Ultrafast Dynamics Research

Virtual Tour

Our lab took part in creating a 360 virtual tour of the Department of Physics & Astronomy. The Office of Graduate Studies funded the video in which prospective students can "visit" via their smartphone or computer. Skip ahead to minute 1:35 to see our lab.

Use the YouTube app on your phone or Firefox and Chrome browsers on your computer. Utilize the full 360 degree space by moving your phone or dragging your desktop cursor up-and-down and side-to-side.

Latest Research

Illustration of molecule interactions at 100-femtosecond resolution. Image by SLAC National Accelerator Laboratory

Department of Energy Basic Energy Sciences Highlight

Our recent results on Femtosecond Electron Diffraction have been chosen as a Science Highlight "Capturing Molecular Motion with Relativistic Electrons" by the Department of Energy – Basic Energy Sciences.

Read the BES Highlight

Physicists use electrons to record more 'frames' of atomic motion

We have finally achieved femtosecond resolution in electron diffraction from molecules in the gas phase. The experiments were done at SLAC with a relativistic electron gun. The results were picked up by several news agencies. More information is available on the News page.

Read the UNL Today Press Release
From left: Matthew Robinson, Martin Centurion and Jie Yang. Craig Chandler, University Communications
Electron diffraction pattern.

Ultrafast imaging of isolated molecules with electron diffraction

The Journal of Physics B: Atomic, Molecular and Optical Physics published a Topical Review of "Ultrafast imaging of isolated molecules with electron diffraction" in February 2016.

Read the review on Digital Commons

SPIE Features "Sub-picosecond imaging of short-lived molecular structures"

In an article for the International Society for Optics and Photonics (SPIE), we discussed the ultrafast electron diffraction and femtosecond laser pulses behind our research and how it can lead to unprecedented areas of imaging resolutions.

SPIE Newsroom
Ultrafast electron diffraction image of CS2 molecule, similar to that of the molecule's ground state.