We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ionisation of modified bismethylene-adamantane (BMA) molecules where there is an electron transfer between the two π bonds. We have shown that the nuclear motion significantly affects the electron dynamics after a few fs when the electronic states involved are close in energy. We have also demonstrated how the non-stationary electronic wave packet determines the nuclear motion, more precisely the asymmetric stretching of the two π bonds, illustrating “charge-directed reactivity”. Taking into account the nuclear wave packet width results in the dephasing of electron dynamics with a half-life of 8 fs; this eventually leads to the equal delocali...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
The main focus of this thesis is to investigate the effect of charge migration on molecular dynamics...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
The advent of attosecond techniques opens up the possibility to observe experimentally electron dyna...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
We have simulated the coupled electron and nuclear dynamics using the Ehrenfest method upon valence ...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
The main focus of this thesis is to investigate the effect of charge migration on molecular dynamics...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
The advent of attosecond techniques opens up the possibility to observe experimentally electron dyna...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...
We demonstrate that charge migration can be ‘engineered’ in arbitrary molecular systems if a single ...