The C( <sup>3</sup> P) + O <sub>2</sub> ( <sup>3</sup> Σ <sub>g</sub> <sup>−</sup> ) → CO <sub>2</sub> ↔ CO( <sup>1</sup> Σ <sup>+</sup> ) + O( <sup>1</sup> D)/O( <sup>3</sup> P) reaction: thermal and vibrational relaxation rates from 15 K to 20 000 KJuan Carlos San Vicente Veliz, Markus Meuwly, Debasish Koner et al.|Physical Chemistry Chemical Physics|2021Cited by 22
The C($^3$P) + O$_2$($^3 \Sigma_g^-$) $\leftrightarrow$ CO$_2$ $\leftrightarrow$ CO($^1 \Sigma^+$)+ O($^1$D)/O($^3$P) Reaction: Thermal and Vibrational Relaxation Rates from 15 K to 20000 K.Juan Carlos San Vicente Veliz, Markus Meuwly, Debasish Koner et al.|arXiv (Cornell University)|2021Cited by 0
The C($^3$P) + O$_2$($^3 Σ_g^-$) $\leftrightarrow$ CO$_2$ $\leftrightarrow$ CO($^1 Σ^+$)+ O($^1$D)/O($^3$P) Reaction: Thermal and Vibrational Relaxation Rates from 15 K to 20000 KJuan Carlos San Vicente Veliz, Markus Meuwly, Raymond J. Bemish et al.|arXiv (Cornell University)|2021Cited by 0
The N(4S) + O2(X3Σ −g) ↔ O(3P) + NO(X2Π) reaction: thermal and vibrational relaxation rates for the 2A′, 4A′ and 2A′′ statesJuan Carlos San Vicente Veliz, Markus Meuwly, Raymond J. Bemish et al.|Zenodo (CERN European Organization for Nuclear Research)|2020Cited by 0