Detail publikace

Study of Nitrogen Atom Recombination by Optical Emission Spectroscopy

MAZÁNKOVÁ, V. TRUNEC, D. KRČMA, F.

Originální název

Study of Nitrogen Atom Recombination by Optical Emission Spectroscopy

Anglický název

Study of Nitrogen Atom Recombination by Optical Emission Spectroscopy

Jazyk

en

Originální abstrakt

The reaction kinetics in nitrogen flowing afterglow was studied by optical emission spectroscopy. The DC flowing post-discharge in pure nitrogen was created in a quartz tube at the total gas pressure of 1000 Pa. The optical emission spectra were measured along the flow tube. It was found that N atoms are the most important particles in the late nitrogen afterglow. In order to explain the decrease of N atom concentration, it was also necessary to include the surface recombination of N atoms to the model.

Anglický abstrakt

The reaction kinetics in nitrogen flowing afterglow was studied by optical emission spectroscopy. The DC flowing post-discharge in pure nitrogen was created in a quartz tube at the total gas pressure of 1000 Pa. The optical emission spectra were measured along the flow tube. It was found that N atoms are the most important particles in the late nitrogen afterglow. In order to explain the decrease of N atom concentration, it was also necessary to include the surface recombination of N atoms to the model.

Dokumenty

BibTex


@article{BUT116650,
  author="Věra {Mazánková} and David {Trunec} and František {Krčma}",
  title="Study of Nitrogen Atom Recombination by Optical Emission Spectroscopy",
  annote="The reaction kinetics in nitrogen flowing afterglow was studied by optical emission spectroscopy. The DC flowing post-discharge in pure nitrogen was created in a quartz tube at the total gas pressure of 1000 Pa. The optical emission spectra were measured along the flow tube. It was found that N atoms are the most important particles in the late nitrogen afterglow. In order to explain the decrease of N atom concentration, it was also necessary to include the surface recombination of N atoms to the model.",
  chapter="116650",
  howpublished="print",
  number="1",
  volume="2",
  year="2015",
  month="september",
  pages="50--53",
  type="journal article - other"
}