Stanford Institute for Materials & Energy Sciences (SIMES)
Researchers used a unique approach to learn more about what happens to silicon under intense pressure.
X-ray laser snapshots give scientists a new tool for probing trillionths-of-a-second atomic motions in 2-D materials
Watching electrons sprint between atomically thin layers of material will shed light on the fundamental workings of semiconductors, solar cells and other key technologies.
New research offers the first complete picture of why a promising approach of stuffing more lithium into battery cathodes leads to their failure. A better understanding of this phenomenon could be the key to smaller phone batteries and electric cars that drive farther between charges.
Ultrafast manipulation of material properties with light could stimulate the development of novel electronics, including quantum computers.
The SIMES researcher was a rare theorist who concerned himself with the implications of his abstract ideas about new quantum states of matter on experiments and future technologies.
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 .
Experiments at SLAC and Berkeley Lab uproot long-held assumptions and will inform future battery design.
A SLAC-Stanford study reveals exactly what it takes for diamond to crystallize around a “seed” cluster of atoms. The results apply to industrial processes and to what happens in clouds overhead.