@Article{BarretoEAACGLMP:2017:ImNoVi,
author = "Barreto, Patr{\'{\i}}cia Regina Pereira and Euclides, Henrique
de Oliveira and Albernaz, Alessandra F. and Aquilanti, Vincenzo
and Capitelli, Mario and Grossi, Gaia and Lombardi, Andrea and
Macheret, Sergey and Palazzetti, Federico",
affiliation = "{Instituto Nacional de Pesquisas Espaciais (INPE)} and {Instituto
Nacional de Pesquisas Espaciais (INPE)} and {Universidade de
Bras{\'{\i}}lia (UnB)} and {Universit{\`a} di Perugia} and
{NANOTEC – Istituto di Nanotecnologia} and {Universit{\`a} di
Perugia} and {Purdue University} and {} and {Universit{\`a} di
Perugia}",
title = "Gas phase Boudouard reactions involving singlet–singlet and
singlet–triplet CO vibrationally excited states: implications for
the non-equilibrium vibrational kinetics of CO/CO2 plasmas",
journal = "European Physical Journal D",
year = "2017",
volume = "71",
number = "10",
month = "Oct.",
abstract = "Rate constants for the Boudouard reactions: CO+ CO -> CO2 + C and
CO+ CO -> C2O+ O, involving ground and vibrationally excited
states for both singlet-singlet and singlet-triplet reactant CO
molecules, have been obtained by using the transition-state theory
on an ab initio generated potential energy surface. The dependence
of the activation energies for the different processes on the
vibrational energy of reactants has been estimated through a
parametrization that accounts for the utilization of vibrational
energy and is calculated by the forward and backward ab initio
activation energies of the relevant processes at zero vibrational
energy. The results and their comparison with available
experimental reaction rates demonstrate the importance of
vibrational excitation not only for the singlet-singlet reactions,
but also for the singlet-triplet ones, which are here investigated
for the first time. Finally, the implications of the present
results on the kinetics of CO/CO2 cold plasmas are discussed: for
their modeling the temperature dependence of the obtained rates
for singlet-singlet and singlet-triplet reactants in the ground
vibrational states have been represented by both Arrhenius and
deformed Arrhenius equations.",
doi = "10.1140/epjd/e2017-80103-1",
url = "http://dx.doi.org/10.1140/epjd/e2017-80103-1",
issn = "1434-6060",
language = "en",
targetfile = "barreto_gas.pdf",
urlaccessdate = "01 maio 2024"
}