The Rydberg electronic transitions of the hydrogen molecule
Journal Article
·
· Atomic Data and Nuclear Data Tables; (United States)
- Harvard-Smithsonian Center for Astrophysics, Cambridge, MA (United States)
Transition energies and relative line strengths, without Boltzmann weighting, for the electric dipole transitions between Rydberg states n{prime}L{prime} and nL of the hydrogen molecule (one electron in a near-hydrogenic state of high n and L, with n the principal quantum number and L the orbital angular momentum quantum number of the electron) are calculated. Since the H{sup +}{sub 2} core is loosely coupled to the Rydberg electron, numerous lines occur, depending on the vector sum of L and the core rotational angular momentum. For the core vibrational quantum numbers v = 0 to 5 the strongest lines among the P, Q, and R branches for the lowest 12 core rotational levels are given for the particular transition arrays 6h-5g, 8i-6h, 7i-6h, 8k-7i, and 9l-8k, for which transitions occur in the wave number range 350 to 1,400 cm {sup {minus}1}.
- OSTI ID:
- 5165357
- Journal Information:
- Atomic Data and Nuclear Data Tables; (United States), Journal Name: Atomic Data and Nuclear Data Tables; (United States) Vol. 50:1; ISSN 0092-640X; ISSN ADNDA
- Country of Publication:
- United States
- Language:
- English
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