Reaction rate constants can be directly obtained from evolution of the flux operator eigenvectors under the Boltzmann and Hamiltonian operators. This is achieved by evolving the quantum trajectory ensemble, representing a wavefunction, in imaginary time seamlessly switching to the real-time dynamics. Quantum–mechanical effects are incorporated through the quantum potential dependent on the trajectory momenta or on the derivatives of the wavefunction amplitude. For practicality the quantum potential and wavefunction nodes are described using linear basis, which is exact for Gaussian wavefunctions. For the Eckart barrier approximate rate constants show significant improvement over the parabolic barrier rate constants
Manthe U. Accurate calculations of reaction rates: predictive theory based on a rigorous quantum tra...
We present a trajectory-based method that incorporates quantum effects in the context of Hamiltonian...
Manthe U. Reaction Rates: Accurate quantum dynamical calculations for polyatomic systems. J. Theo. C...
Reaction rate constants can be directly obtained from evolution of the flux operator eigenvectors un...
The calculation of thermal reaction rate constants is a central problem in theoretical chemistry, an...
The quantum trajectory framework incorporates quantum effects on dynamics through the quantum potent...
The quantum trajectory approach is generalized to arbitrary coordinate systems, including curvilinea...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We shall use this introduction to the Faraday Discussion on quantum effects in complex systems to re...
It has been shown recently that in order for real-time correlation functions obtained from centroid ...
The quantum instanton approximation is a type of quantum transition state theory that calculates the...
The Boltzmann evolution of a wavefunction can be recast as imaginary-time dynamics of the quantum tr...
A quantum mechanical theory for chemical reaction rates is presented which is modeled after the [sem...
In this thesis, we develop and apply computational methods for calculating quantum-mechanical rate c...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...
Manthe U. Accurate calculations of reaction rates: predictive theory based on a rigorous quantum tra...
We present a trajectory-based method that incorporates quantum effects in the context of Hamiltonian...
Manthe U. Reaction Rates: Accurate quantum dynamical calculations for polyatomic systems. J. Theo. C...
Reaction rate constants can be directly obtained from evolution of the flux operator eigenvectors un...
The calculation of thermal reaction rate constants is a central problem in theoretical chemistry, an...
The quantum trajectory framework incorporates quantum effects on dynamics through the quantum potent...
The quantum trajectory approach is generalized to arbitrary coordinate systems, including curvilinea...
We present a time-dependent semiclassical method based on quantum trajectories. Quantum-mechanical e...
We shall use this introduction to the Faraday Discussion on quantum effects in complex systems to re...
It has been shown recently that in order for real-time correlation functions obtained from centroid ...
The quantum instanton approximation is a type of quantum transition state theory that calculates the...
The Boltzmann evolution of a wavefunction can be recast as imaginary-time dynamics of the quantum tr...
A quantum mechanical theory for chemical reaction rates is presented which is modeled after the [sem...
In this thesis, we develop and apply computational methods for calculating quantum-mechanical rate c...
National audienceIn this contribution, we expose a new mixed quantum-classical reaction dynamics met...
Manthe U. Accurate calculations of reaction rates: predictive theory based on a rigorous quantum tra...
We present a trajectory-based method that incorporates quantum effects in the context of Hamiltonian...
Manthe U. Reaction Rates: Accurate quantum dynamical calculations for polyatomic systems. J. Theo. C...