The border between condensed-matter physics and plasma physics, illustrated by the phase diagram below, is home to a little-understood state called warm dense matter (WDM), in which thermal and Coulomb energies become comparable. (See the article by Paul Drake, Physics Today, June 2010, page 28.) Such matter is thought to inhabit the inner cores of giant planets and is formed during the compression stage of inertial confinement fusion experiments. To study WDM, researchers want to controllably create the stuff with uniform temperature and density in the lab. But of the usual heating techniques, optical lasers lack sufficient penetration depth, ion beam pulses last too long, and laser-induced shocks are limited to a narrow slice through temperature-density space. Now, Anna Lévy of Marie and Pierre Curie University, Patrick Audebert of École Polytechnique, and their collaborators have shown that x-ray free-electron lasers (XFELs) are just the tool for the job....
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1 May 2015
May 01 2015
Extreme heating with an x-ray free-electron laser Available to Purchase
Sung Chang
Physics Today 68 (5), 18 (2015);
Citation
Sung Chang; Extreme heating with an x-ray free-electron laser. Physics Today 1 May 2015; 68 (5): 18. https://doi.org/10.1063/PT.3.2768
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