The method could lead to the development of new materials with tailored properties, with potential applications in fields such as climate change, quantum computing and drug design.

A study reveals an ultrathin material’s ability to circularly polarize light, potentially informing how they work in optoelectronic devices.

Improvements to the lab’s “electron camera” use AI and “time stamping” to help reveal nature’s speedy processes more accurately. 

The Ultrafast X-ray Summer School, run by the Stanford PULSE Institute and hosted at SLAC, opens the door for students and postdocs to imagine how they could use X-ray free electron lasers in their future careers.

Researchers figured out how to spray and freeze a cell sample in its natural state in milliseconds, helping them capture basic biological processes in unprecedented detail.

Researchers developed new methods that produce intense attosecond pulses and pulse pairs to gain insights into the fastest motions inside atoms and molecules. It could lead to advancements in fields ranging from chemistry to materials science.

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

Scientists report the first look at electrons moving in real-time in liquid water; findings open up a whole new field of experimental physics

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. 

Wan-Lin Hu’s job is to improve the way people and artificial intelligence collaborate to run SLAC’s complex machines.

A new experiment suggests that this exotic precipitation forms at even lower pressures and temperatures than previously thought and could influence the unusual magnetic fields of Neptune and Uranus.

SLAC will partner in two collaborations that aim to speed up progress in fusion energy science and technology.