Collisional-radiative modelling of a non-equilibrium stationary oxygen plasma at atmospheric pressure, theta(e) = 3000-18,000 K

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Collisional Plasmas, Oxygen Plasma, Radiative Recombination, Recombination Coefficient, Ambipolar Diffusion, Atomic Energy Levels, Atomic Excitations, Boltzmann Distribution, Electron Energy, Molecular Ions, Optical Thickness

Scientific paper

Collisional-radiative models were developed for stationary oxygen plasmas at atmospheric pressure and for electronic temperatures theta(e) in the range 3000-18,000 K. Both atomic and molecular species were taken into account; the main population and depopulation mechanisms were analyzed in order to interpret the behavior of ground- and excited-level population-number densities of neutral and of positively and negatively charged species. The effects of atomic and molecular resonance-radiation trapping and shifts of statistical equilibria due to radiation escape were studied.

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