Chemistry & Catalysis
More than a dozen energy-storage companies have streamlined access to research facilities and expertise at SLAC under a new cooperative R&D agreement with CalCharge.
In this lecture, SLAC’s Ryan Coffee explains how researchers are beginning to use pattern recognition and machine learning to study chemical reactions at the level of atoms and molecules with the LCLS X-ray laser.
The SLAC and Stanford professor and SUNCAT director is being honored for groundbreaking work in catalysis, which promotes chemical reactions in thousands of industrial processes.
Experiments at SLAC National Accelerator Laboratory solve a long-standing mystery in the role calcium atoms serve in a chemical reaction that releases oxygen into the air we breathe.
A comprehensive look at how tiny particles in a lithium ion battery electrode behave shows that rapid-charging the battery and using it to do high-power, rapidly draining work may not be as damaging as researchers had thought – and that the benefits of slow draining and charging may have been overestimated.
By observing how hydrogen is absorbed into individual palladium nanocubes, Stanford materials scientists have detailed a key step in storing energy and information in nanomaterials.
A postdoctoral researcher, whose work at SLAC's synchrotron was key in adapting an X-ray technique to probe chemical bonds in new ways, will receive an annual scientific award.
An experiment revealed a well-organized 3-D grid of quantum "tornadoes" inside microscopic droplets of supercooled liquid helium – the first time this formation has been seen at such a tiny scale.
SLAC researchers have developed a laser-timing system that could lead to X-ray snapshots fast enough to reveal the triggers of chemical and material reactions.
Researchers have taken a big step toward accomplishing what battery designers have been trying to do for decades – design a pure lithium anode.