Laboratory measurements and calculations of line shape parameters of the H2O–CO2 collision system

Laurence Régalia, E. Cousin, Robert Gamache, Bastien Vispoel, Séverine Robert, X. Thomas

Research output: Contribution to journalReview article

Abstract

For decades, the remote sensing measurements have been made in planetary atmospheres in the So- lar System and beyond. As the performance of the space instruments improves, the atmospheric science community is more and more in need of accurate spectroscopic data. The current databases offer some parameters for non-Earth atmospheres but are far from complete for all situations. For example, mea- sured H 2 O line parameters in CO 2 -rich atmospheres such as Mars and Venus are missing while they are of prime importance to learn about the evolution of the atmospheres. New Fourier Transform Spectrom- eter spectra were recorded respectively around 2.7 and 6 μm, using a Connes’ type FT spectrometer built in Reims. The spectra were analysed using a multispectrum fitting procedure to obtain the line-shape parameters of H 2 O broadened by CO 2 . Modified Complex Robert-Bonamy calculations of the half-width, line shift, and their temperature dependence were made in the spectral region from 1300 to 50 0 0 cm −1 . The measurements and calculations are presented and compared with data available in the literature
Original languageEnglish
Pages (from-to)126-135
Number of pages10
JournalJournal of Quantitative Spectroscopy and Radiative Transfer
Volume231
DOIs
Publication statusPublished - 1 Jul 2019
Externally publishedYes

Fingerprint

Carbon Monoxide
line shape
Spectrometers
atmospheres
collisions
Solar system
spectrometers
Remote sensing
planetary atmospheres
Fourier transforms
Venus (planet)
solar system
mars
remote sensing
temperature dependence
shift
Temperature

Keywords

  • High resolution infrared spectroscopy
  • Line shape parameters
  • Modified Complex Robert-Bonamy calculations, planetary atmospheres
  • Water vapor-carbon dioxide

Cite this

Régalia, Laurence ; Cousin, E. ; Gamache, Robert ; Vispoel, Bastien ; Robert, Séverine ; Thomas, X. / Laboratory measurements and calculations of line shape parameters of the H2O–CO2 collision system. In: Journal of Quantitative Spectroscopy and Radiative Transfer. 2019 ; Vol. 231. pp. 126-135.
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abstract = "For decades, the remote sensing measurements have been made in planetary atmospheres in the So- lar System and beyond. As the performance of the space instruments improves, the atmospheric science community is more and more in need of accurate spectroscopic data. The current databases offer some parameters for non-Earth atmospheres but are far from complete for all situations. For example, mea- sured H 2 O line parameters in CO 2 -rich atmospheres such as Mars and Venus are missing while they are of prime importance to learn about the evolution of the atmospheres. New Fourier Transform Spectrom- eter spectra were recorded respectively around 2.7 and 6 μm, using a Connes’ type FT spectrometer built in Reims. The spectra were analysed using a multispectrum fitting procedure to obtain the line-shape parameters of H 2 O broadened by CO 2 . Modified Complex Robert-Bonamy calculations of the half-width, line shift, and their temperature dependence were made in the spectral region from 1300 to 50 0 0 cm −1 . The measurements and calculations are presented and compared with data available in the literature",
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Laboratory measurements and calculations of line shape parameters of the H2O–CO2 collision system. / Régalia, Laurence; Cousin, E.; Gamache, Robert; Vispoel, Bastien; Robert, Séverine; Thomas, X.

In: Journal of Quantitative Spectroscopy and Radiative Transfer, Vol. 231, 01.07.2019, p. 126-135.

Research output: Contribution to journalReview article

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T1 - Laboratory measurements and calculations of line shape parameters of the H2O–CO2 collision system

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AU - Cousin, E.

AU - Gamache, Robert

AU - Vispoel, Bastien

AU - Robert, Séverine

AU - Thomas, X.

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