We characterize the dynamic nature of the lowest excited state in a pentacene/C<sub>60</sub> complex on the femtosecond time scale, via a combination of ab initio molecular dynamics and time-dependent density functional theory. We analyze the correlations between the molecular vibrations of the complex and the oscillations in the electron-transfer character of its lowest excited state, which point to vibration-induced coherences between the (pentacene-based) local-excitation (LE) state and the complex charge-transfer (CT) state. We discuss the implications of our results on this model system for the exciton-dissociation process in organic solar cells
We study the quantum dissipative dynamics of charge transfer excitons localizing and dissociating at...
The theoretical study of open quantum systems strongly coupled to a vibrational environment remains ...
Marcus theory predicts electron transfer rates between donor and acceptor systems. Since its incepti...
We characterize the dynamic nature of the lowest excited state in a pentacene/C<sub>60</sub> complex...
The characteristics of the electronic excited states and the charge-transfer processes at organic–or...
We investigate the impact of electronic polarization, charge delocalization, and energetic disorder ...
The local and charge-transfer excitation energies in a pentacene/C<sub>60</sub> complex, which is pr...
Charge transfer -CT- reactions are ubiquitous processes in nature. Photoexcited systems can be monit...
We present electronic structure methods to unveil the non-radiative pathways of photoinduced charge ...
Electronic delocalization effects have been proposed to play a key role in photocurrent generation i...
The nature of low energy optical excitations, or excitons, in organic solids is of central relevance...
We use time-dependent density functional theory and time-dependent ZINDO (a semi-empirical method) t...
Fission of the lowest-energy singlet exciton (S1) to two lowest-energy triplet excitons (T1) in pent...
International audienceExciton dynamics governs energy transfer and charge generation in organic func...
Density functional theory (DFT) approaches based on range-separated hybrid functionals are currently...
We study the quantum dissipative dynamics of charge transfer excitons localizing and dissociating at...
The theoretical study of open quantum systems strongly coupled to a vibrational environment remains ...
Marcus theory predicts electron transfer rates between donor and acceptor systems. Since its incepti...
We characterize the dynamic nature of the lowest excited state in a pentacene/C<sub>60</sub> complex...
The characteristics of the electronic excited states and the charge-transfer processes at organic–or...
We investigate the impact of electronic polarization, charge delocalization, and energetic disorder ...
The local and charge-transfer excitation energies in a pentacene/C<sub>60</sub> complex, which is pr...
Charge transfer -CT- reactions are ubiquitous processes in nature. Photoexcited systems can be monit...
We present electronic structure methods to unveil the non-radiative pathways of photoinduced charge ...
Electronic delocalization effects have been proposed to play a key role in photocurrent generation i...
The nature of low energy optical excitations, or excitons, in organic solids is of central relevance...
We use time-dependent density functional theory and time-dependent ZINDO (a semi-empirical method) t...
Fission of the lowest-energy singlet exciton (S1) to two lowest-energy triplet excitons (T1) in pent...
International audienceExciton dynamics governs energy transfer and charge generation in organic func...
Density functional theory (DFT) approaches based on range-separated hybrid functionals are currently...
We study the quantum dissipative dynamics of charge transfer excitons localizing and dissociating at...
The theoretical study of open quantum systems strongly coupled to a vibrational environment remains ...
Marcus theory predicts electron transfer rates between donor and acceptor systems. Since its incepti...