We present a study of the classical limit of nonradiative electronic relaxation in condensed phase systems. The discrete Hamiltonian representing an impurity in a condensed phase environment is mapped onto a continuous form using the Meyer-Miller approach. The classical electronic relaxation rate is obtained within the framework of the reactive flux formalism and is compared to the fully quantum mechanical result, and to a mixed quantum-classical approximation. Similar to the case of vibrational relaxation, we find that the fully classical treatment is closer to the fully quantum mechanical rate than the mixed quantum-classical treatment. We provide a time domain analysis of the results. I
We report a theoretical study of transient behaviour of barrierless electronic reactions in solution...
This work concerns itself with the exact study of the dynamical properties of two model systems. Aft...
We present a theory which describes the effects of viscosity on those electronic relaxation processe...
We present a study of the classical limit of nonradiative electronic relaxation in condensed phase s...
We report a theoretical study of the barrierless electronic relaxation in solution. The existing the...
The study of quantum rate processes occurring in condensed phase environments is difficult because o...
International audienceA new, alternative form of the golden rule formula defining the nonadiabatic t...
Previous work has shown how a symmetrical quasi-classical (SQC) windowing procedure can be used to q...
In this article we provide a detailed comparison of two possible approaches to the study of the long...
We examine the problem of how excited populations of electrons relax after they have been excited by...
The dynamic response of an interacting electron system is determined by an extension of the relaxati...
This dissertation is a study of the theoretical framework of the practical as well as fundamental pr...
Abstract: A new approach to quantum Markov processes is developed and the corresponding Fokker-Planc...
In this thesis, we develop and apply computational methods for calculating quantum-mechanical rate c...
The quantum dynamics of many-electron spin systems is investigated using a reduced-density-matrix de...
We report a theoretical study of transient behaviour of barrierless electronic reactions in solution...
This work concerns itself with the exact study of the dynamical properties of two model systems. Aft...
We present a theory which describes the effects of viscosity on those electronic relaxation processe...
We present a study of the classical limit of nonradiative electronic relaxation in condensed phase s...
We report a theoretical study of the barrierless electronic relaxation in solution. The existing the...
The study of quantum rate processes occurring in condensed phase environments is difficult because o...
International audienceA new, alternative form of the golden rule formula defining the nonadiabatic t...
Previous work has shown how a symmetrical quasi-classical (SQC) windowing procedure can be used to q...
In this article we provide a detailed comparison of two possible approaches to the study of the long...
We examine the problem of how excited populations of electrons relax after they have been excited by...
The dynamic response of an interacting electron system is determined by an extension of the relaxati...
This dissertation is a study of the theoretical framework of the practical as well as fundamental pr...
Abstract: A new approach to quantum Markov processes is developed and the corresponding Fokker-Planc...
In this thesis, we develop and apply computational methods for calculating quantum-mechanical rate c...
The quantum dynamics of many-electron spin systems is investigated using a reduced-density-matrix de...
We report a theoretical study of transient behaviour of barrierless electronic reactions in solution...
This work concerns itself with the exact study of the dynamical properties of two model systems. Aft...
We present a theory which describes the effects of viscosity on those electronic relaxation processe...