 cm βˆ’1 ....Pages 331-335
Table 111. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (001)–(001) in the range 570–1447 cm βˆ’1 ....Pages 336-341
Table 112. H 2 16 O (H 16 OH): Line position and intensity for the rotational transitions (020)–(020) in the range 572–1910 cm βˆ’1 ....Pages 342-349
Table 113. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (011)–(011) in the range 580–1835 cm βˆ’1 ....Pages 350-352
Table 114. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (030)–(030) in the range 581–1827 cm βˆ’1 ....Pages 353-356
Table 115. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (110)–(110) in the range 590–1277 cm βˆ’1 ....Pages 357-359
Table 116. H 2 16 O (H 16 OH): Experimental wavenumbers and intensities of rotational transitions within the vibrational state (010), in the range 590–851 cm βˆ’1 ....Pages 360-361
Table 117. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (040)–(040) in the range 598–1363 cm βˆ’1 ....Pages 362-363
Table 118. H 2 16 O (H 16 OH): Wavenumbers, intensities, and self-broadening coefficients of rotational transitions within the vibrational state (000), in the range 600–639 cm βˆ’1 ....Pages 364-364
Table 119. H 2 16 O (H 16 OH): Line parameters for rotational transitions within the vibrational state (000), in the range 610–1111 cm βˆ’1 ....Pages 365-365
Table 120. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (021)–(021) in the range 613–1189 cm βˆ’1 ....Pages 366-366
Table 121. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (101)–(101) in the range 681–926 cm βˆ’1 ....Pages 367-367
Table 122. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (100)–(100) in the range 722–995 cm βˆ’1 ....Pages 368-372
Table 123. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (000)–(000) in the range 723–1011 cm βˆ’1 ....Pages 373-381
Table 124. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (010)–(010) in the range 722–1011 cm βˆ’1 ....Pages 382-389
Table 125. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (000)–(000) in the range 723–1011 cm βˆ’1 ....Pages 390-398
Table 126. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (011)–(011) in the range 724–1005 cm βˆ’1 ....Pages 399-401
Table 127. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (001)–(001) in the range 725–1008 cm βˆ’1 ....Pages 402-406
Table 128. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (020)–(020) in the range 726–1007 cm βˆ’1 ....Pages 407-412
Table 129. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (021)–(021) in the range 726–992 cm βˆ’1 ....Pages 413-414
Table 130. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (030)–(030) in the range 727–1007 cm βˆ’1 ....Pages 415-417
Table 131. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (110)–(110) in the range 727–997 cm βˆ’1 ....Pages 418-419
Table 132. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (030)–(020) in the range 734–1003 cm βˆ’1 ....Pages 420-421
Table 133. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (031)–(031) in the range 742–979 cm βˆ’1 ....Pages 422-422
Table 134. H 2 16 O (H 16 OH): Line position and intensity for rovibrational transitions belonging to the (040)–(030) vibrational band, in the range 598–1363 cm βˆ’1 ....Pages 423-428
Table 135. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (040)–(040) in the range 747–1007 cm βˆ’1 ....Pages 429-429
Table 136. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (120)–(120) in the range 750–901 cm βˆ’1 ....Pages 430-430
Table 137. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (060)–(060) in the range 757–934 cm βˆ’1 ....Pages 431-431
Table 138. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (040)–(030) in the range 757–993 cm βˆ’1 ....Pages 432-432
Table 139. H 2 16 O (H 16 OH): Line position and intensity for rovibrational transitions belonging to the (030)–(020) vibrational band, in the range 757–1981 cm βˆ’1 ....Pages 433-440
Table 140. H 2 16 O (H 16 OH): Line position and intensity for rovibrational transitions (100)–(010) in the range 763–1006 cm βˆ’1 ....Pages 441-441
Table 141. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (111)–(111) in the range 769–875 cm βˆ’1 ....Pages 442-442
Table 142. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (002)–(002) in the range 779–971 cm βˆ’1 ....Pages 443-443
Table 143. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (200)–(200) in the range 780–873 cm βˆ’1 ....Pages 444-444
Table 144. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (101)–(101) in the range 784–974 cm βˆ’1 ....Pages 445-445
Table 145. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (041)–(041) in the range 785–990 cm βˆ’1 ....Pages 446-446
Table 146. H 2 16 O (H 16 OH): Line position and intensity for rovibrational transitions belonging to the (020)–(010) vibrational band, in the range 786–1992 cm βˆ’1 ....Pages 447-454
Table 147. H 2 16 O (H 16 OH): Line position and intensity for rovibrational transitions (110)–(100) in the range 802–1005 cm βˆ’1 ....Pages 455-455
Table 148. H 2 16 O (H 16 OH): Line parameters for rotational transitions within the (000) vibrational level, in the range 802–1043 cm βˆ’1 ....Pages 456-457
Table 149. H 2 16 O (H 16 OH): Wavenumbers and intensities for rotational transitions within the vibrational level (000), in the range 802–1088 cm βˆ’1 ....Pages 458-459
Table 150. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (050)–(050) in the range 808–974 cm βˆ’1 ....Pages 460-460
Table 151. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (012)–(012) in the range 742–979 cm βˆ’1 ....Pages 461-461
Table 152. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (051)–(051) in the range 830–996 cm βˆ’1 ....Pages 462-462
Table 153. H 2 16 O (H 16 OH): Line position and intensity for rovibrational transitions (011)–(001) in the range 844–1002 cm βˆ’1 ....Pages 463-463
Table 154. H 2 16 O (H 16 OH): Line position and intensity for the rotational transitions (050)–(050) in the range 853–1073 cm βˆ’1 ....Pages 464-464
Table 155. H 2 16 O (H 16 OH): Collisional half-widths of rovibrational transitions belonging the (010)–(000) band....Pages 465-469
Table 156. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (002)–(002) in the range 863–1880 cm βˆ’1 ....Pages 470-470
Table 157. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions (031)–(031) in the range 886–1012 cm βˆ’1 ....Pages 471-471
Table 158. H 2 16 O (H 16 OH): Wavenumbers and intensities for rovibrational transitions belonging to the (010)–(000) vibrational band, in the range 896–1251 cm βˆ’1 ....Pages 472-473
Table 159. H 2 16 O (H 16 OH): Line parameters for rovibrational transitions belonging to the (010)–(000) vibrational band, in the range 896–1150 cm βˆ’1 ....Pages 474-475
Table 160. H 2 16 O (H 16 OH): Wavenumbers and intensities for rovibrational transitions belonging to the (010)–(000) vibrational band, in the range 998–2583 cm βˆ’1 ....Pages 476-495
Table 161. H 2 16 O (H 16 OH): Wavenumbers, intensities, and self-broadening coefficients of rotational transitions within the vibrational state (000), in the range 922–1064 cm βˆ’1 ....Pages 496-496
Table 162. H 2 16 O (H 16 OH): Line position and intensity for rotational transitions within the (010) vibrational state in the range 934–2111 cm βˆ’1 ....Pages 497-499

✦ Subjects


Physics, general; Atomic/Molecular Structure and Spectra


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