Laurent C. Pierrot
Mechanical Engineering Department, Thermosciences Division Building 520, Stanford University, CA 94305-3032, USA
Christophe O. Laux
Mechanical Engineering Department, Thermosciences Division Building 520, Stanford University, CA 94305-3032, USA
Charles H. Kruger
Mechanical Engineering Department, Thermosciences Division Building 520, Stanford University, CA 94305-3032, USA
We present a new method for the calculation of electron-impact electronic and vibronic rate coefficients in nitrogen plasmas in which rotational levels are taken into account, and we analyze differences with existing methods. High-lying rotational levels, neglected in previous methods, are shown to have a major influence on dissociation rates. Calculated vibronic depletion rates of the B state of N2 under the experimental conditions of Ref. [1] are
significantly smaller than predissociation rates.