A full dimensional quantum dynamics calculation has been carried out to study the prototypical complex forming H + CO2 -> OH + CO reaction. The total reaction probability is converged with a propagation time much shorter than the reverse reaction, and only exhibits very small oscillatory structures, indicating the reaction proceeds mainly through a direct mechanism. The strong Fermi resonance between the (020) and (100) vibrationally excited states makes it hard to define their efficacy for reactivity, although it is conceivable that the bending excitation is much more effective than the symmetric excitation according to the geometry of the transition state in the entrance channel. (C) 2017 Elsevier B.V. All rights reserved
Firstly, a full quantum dynamical study of the H+H2OH2+OH reaction for some initial states o...
A combined experimental–theoretical study is performed to advance our understanding of the dynamics ...
Various processes can take place simultaneously in H2 + D2 collisions: four-center reaction yielding...
Scattering calculations on the OH+CO→CO2+H reaction are reported using both quantum and quasiclassic...
The initial state-selected time-dependent wave packet approach to an atom-triatom reaction is employ...
The initial state-selected time-dependent wave packet approach to an atom-triatom reaction is employ...
Quantum state-selected dynamics of C(3P) + OH (X2Π) → CO(a3Π) + H (2S) reaction on its first excited...
We present exact coupled-channel (CC) results of full-dimensional quantum mechanical calculations fo...
Quantum state-selected dynamics of C(3P) + OH (X2Π) → CO(a3Π) + H (2S) reaction on its first excited...
A full dimensional state-to-state quantum dynamics study is carried out for the prototypical complex...
The initial state-selected time-dependent wave packet approach is employed to study the H' + H2O -> ...
Angular distributions and pair-correlated translational energy distributions have been measured for ...
The quantum dynamics of the C+CH reaction has been studied by means of time-dependent quantum wave p...
We report full-dimensional state-to-state quantum mechanical (QM) and quasi-classical trajectory (QC...
We report extensive quasi-classical trajectory calculations of the HO + CO → H + CO 2 reaction on a ...
Firstly, a full quantum dynamical study of the H+H2OH2+OH reaction for some initial states o...
A combined experimental–theoretical study is performed to advance our understanding of the dynamics ...
Various processes can take place simultaneously in H2 + D2 collisions: four-center reaction yielding...
Scattering calculations on the OH+CO→CO2+H reaction are reported using both quantum and quasiclassic...
The initial state-selected time-dependent wave packet approach to an atom-triatom reaction is employ...
The initial state-selected time-dependent wave packet approach to an atom-triatom reaction is employ...
Quantum state-selected dynamics of C(3P) + OH (X2Π) → CO(a3Π) + H (2S) reaction on its first excited...
We present exact coupled-channel (CC) results of full-dimensional quantum mechanical calculations fo...
Quantum state-selected dynamics of C(3P) + OH (X2Π) → CO(a3Π) + H (2S) reaction on its first excited...
A full dimensional state-to-state quantum dynamics study is carried out for the prototypical complex...
The initial state-selected time-dependent wave packet approach is employed to study the H' + H2O -> ...
Angular distributions and pair-correlated translational energy distributions have been measured for ...
The quantum dynamics of the C+CH reaction has been studied by means of time-dependent quantum wave p...
We report full-dimensional state-to-state quantum mechanical (QM) and quasi-classical trajectory (QC...
We report extensive quasi-classical trajectory calculations of the HO + CO → H + CO 2 reaction on a ...
Firstly, a full quantum dynamical study of the H+H2OH2+OH reaction for some initial states o...
A combined experimental–theoretical study is performed to advance our understanding of the dynamics ...
Various processes can take place simultaneously in H2 + D2 collisions: four-center reaction yielding...