Max Schwilk

activity

20192023

most citedThe

N (^{4} S) + O_{2} (X^{3} Σ_{g}^{-}) \leftrightarrow O (^{3} P) + NO (X^{2} Π)

Reaction: Thermal and Vibrational Relaxation Rates for the

^{2}

^{'}

^{4}

^{'}

and

^{2}

^{''}

States

43 citations · 125 across the 8 of their papers we have counts for

collaborators

Showing 2019Show all

2 papers · 1 filter

physics.chem-ph2019★ 43 cited

The $N (^{4} S) + O_{2} (X^{3} Σ_{g}^{-}) \leftrightarrow O (^{3} P) + NO (X^{2} Π)$ Reaction: Thermal and Vibrational Relaxation Rates for the $^{2}$ A $^{'}$ , $^{4}$ A $^{'}$ and $^{2}$ A $^{''}$ States

Juan Carlos San Vicente Veliz, Debasish Koner, Max Schwilk +2

The kinetics and vibrational relaxation of the $N (^{4} S) + O_{2} (X^{3} Σ_{g}^{-}) \leftrightarrow O (^{3} P) + NO (X^{2} Π)$ reaction is investigated over a wide temperature ra…

physics.chem-ph2019★ 41 cited

Machine learning the computational cost of quantum chemistry

Stefan Heinen, Max Schwilk, Guido Falk von Rudorff +1

Computational quantum mechanics based molecular and materials design campaigns consume increasingly more high-performance compute resources, making improved job scheduling efficien…

The N(4S)+O2​(X3Σg−​)↔O(3P)+NO(X2Π) Reaction: Thermal and Vibrational Relaxation Rates for the 2A′, 4A′ and 2A′′ States

Machine learning the computational cost of quantum chemistry

The $N (^{4} S) + O_{2} (X^{3} Σ_{g}^{-}) \leftrightarrow O (^{3} P) + NO (X^{2} Π)$ Reaction: Thermal and Vibrational Relaxation Rates for the $^{2}$ A $^{'}$ , $^{4}$ A $^{'}$ and $^{2}$ A $^{''}$ States