We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5-25). The products of the subsequent fragmentation were studied using high resolution coincidence time-of-flight spectrometry. We observed a strong dependence of the fragment kinetic energies on the initial charge state of the intermediate parent ions as well as on the initial chemical environment of the respective fragment ions within the parent molecule. The data allow us to shed light on the charge distribution within the molecule as well as on the fragmentation dynamics of these intermediate size systems.</p
International audienceComplex molecular systems such as large molecules or clusters are characterise...
International audienceComplex molecular systems such as large molecules or clusters are characterise...
We present first results of biomolecular fragmentation studies with slow highly charged ions (HCI). ...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiply charged ion (MCI) induced ionization, excitation and fragmentation of the nucleo...
We studied multiply charged ion (MCI) induced ionization, excitation and fragmentation of the nucleo...
We studied multiply charged ion (MCI) induced ionization, excitation and fragmentation of the nucleo...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
International audienceComplex molecular systems such as large molecules or clusters are characterise...
International audienceComplex molecular systems such as large molecules or clusters are characterise...
We present first results of biomolecular fragmentation studies with slow highly charged ions (HCI). ...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiple ionization of single nucleobases by means of slow highly charged ions (Xeq+, q=5...
We studied multiply charged ion (MCI) induced ionization, excitation and fragmentation of the nucleo...
We studied multiply charged ion (MCI) induced ionization, excitation and fragmentation of the nucleo...
We studied multiply charged ion (MCI) induced ionization, excitation and fragmentation of the nucleo...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
A highly charged ion causes ultrastrong electric fields at the location of a close-by target molecul...
International audienceComplex molecular systems such as large molecules or clusters are characterise...
International audienceComplex molecular systems such as large molecules or clusters are characterise...
We present first results of biomolecular fragmentation studies with slow highly charged ions (HCI). ...