Using a combination of high-level ab initio electronic structure methods with efficient on-the-fly semiclassical evaluation of nuclear dynamics, we performed a massive scan of small polyatomic molecules searching for a long-lasting oscillatory dynamics of the electron density triggered by the outer-valence ionization. We observed that in most of the studied molecules, either the sudden removal of an electron from the system does not lead to the appearance of the electronic coherence or the created coherences become damped by the nuclear rearrangement on a time scale of a few femtoseconds. However, we report several so far unexplored molecules with the electronic coherences lasting up to 10 fs, which can be good candidates for experimental s...
Quantum coherence between electronic states of a photoionized molecule and the resulting process of ...
Electronic excitation of molecules using few femtoseconds or attoseconds optical pulses can build co...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
Exposing a molecule to an intense light pulse can create a nonstationary quantum state, thus launchi...
Exposing a molecule to intense light pulses may bring this molecule to a nonstationary quantum state...
Exposing a molecule to intense light pulses may bring this molecule to a nonstationary quantum state...
Due to the electron correlation, a fast removal of an electron from a molecule may create a coherent...
Under certain conditions, the ionization of a molecule may create a superposition of electronic stat...
The advent of attosecond techniques opens up the possibility to observe experimentally electron dyna...
Electronic coherencedynamics in trans-polyacetylene oligomers are considered by explicitly computing...
We identify an intriguing feature of the electron–vibrational dynamics of molecular systems via a co...
Photoionization using attosecond pulses can lead to the formation of coherent superpositions of the ...
Photoionization using attosecond pulses can lead to the formation of coherent superpositions of the ...
Electronic coherencedynamics in trans-polyacetylene oligomers are considered by explicitly computing...
Quantum coherence between electronic states of a photoionized molecule and the resulting process of ...
Quantum coherence between electronic states of a photoionized molecule and the resulting process of ...
Electronic excitation of molecules using few femtoseconds or attoseconds optical pulses can build co...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...
Exposing a molecule to an intense light pulse can create a nonstationary quantum state, thus launchi...
Exposing a molecule to intense light pulses may bring this molecule to a nonstationary quantum state...
Exposing a molecule to intense light pulses may bring this molecule to a nonstationary quantum state...
Due to the electron correlation, a fast removal of an electron from a molecule may create a coherent...
Under certain conditions, the ionization of a molecule may create a superposition of electronic stat...
The advent of attosecond techniques opens up the possibility to observe experimentally electron dyna...
Electronic coherencedynamics in trans-polyacetylene oligomers are considered by explicitly computing...
We identify an intriguing feature of the electron–vibrational dynamics of molecular systems via a co...
Photoionization using attosecond pulses can lead to the formation of coherent superpositions of the ...
Photoionization using attosecond pulses can lead to the formation of coherent superpositions of the ...
Electronic coherencedynamics in trans-polyacetylene oligomers are considered by explicitly computing...
Quantum coherence between electronic states of a photoionized molecule and the resulting process of ...
Quantum coherence between electronic states of a photoionized molecule and the resulting process of ...
Electronic excitation of molecules using few femtoseconds or attoseconds optical pulses can build co...
Knowledge about the electronic motion in molecules is essential for our understanding of chemical re...