In the decade since LCLS produced its first light, it has pushed boundaries in countless areas of discovery.
Revealed for the first time by a new X-ray laser technique, their surprisingly unruly response has profound implications for designing and controlling materials.
Two studies led by SLAC and Stanford capture electron “sound waves” and identify a positive feedback loop that may boost superconducting temperatures .
Former Stanford and UC-Berkeley physicist is honored for foundational research that peers into unconventional phenomena within exotic materials.
A team including SLAC researchers has measured the intricate interactions between atomic nuclei and electrons that are key to understanding intriguing materials properties, such as high-temperature superconductivity.
Understanding strontium titanate’s odd behavior will aid efforts to develop materials that conduct electricity with 100 percent efficiency at higher temperatures.
These stripes of electron spin and charge are exciting because of their possible link to a phenomenon that could transform society by making electrical transmission nearly 100 percent efficient.
Extraordinarily precise measurements -- within millionths of a billionth of a second and a billionth of a hair's breadth -- show this ‘electron-phonon coupling’ can be far stronger than predicted, and could potentially play a role in unconventional superconductivity.
Propagating “charge density wave” fluctuations are seen in superconducting copper oxides for the first time.
The award honors his work on a world-class experimental station at SLAC's Stanford Synchrotron Radiation Lightsource.