Chemistry & Catalysis
SUNCAT and SIMES researchers have received funding from Stanford's Global Climate and Energy Project to support research related to generating renewable fuels.
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.
In separate studies, researchers at Stanford and the University of Wisconsin-Madison report advances on chemical reactions essential to fuel-cell technology.
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.
Scientists for the first time tracked ultrafast structural changes, captured in quadrillionths-of-a-second steps, as ring-shaped gas molecules burst open and unraveled.
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.
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.
An experiment at SLAC’s X-ray laser provides new insight into the ultrafast motions of a muscle protein in a basic biochemical reaction.
Scientists at SLAC and Utrecht University have identified how catalysts degrade when used to refine crude oil.
Researchers use X-ray laser at SLAC to track light-triggered chemical reactions in a molecule that serves as a simple model for the conversion of solar energy into fuel.