An X-ray imaging technique revealed that copper nanofoams used in inertial fusion experiments aren't as uniform as expected.

LaserNetUS funding will allow scientists to explore fundamental plasma science and inertial fusion energy research and technology.

The results offer important implications for astrophysics and nuclear fusion research.

High-power lasers will work in concert with the lab’s X-ray laser to dramatically improve our understanding of matter in extreme conditions.

It could offer insights into the evolution of planetary systems and guide scientists hoping to harness nuclear fusion as a new source of energy.

In a first, researchers measure extremely small and fast changes that occur in plasma when it’s zapped with a laser. Their technique will have applications in astrophysics, medicine and fusion energy.

Tripling the energy and refining the shape of optical laser pulses at LCLS’s Matter in Extreme Conditions instrument allows researchers to recreate higher-pressure conditions and explore unsolved questions relevant to fusion energy, plasma physics and materials science.

The 2010 experiment marked a significant step forward in understanding extreme states of matter at the hearts of stars, planets and nuclear fusion reactions.

Presented by Siegfried Glenzer. Normally we think of hydrogen as a gas.  But elsewhere in the universe, hydrogen under extreme pressure can exist in more exotic states.  In the center of Jupiter, hydrogen becomes liquid or even solid.  In the...