Image credit: APS/Alan Stonebraker
Several developments in our lab have demonstrated progress towards direct laser acceleration of electrons in a corrguated plasma channel, which provides advantages over conventional laser wakefield accelerators.
Our lab routinely measures nonlinear optical processes that last just a few femtoseconds, using chirped supercontinuum pulses to find the transient phase information left in the wake of strong pump pulses
MURI (Multidisciplinary University Research Initiative) award
Welcome to the University of Maryland's Intense Laser Matter Interactions group webpage.
The interaction of extremely intense laser pulses with solids, liquids and gases has many technological applications and is rich in physics. Our experiments involve elements of atomic physics, nonlinear optics, plasma physics, condensed matter physics and quantum electronics.
Much of the physics interest stems from the fact that at high laser intensities, the optical properties of materials behave in altogether new ways. For example, at laser intensities above about 1018 W/cm2 (routine for our lab), one must consider relativistic corrections to the index of refraction! Intense lasers can also locally heat up matter to about 100 times the temperature of the sun, forming a strong plasma x-ray source. These effects, in turn, are essential to exotic light sources or laser-driven particle acceleration schemes that aim to shrink existing multi-kilometer long particle accelerators to the size of a table top.
We are always looking for new ideas and student researchers, so those interested in working with us should contact us here.
Laboratory for Intense Laser Matter Interactions
Institute for Research in Electronics and Applied Physics
Energy Research Facility, Bldg. #223
University of Maryland
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