The hydrogen molecule in inclined configuration in a weak magnetic field
arXiv:1903.08324 · doi:10.1016/j.jqsrt.2019.05.010
Abstract
Highly accurate variational calculations, based on a few-parameter, physically adequate trial function, are carried out for the hydrogen molecule \hh in inclined configuration, where the molecular axis forms an angle with respect to the direction of a uniform constant magnetic field , for and a.u. Three inclinations are studied in detail with emphasis to the ground state . Diamagnetic and paramagnetic susceptibilities are calculated (for for the first time), they are in agreement with the experimental data and with other calculations. For and a.u. potential energy curves vs are built for each inclination, they are interpolated by simple, two-point Padé approximant with accuracy of not less than 4 significant digits. Spectra of rovibrational states are calculated for the first time. It was found that the optimal configuration of the ground state for a.u. corresponds always to the parallel configuration, , thus, it is a state. The state remains bound for any magnetic field, becoming metastable for , while for \,a.u. the ground state corresponds to two isolated hydrogen atoms with parallel spins.
arXiv comment31 pages, 11 Tables, 7 Figures (2 new), following referee's suggestions parts 4,5,6 essentially rewritten, to be published at Journal of Quantitative Spectroscopy and Radiative Transfer
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