The energy of the 0,341 transition in Hz is calculated, including all nonadiabatic, relativistic and radiative corrections, and the theoretical and experimental values are compared. The electric quadrupole moments of the 0,0, 0,l and 0,3 levels are also calculated and discussed.
Calculation of the absolute infrared intensities for the 0−1, 0−2 and 1−2 vibration-rotation transitions in the ground state of no+
✍ Scribed by Frank P. Billingsley II
- Publisher
- Elsevier Science
- Year
- 1973
- Tongue
- English
- Weight
- 623 KB
- Volume
- 23
- Category
- Article
- ISSN
- 0009-2614
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✦ Synopsis
The absolute infrared infensities of the O-I, O-2 and 1-2 vibration-rotation bands in the ' Z'gound state have been calculated from fust principles. The dipole moment function for NO+wns determined in the region of the equilibrium internuclmr separation by an accurate multi-configuration self-consistent-field procedure.
The dipole matrix elements over vibration states were solved exactly using numerical techniques.
The ratio of the calculated integated absorption coefficients for the fundamental and first overtone (88.8 cm-* atm-' and 0.6 cm-* atm-', respectively, at 273.16'K) is in reasonable agreement with an estimate based on observation of these bands in NO+ at high a!titudes in the upper atmosphere.
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