0000000001054354

AUTHOR

H. Willner

showing 2 related works from this author

Study of the v3 = 1 State of 80SeF6 by Fourier Transform Spectroscopy

1997

The Fourier transform infrared spectrum of monoisotopic 80SeF6 has been recorded in the 760-792 cm-1 region with an effective resolution of ca. 2.3 x 10(-3) cm-1. The 80SeF6 sample was prepared by burning monoisotopic 80Se powder (99.2%) in an excess of fluorine. The analysis of infrared transitions of the nu3 band enabled the determination of parameters of the Hamiltonian developed up to the third order and the fourth order. The standard deviation obtained is equal to 4 x 10(-4) cm-1 for the third-order development and 3.2 x 10(-4) cm-1 for the fourth-order development. In the two analyses, 2900 lines were assigned and fitted. Copyright 1997 Academic Press. Copyright 1997Academic Press

Materials scienceInfraredAnalytical chemistryInfrared spectroscopyAtomic and Molecular Physics and OpticsFourier transform spectroscopyStandard deviationThird ordersymbols.namesakeFourier transformNuclear magnetic resonancesymbolsMonoisotopic massPhysical and Theoretical ChemistryFourier transform infrared spectroscopySpectroscopyJournal of molecular spectroscopy
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High-resolution spectroscopy and analysis of the ν4 band of 80SeF6

2001

Abstract The Fourier-transform spectrum of the ν4 bending region of 80 SeF 6 around 435 cm −1 has been recorded at a temperature of 217 K with a resolution of 2.3×10 −3 cm −1 . This fundamental has been analyzed using the set of programs called highly spherical top data system (HTDS). Altogether 958 transitions were assigned and fitted with an rms of 0.0003 cm −1 . The effective Hamiltonian was developed up to the fourth order. Parameters and simulations are presented. The ν4 band center is located at 435.099 cm −1 .

symbols.namesakeFourth orderChemistrysymbolsGeneral Physics and AstronomyInfrared spectroscopyMineralogyHigh resolutionPhysical and Theoretical ChemistryAtomic physicsSpectroscopyHamiltonian (quantum mechanics)Chemical Physics Letters
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