A new hybrid method is presented in which modified Shepard interpolation of a potential energy surface is combined with time-dependent quantum dynamics calculations. The propagation of a wave packet composed of fixed-width Gaussian functions allows a one-to-one mapping between the quantum dynamics results and a small number of quantum trajectories, allowing electronic structure theory calculations to be performed preferentially in dynamically-important regions. The method is designed for demonstrable convergence of the quantum dynamics results from ab initio calculations. The photodissociation of NOCl is used as a test case
The method of direct variational quantum nuclear dynamics in a basis of Gaussian wavepackets, combin...
We present a new quasi-direct quantum molecular dynamics computational method which offers a comprom...
1 Introduction The idea of using time dependent GWP to approximate the evolution of some quantum mec...
Gaussian wavepacket methods are an attractive way to solve the time-dependent Schrödinger equation (...
Abstract: In a recent publication, we introduced a computational approach to treat the simultaneous ...
We explore three specific approaches for speeding up the calculation of quantum time correlation fun...
A review of methods that propagate quantum wave functions with the help of trajectory guided Gaussia...
A new methodology based on the superposition of time-dependent Gauss-Hermite wave packets is develop...
Three methods for non-adiabatic dynamics are compared to highlight their capabilities. Multi-configu...
Propagating a multi–dimensional wavepacket using the time–dependent Schr ̈odinger Equation is a comp...
We introduce a rigorous method for simulations of quantum dynamics by implementing a simple concaten...
In this paper, we explore the numerical feasibility of carrying out quantum dynamics calculations fr...
A quantum sampling algorithm for the interpolation of diabatic potential energy matrices by the Grow...
In any quantum dynamics method that approximates wave functions as a linearly combined basis set, no...
We describe a method for performing nuclear quantum dynamics calculations using standard, grid-based...
The method of direct variational quantum nuclear dynamics in a basis of Gaussian wavepackets, combin...
We present a new quasi-direct quantum molecular dynamics computational method which offers a comprom...
1 Introduction The idea of using time dependent GWP to approximate the evolution of some quantum mec...
Gaussian wavepacket methods are an attractive way to solve the time-dependent Schrödinger equation (...
Abstract: In a recent publication, we introduced a computational approach to treat the simultaneous ...
We explore three specific approaches for speeding up the calculation of quantum time correlation fun...
A review of methods that propagate quantum wave functions with the help of trajectory guided Gaussia...
A new methodology based on the superposition of time-dependent Gauss-Hermite wave packets is develop...
Three methods for non-adiabatic dynamics are compared to highlight their capabilities. Multi-configu...
Propagating a multi–dimensional wavepacket using the time–dependent Schr ̈odinger Equation is a comp...
We introduce a rigorous method for simulations of quantum dynamics by implementing a simple concaten...
In this paper, we explore the numerical feasibility of carrying out quantum dynamics calculations fr...
A quantum sampling algorithm for the interpolation of diabatic potential energy matrices by the Grow...
In any quantum dynamics method that approximates wave functions as a linearly combined basis set, no...
We describe a method for performing nuclear quantum dynamics calculations using standard, grid-based...
The method of direct variational quantum nuclear dynamics in a basis of Gaussian wavepackets, combin...
We present a new quasi-direct quantum molecular dynamics computational method which offers a comprom...
1 Introduction The idea of using time dependent GWP to approximate the evolution of some quantum mec...