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INFRARED SPECTRA AND MOLECULAR DYNAMICS SIMULATIONS OF TRANS -HONO ISOMER IN AN ARGON MATRIX. / Talik, Tadeusz; Tokhadze, Konstantin G.; Mielke, Zofia.

In: Physical Chemistry Chemical Physics, No. 18, 2000, p. 3957-3966.

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Talik T, Tokhadze KG, Mielke Z. INFRARED SPECTRA AND MOLECULAR DYNAMICS SIMULATIONS OF TRANS -HONO ISOMER IN AN ARGON MATRIX. Physical Chemistry Chemical Physics. 2000;(18):3957-3966.

Author

Talik, Tadeusz ; Tokhadze, Konstantin G. ; Mielke, Zofia. / INFRARED SPECTRA AND MOLECULAR DYNAMICS SIMULATIONS OF TRANS -HONO ISOMER IN AN ARGON MATRIX. In: Physical Chemistry Chemical Physics. 2000 ; No. 18. pp. 3957-3966.

BibTeX

@article{b98c2ff5fe794e29bd50a6caec5e08f4,
title = "INFRARED SPECTRA AND MOLECULAR DYNAMICS SIMULATIONS OF TRANS -HONO ISOMER IN AN ARGON MATRIX",
abstract = "FTIR temperature dependence studies of the spectra of trans-HONO monomer trapped in an argon matrix are presented. The spectral studies show that doublets observed in the N2O, N-O stretching, NOH bending and OH torsion regions and a triplet in the OH stretch region show reversible temperature dependence; one component of each doublet and two components of the triplet exhibit larger broadening with temperature than the other component in the same region. Molecular dynamics simulations of trans-HONO isomer in an argon matrix demonstrate the existence of two types of trapping cages. The molecule trapped in a one-atom substitutional cage has more freedom of reorientational motion than the molecule trapped in a two-atom cage. The bands showing a stronger temperature dependence are assigned to the molecule in a one-atom cage and the others to the molecule in a two-atom cage.",
author = "Tadeusz Talik and Tokhadze, {Konstantin G.} and Zofia Mielke",
year = "2000",
language = "English",
pages = "3957--3966",
journal = "Physical Chemistry Chemical Physics",
issn = "1463-9076",
publisher = "Royal Society of Chemistry",
number = "18",

}

RIS

TY - JOUR

T1 - INFRARED SPECTRA AND MOLECULAR DYNAMICS SIMULATIONS OF TRANS -HONO ISOMER IN AN ARGON MATRIX

AU - Talik, Tadeusz

AU - Tokhadze, Konstantin G.

AU - Mielke, Zofia

PY - 2000

Y1 - 2000

N2 - FTIR temperature dependence studies of the spectra of trans-HONO monomer trapped in an argon matrix are presented. The spectral studies show that doublets observed in the N2O, N-O stretching, NOH bending and OH torsion regions and a triplet in the OH stretch region show reversible temperature dependence; one component of each doublet and two components of the triplet exhibit larger broadening with temperature than the other component in the same region. Molecular dynamics simulations of trans-HONO isomer in an argon matrix demonstrate the existence of two types of trapping cages. The molecule trapped in a one-atom substitutional cage has more freedom of reorientational motion than the molecule trapped in a two-atom cage. The bands showing a stronger temperature dependence are assigned to the molecule in a one-atom cage and the others to the molecule in a two-atom cage.

AB - FTIR temperature dependence studies of the spectra of trans-HONO monomer trapped in an argon matrix are presented. The spectral studies show that doublets observed in the N2O, N-O stretching, NOH bending and OH torsion regions and a triplet in the OH stretch region show reversible temperature dependence; one component of each doublet and two components of the triplet exhibit larger broadening with temperature than the other component in the same region. Molecular dynamics simulations of trans-HONO isomer in an argon matrix demonstrate the existence of two types of trapping cages. The molecule trapped in a one-atom substitutional cage has more freedom of reorientational motion than the molecule trapped in a two-atom cage. The bands showing a stronger temperature dependence are assigned to the molecule in a one-atom cage and the others to the molecule in a two-atom cage.

M3 - Article

SP - 3957

EP - 3966

JO - Physical Chemistry Chemical Physics

JF - Physical Chemistry Chemical Physics

SN - 1463-9076

IS - 18

ER -

ID: 5115012