Using time-dependent nonadiabatic and adiabatic wave packet methods, we investigate nonadiabatic effects in collisions of D+(H+) with H-2(D-2) for collision energies from 1.7 to 2.5 eV. A new accurate diabatic potential energy surface [L.P. Viegas, A. Alijah, A.J.C. Varandas, J.Chem. Phys. 126 (2007) 74309] of the H-3(+) system fitted from full multireference configuration interaction calculations with a cc-pV5Z basis set is incorporated into the quantum calculations of initial state resolved integral cross sections. Comparison with previous calculations and experimental measurements are used to give insight on the nonadiabatic charge transfer process and isotope effect. (C) 2009 Elsevier B. V. All rights reserved
11 pags., 7 figs.The H + D (Formula presented.) (v = 0,1 and 2) charge transfer reaction is studied ...
Nonadiabatic quantum dynamical calculations have been carried out on the two coupled potential energ...
In continuation of our earlier effort to understand the nonadiabatic coupling effects in the prototy...
Real wave packet propagations were carried out on both a single ground electronic state and two-coup...
The exact three-dimensional nonadiabatic quantum dynamics calculations were carried out for the titl...
Abstract. An ab initio study on the low-lying potential energy surfaces of H+ + O2 system for differ...
The H + D2+ (v = 0,1 and 2) charge transfer reaction is studied using an accurate wave packet method...
A set of diabatic potential energy surfaces, that describe the D + DBr -> Br(P-1/2,P-3/2) + D2 react...
Here we present our recent studies on the effect of nonadiabaticity on the triatomic chemical reacti...
The H + D2+ (v = 0,1 and 2) charge transfer reaction is studied using an accurate wave packet method...
Initial state-selected and energy resolved integral reaction cross sections and thermal rate constan...
12 págs.; 12 figs.; 1 tab.Analytical derivatives and non-adiabatic coupling matrix elements are deri...
We develop a wave packet approach to treating the electronically nonadiabatic reaction dynamics of O...
Time-dependent quantum wave packet calculations have been performed for the H + DBr and D + HBr reac...
Initial state-selected and energy resolved integral reaction cross sections and thermal rate constan...
11 pags., 7 figs.The H + D (Formula presented.) (v = 0,1 and 2) charge transfer reaction is studied ...
Nonadiabatic quantum dynamical calculations have been carried out on the two coupled potential energ...
In continuation of our earlier effort to understand the nonadiabatic coupling effects in the prototy...
Real wave packet propagations were carried out on both a single ground electronic state and two-coup...
The exact three-dimensional nonadiabatic quantum dynamics calculations were carried out for the titl...
Abstract. An ab initio study on the low-lying potential energy surfaces of H+ + O2 system for differ...
The H + D2+ (v = 0,1 and 2) charge transfer reaction is studied using an accurate wave packet method...
A set of diabatic potential energy surfaces, that describe the D + DBr -> Br(P-1/2,P-3/2) + D2 react...
Here we present our recent studies on the effect of nonadiabaticity on the triatomic chemical reacti...
The H + D2+ (v = 0,1 and 2) charge transfer reaction is studied using an accurate wave packet method...
Initial state-selected and energy resolved integral reaction cross sections and thermal rate constan...
12 págs.; 12 figs.; 1 tab.Analytical derivatives and non-adiabatic coupling matrix elements are deri...
We develop a wave packet approach to treating the electronically nonadiabatic reaction dynamics of O...
Time-dependent quantum wave packet calculations have been performed for the H + DBr and D + HBr reac...
Initial state-selected and energy resolved integral reaction cross sections and thermal rate constan...
11 pags., 7 figs.The H + D (Formula presented.) (v = 0,1 and 2) charge transfer reaction is studied ...
Nonadiabatic quantum dynamical calculations have been carried out on the two coupled potential energ...
In continuation of our earlier effort to understand the nonadiabatic coupling effects in the prototy...