Using a new technology for ultrafast science, researchers have for the first time observed extremely rapid atomic motions in a three-atom-thick layer of a promising material that could be used in next-generation solar cells, electronics and catalysts.
Researchers at SLAC have for the first time seen a spin current – an inherent magnetic property common to all electrons – as it travels across materials.
A SLAC/Stanford manufacturing technique could help make inexpensive polymer-based solar cells an attractive alternative to silicon-crystal wafers.
A new technology at SLAC uses high-energy electrons to unravel motions faster than a tenth of a trillionth of a second in materials, opening up new research opportunities in ultrafast science.
Researchers have used an X-ray laser to record, in detail never possible before, the microscopic motion and effects of shock waves rippling across diamond.
SIMES scientists have developed a cheap and efficient way to extract clean-burning hydrogen fuel from water 24 hours a day, seven days a week.
Researchers discovered that adding two chemicals to the electrolyte of a lithium metal battery prevents the formation of dendrites – “fingers” of lithium that pierce the barrier between the battery’s halves, causing it to short out, overheat and sometimes burst into flame.
X-ray studies at SLAC have observed an exotic property that could improve performance in ever-smaller computer components.
SLAC and the SUNCAT Center for Interface Science and Catalysis supported creation of a new carbon material that significantly improves the performance of batteries and supercapacitors.
Results from SIMES theorists pave the way for experiments that create and control new forms of matter with light.