Trajectory surface hopping calculations are reported for the Li + Li2(X1Σg+) dissociation reaction over the range of translational energies 13 ≤ Etr/kcal mol-1 ≤ 80. Both potential energy surfaces for ground doublet Li3, which have been modeled from the double many-body expansion method (DMBE III), have been employed in the dynamics calculations. For the initial internal state (v = 0, j = 10), the behavior of the dissociative cross sections as a function of translational energy shows that nonadiabatic effects are important over the whole range of energies studied. Concerning the role of initial vibration, it has been found that, for Etr = 25 kcal mol-1 and j = 10, the adiabatic dissociative cross sections are enhanced as v increases from 0 ...
Three-dimensional potential energy surfaces (PESs) have been computed, and numerically fitted, for t...
The effect of high initial vibrational (v=0-25) and rotational (j=0-100) excitation of the reactant ...
We present a new accurate potential energy surface (PES) for the ground state H + Li2 reaction from ...
Self-consistent potential and trajectory surface hopping methods have been applied to study the Li +...
A potential energy surface for the lowest quartet electronic state of lithium trimer is developed an...
International audienceWe have performed a quantum-dynamical study of vibrational deexcitation and el...
A potential energy surface for the lowest quartet electronic state (A′4) of lithium trimer is develo...
The mechanism for vibrational inelastic excitation during the collision between Li2(ν = 0) and Li wa...
Quasi-classical trajectory calculations have been performed on the adiabatically allowed reactions t...
A diabatic potential energy matrix for three electronic states of OH₃ has been constructed by interp...
he collisional, superelastic encounters at ultralow energies of Li(+) with D(2) are computed using t...
12 págs.; 9 figs.; tab.; PACS number(s): 34.50.Cx, 34.50.Lf, 82.20.Xr© 2015 American Physical Societ...
The mechanism for vibrational inelastic excitation during the collision between Li<sub>2</sub>(ν = 0...
A first principles study of the dynamics of Li6(2S)+Li6Yb174(2Σ+)→6Li2(1Σ+) + Yb174(1S) reaction is ...
Reaction dynamics of prototypical, D + H2 and Cl (2P) + H2, chemical reactions occurring through the...
Three-dimensional potential energy surfaces (PESs) have been computed, and numerically fitted, for t...
The effect of high initial vibrational (v=0-25) and rotational (j=0-100) excitation of the reactant ...
We present a new accurate potential energy surface (PES) for the ground state H + Li2 reaction from ...
Self-consistent potential and trajectory surface hopping methods have been applied to study the Li +...
A potential energy surface for the lowest quartet electronic state of lithium trimer is developed an...
International audienceWe have performed a quantum-dynamical study of vibrational deexcitation and el...
A potential energy surface for the lowest quartet electronic state (A′4) of lithium trimer is develo...
The mechanism for vibrational inelastic excitation during the collision between Li2(ν = 0) and Li wa...
Quasi-classical trajectory calculations have been performed on the adiabatically allowed reactions t...
A diabatic potential energy matrix for three electronic states of OH₃ has been constructed by interp...
he collisional, superelastic encounters at ultralow energies of Li(+) with D(2) are computed using t...
12 págs.; 9 figs.; tab.; PACS number(s): 34.50.Cx, 34.50.Lf, 82.20.Xr© 2015 American Physical Societ...
The mechanism for vibrational inelastic excitation during the collision between Li<sub>2</sub>(ν = 0...
A first principles study of the dynamics of Li6(2S)+Li6Yb174(2Σ+)→6Li2(1Σ+) + Yb174(1S) reaction is ...
Reaction dynamics of prototypical, D + H2 and Cl (2P) + H2, chemical reactions occurring through the...
Three-dimensional potential energy surfaces (PESs) have been computed, and numerically fitted, for t...
The effect of high initial vibrational (v=0-25) and rotational (j=0-100) excitation of the reactant ...
We present a new accurate potential energy surface (PES) for the ground state H + Li2 reaction from ...