High Energy Density Science Division (HEDS)

The team developed a platform that uses powerful X-rays from the lab’s LCLS X-ray laser to resolve for the first time the evolution of instabilities in high-density plasmas. 

With a new method that could be extended to study Earth’s core and nuclear fusion, they identify and explain jumps in the electrical conductivity of aluminum under extreme conditions. 

The team unexpectedly formed gold hydride in an experiment that could pave the way for studying materials under extreme conditions like those found inside certain planets and stars undergoing nuclear fusion.

As a member of a collaborative team led by General Atomics, SLAC will help bridge basic research programs with the growing fusion industry. 

Scientists studying laser-plasma proton acceleration made an unexpected breakthrough, simultaneously resolving multiple long-standing problems although they had only aimed to address one. 

Harnessing nuclear fusion would bring the clean, unlimited energy of the stars to Earth.

This research advances our understanding of Earth's deep interior and exoplanets, opening new research avenues in Earth and planetary sciences.

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

Double your pressure, double your fun! Join us for SLAC on Tap on May 9, when SLAC scientist and rock star Arianna Gleason will share the amazing secrets scientists are trying to squeeze from the depths of Earth and other...

Researchers have uncovered new insights about tungsten's ability to conduct heat, which could lead to materials advancements for fusion reactor and aerospace technologies.

Following the NIF ignition demonstrations, the prospect of developing a fusion energy source using lasers looks brighter than ever. 

The research could lead to a better understanding of how metals behave under extreme conditions, which will aid in the development of more resilient materials.