Stanford Institute for Materials & Energy Sciences (SIMES)
Wrapping silicon anode particles in custom-fit graphene cages could solve two major obstacles to using silicon in high-capacity lithium ion batteries.
SLAC and Stanford scientists discovered that a single layer of tiny diamonds increases an electron gun’s emission 13,000 fold. Potential applications include electron microscopes and semiconductor manufacturing.
The Precourt Institute for Energy and the TomKat Center for Sustainable Energy at Stanford have awarded 12 faculty seed grants totaling $2.1 million for groundbreaking research on clean energy, including three grants to SLAC-Stanford collaborations.
SIMES scientists have discovered how to make the electrical wiring on top of solar cells nearly invisible to incoming light. The new design, which uses silicon nanopillars to hide the wires, could dramatically boost solar-cell efficiency.
SLAC, Stanford scientists discover that bombarding and stretching a catalyst opens holes on its surface and makes it much more reactive. Potential applications include making hydrogen fuel.
A team led by SLAC scientists combined powerful magnetic pulses with some of the brightest X-rays on the planet to discover a surprising 3-D effect that appears linked to a mysterious phenomenon known as high-temperature superconductivity.
A process developed by Stanford and SLAC scientists has potential for scaling up to manufacture clear, flexible electrodes for solar cells, displays and other electronics.
A Stanford/SLAC study of an exotic material known as a magnetic insulator found the walls between its magnetic regions are conductive, opening new approaches to memory storage.
The former Stanford graduate student, who did extensive research at SLAC, is being honored as an exceptional role model for women in science.
SIMES research, which confounds two decades of assumptions on lithium-ion battery design, could lead to better batteries with more power and greater capacity.