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LCLS X-rays allowed researchers to connect the molecular dynamics of supercritical carbon dioxide, used in industrial and environmental applications, with its unique properties.

The microelectronics that power daily life and speed discoveries in science and technology are the focus of a bold new vision to make them more energy efficient and able to operate in extreme environments.

SLAC researchers help develop an automated analytical method to speed the discovery process in single atom catalysts.  

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

The first measurement of its kind   will enable researchers to evaluate electron dynamics in a new range of super-small particles. 

Supported by SLAC’s catalysis group, researchers have discovered a promising method to remove contaminants during the making of polymers.

He met with SLAC staff and toured the lab’s cutting-edge facilities, diving into world-leading research in X-ray and ultrafast science, artificial intelligence, astrophysics and more.

SLAC researchers drew on advanced computation and X-ray methods to track down a water-splitting copper catalyst.

Shweta Saraf and her team work to ensure the LCLS beamline runs without interruption. 

Now 10,000 times brighter and thousands of times faster, LCLS sheds light on the formation of free radicals in nature. 

Researchers used the upgraded LCLS to better understand what makes Xanthone – a powerful photocatalyst used in cancer therapies –  so efficient.  

Results obtained with SLAC’s X-ray laser show how tiny magnetic coils can align over a surprisingly broad timescale, inspiring new ideas for microelectronics.