We present a trajectory-based method that incorporates quantum effects in the context of Hamiltonian dynamics. It is based on propagation of trajectories in the presence of quantum potential within the hydrodynamic formulation of the Schrödinger equation. The quantum potential is derived from the density approximated as a linear combination of gaussian functions. One-gaussian fit gives exact result for parabolic potentials, as do successful semiclassical methods. The limit of the large number of fitting gaussians and trajectories gives the full quantum–mechanical result. The method is systematically improvable from classical to fully quantum, as demonstrated on a transmission through the Eckart barrier
The subject of this mainly methodological thesis is the use of quantum trajectories, defined by de B...
The subject of this mainly methodological thesis is the use of quantum trajectories, defined by de B...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...
We present a trajectory-based method that incorporates quantum effects in the context of Hamiltonian...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
Semiclassical approaches to chemical dynamics show great promise as methods to obtain practical resu...
The method, described in the paper, incorporates ideas of the Bohmian formulation of quantum mechani...
The method, described in the paper, incorporates ideas of the Bohmian formulation of quantum mechani...
The method, described in the paper, incorporates ideas of the Bohmian formulation of quantum mechani...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...
The subject of this mainly methodological thesis is the use of quantum trajectories, defined by de B...
The subject of this mainly methodological thesis is the use of quantum trajectories, defined by de B...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...
We present a trajectory-based method that incorporates quantum effects in the context of Hamiltonian...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
Semiclassical approaches to chemical dynamics show great promise as methods to obtain practical resu...
The method, described in the paper, incorporates ideas of the Bohmian formulation of quantum mechani...
The method, described in the paper, incorporates ideas of the Bohmian formulation of quantum mechani...
The method, described in the paper, incorporates ideas of the Bohmian formulation of quantum mechani...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...
The subject of this mainly methodological thesis is the use of quantum trajectories, defined by de B...
The subject of this mainly methodological thesis is the use of quantum trajectories, defined by de B...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...