LASER SPECTROSCOPY OF HOLMIUM MONOCHLORIDE.
M. J. Dick, Colan Linton, Jennifer L. MacGregor, Allan G. Adam, P. Crozet, Amanda J. Ross
Abstract
M. J. Dick, Colan Linton, Jennifer L. MacGregor, Allan G. Adam, P. Crozet, Amanda J. Ross
Abstract
As part of a continuing investigation of the properties and structure of lanthanide molecules, a laser spectroscopic study of holmium halides is presently in progress. High resolution spectra are obtained with both laser ablation and oven sources using a cw ring laser. At present, high resolution spectra of two electronic transitions of Holmium Chloride have been obtained. A global fit of the A9-X8 transition has been completed and work continues on the second transiton. With the ablation source, the transitions show resolved hyperfine structure due to the $I = 3.5$ spin of the Holmium nucleus. The results of the analyses of the rotational and hyperfine structure will be presented and discussed in terms of the electron configurations of the electronic states. In addition the results of HoCl will be compared and contrasted with those obtained from previous work on HoF.
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As part of a continuing investigation of the properties and structure of lanthanide molecules, a laser spectroscopic study of holmium halides is presently in progress. High resolution spectra are obtained with both laser ablation and oven sources using a cw ring laser. At present, high resolution spectra of two electronic transitions of Holmium Chloride have been obtained. A global fit of the A9-X8 transition has been completed and work continues on the second transiton. With the ablation source, the transitions show resolved hyperfine structure due to the $I = 3.5$ spin of the Holmium nucleus. The results of the analyses of the rotational and hyperfine structure will be presented and discussed in terms of the electron configurations of the electronic states. In addition the results of HoCl will be compared and contrasted with those obtained from previous work on HoF.
Key concepts: Holmium, Institution, Spectroscopy, Analytical Chemistry (journal), Engineering physics, Physics, Library science, Laser