The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in high-energy radiation chemistry. We have exposed isolated water molecules to a short x-ray pulse from a free-electron laser and detected momenta of all produced ions in coincidence. By combining experimental results and theoretical modeling, we can image dissociation dynamics of individual molecules in unprecedented detail. We reveal significant molecular structural dynamics in H2O2+, such as asymmetric deformation and bond-angle opening, leading to two-body or three-body fragmentation on a timescale of a few femtoseconds. We thus reconstruct several snapshots of structural dynamics at different time intervals, which highlight dynamical pattern...
The bright ultrafast pulses of X-ray Free-Electron Lasers allow investigation into the structure of ...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
X-ray Free-Electron Lasers have opened the door to a new era in structural biology, enabling imaging...
X-ray Free-Electron Lasers have opened the door to a new era in structural biology, enabling imaging...
X-ray Free-Electron Lasers have opened the door to a new era in structural biology, enabling imaging...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
Free electrons in a polar liquid can form a bound state via interaction with the molecular environme...
The bright ultrafast pulses of X-ray Free-Electron Lasers allow investigation into the structure of ...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
The ultrafast structural dynamics of water following inner-shell ionization is a crucial issue in hi...
X-ray Free-Electron Lasers have opened the door to a new era in structural biology, enabling imaging...
X-ray Free-Electron Lasers have opened the door to a new era in structural biology, enabling imaging...
X-ray Free-Electron Lasers have opened the door to a new era in structural biology, enabling imaging...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
Free electrons in a polar liquid can form a bound state via interaction with the molecular environme...
The bright ultrafast pulses of X-ray Free-Electron Lasers allow investigation into the structure of ...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...
Observing changes in molecular structure requires atomic-scale Ångstrom and femtosecond spatio-tempo...