There is a growing interplay between infrared observations of rotation–vibration transitions and microwave measurements of the rotational structure of the vibrational states. This interplay has perhaps been most extensive in HNO3 (e.g., [1], [2] and [3]). ClONO2 is a similar, but more challenging case for both infrared and microwave analysis. In the infrared, the closely spaced transitions make the resolution of individual lines difficult. In the microwave, the large number of thermally populated vibrational states makes assignment of the rotational spectrum of higher lying vibrational states challenging
Author Institution: Department of Physics and Department of Chemistry, Mississippi State UniversityT...
Author Institution: National Bureau of StandardsHigh resolution infrared spectra of $Cl^{35}CN$ and ...
Author Institution: Institute of Environmental Physics, University of Bremen; LPMA, CNRS, University...
There is a growing interplay between infrared observations of rotation–vibration transitions and mic...
The pure rotational spectrum of chlorine nitrate in its v6 = 1 excited vibrational state has been st...
Author Institution: Department of Physics, The Ohio State University; Department of Physics and Astr...
Chlorine nitrate is a molecule of interest in atmospheric studies because of its role as a reservoir...
Chlorine nitrate is a molecule of both spectroscopic and atmospheric interest. It is a species whose...
Author Institution: Department of Physics, The Ohio State University; Department of Physics and Chem...
The analysis of the recently recorded 78–378 GHz broadband spectrum of ClONO2 has been extended to c...
Author Institution: Institute of Physics, Polish Academy of Sciences, Al. Lotnikow; 32/46, 02...
Author Institution: Department of Physics, The Ohio State University; Department of Physics and Chem...
Author Institution: Jet Propulsion Laboratory, California Institute of Technology; Department of Phy...
Author Institution: Jet Propulsion Laboratory, California Institute of Technology, Pasadena, CA 9110...
Chlorine nitrate has two low-lying vibrational modes that lead to a series of Fermi resonances in th...
Author Institution: Department of Physics and Department of Chemistry, Mississippi State UniversityT...
Author Institution: National Bureau of StandardsHigh resolution infrared spectra of $Cl^{35}CN$ and ...
Author Institution: Institute of Environmental Physics, University of Bremen; LPMA, CNRS, University...
There is a growing interplay between infrared observations of rotation–vibration transitions and mic...
The pure rotational spectrum of chlorine nitrate in its v6 = 1 excited vibrational state has been st...
Author Institution: Department of Physics, The Ohio State University; Department of Physics and Astr...
Chlorine nitrate is a molecule of interest in atmospheric studies because of its role as a reservoir...
Chlorine nitrate is a molecule of both spectroscopic and atmospheric interest. It is a species whose...
Author Institution: Department of Physics, The Ohio State University; Department of Physics and Chem...
The analysis of the recently recorded 78–378 GHz broadband spectrum of ClONO2 has been extended to c...
Author Institution: Institute of Physics, Polish Academy of Sciences, Al. Lotnikow; 32/46, 02...
Author Institution: Department of Physics, The Ohio State University; Department of Physics and Chem...
Author Institution: Jet Propulsion Laboratory, California Institute of Technology; Department of Phy...
Author Institution: Jet Propulsion Laboratory, California Institute of Technology, Pasadena, CA 9110...
Chlorine nitrate has two low-lying vibrational modes that lead to a series of Fermi resonances in th...
Author Institution: Department of Physics and Department of Chemistry, Mississippi State UniversityT...
Author Institution: National Bureau of StandardsHigh resolution infrared spectra of $Cl^{35}CN$ and ...
Author Institution: Institute of Environmental Physics, University of Bremen; LPMA, CNRS, University...