Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolution. Here, we report imaging of the molecular structure of acetylene (C$_2$H$_2$) 9 femtoseconds after ionization. Using mid-infrared laser–induced electron diffraction (LIED), we obtained snapshots as a proton departs the [C$_2$H$_2$]$^{2+}$ ion. By introducing an additional laser field, we also demonstrate control over the ultrafast dissociation process and resolve different bond dynamics for molecules oriented parallel versus perpendicular to the LIED field. These measurements are in excellent agreement with a quantum chemical description of field-dressed molecular dynamics
The introduction of femto-chemistry has made it a primary goal to follow the nuclear and electronic ...
International audienceThe introduction of femto-chemistry has made it a primary goal to follow the n...
Author Institution: Department of Physics, The Ohio State University, Columbus, OH 43210; Department...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
We apply laser-induced electron diffraction imaging driven by mid-IR electric waveforms towards prob...
Imaging the dynamics of molecular processes, i.e. the creation of a so-called \u27molecular movie\u2...
In order to probe molecular dynamics at few-femtosecond resolution we use laserinduced electron diff...
Laser-induced electron diffraction is an evolving tabletop method that aims to image ultrafast struc...
Laser-induced electron diffraction is an evolving tabletop method that aims to image ultrafast struc...
The introduction of femto-chemistry has made it a primary goal to follow the nuclear and electronic ...
The introduction of femto-chemistry has made it a primary goal to follow the nuclear and electronic ...
International audienceThe introduction of femto-chemistry has made it a primary goal to follow the n...
Author Institution: Department of Physics, The Ohio State University, Columbus, OH 43210; Department...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
Visualizing chemical reactions as they occur requires atomic spatial and femtosecond temporal resolu...
We apply laser-induced electron diffraction imaging driven by mid-IR electric waveforms towards prob...
Imaging the dynamics of molecular processes, i.e. the creation of a so-called \u27molecular movie\u2...
In order to probe molecular dynamics at few-femtosecond resolution we use laserinduced electron diff...
Laser-induced electron diffraction is an evolving tabletop method that aims to image ultrafast struc...
Laser-induced electron diffraction is an evolving tabletop method that aims to image ultrafast struc...
The introduction of femto-chemistry has made it a primary goal to follow the nuclear and electronic ...
The introduction of femto-chemistry has made it a primary goal to follow the nuclear and electronic ...
International audienceThe introduction of femto-chemistry has made it a primary goal to follow the n...
Author Institution: Department of Physics, The Ohio State University, Columbus, OH 43210; Department...