Less than a millionth of a billionth of a second long, attosecond X-ray pulses allow researchers to peer deep inside molecules and follow electrons as they zip around and ultimately initiate chemical reactions.

High-speed X-ray free-electron lasers have unlocked the crystal structures of small molecules relevant to chemistry and materials science, proving a new method that could advance semiconductor and solar cell development.

New research questions ‘whiff of oxygen’ in Earth’s early history.

Recently developed methods now in use at SLAC’s X-ray synchrotron helped a team of chemists better understand how certain bacteria turn light into chemical energy.

Through her work with this nationwide program, Curry plans to make high-power laser facilities more accessible to researchers.

A better understanding of this process could inform the next generation of artificial photosynthetic systems that produce clean and renewable energy.

The results could lead to a better understanding of reactions with vital roles in chemistry and biology.

Scientists who perform experiments at SLAC’s lightsources gathered online for research talks, workshops and discussions.

High-power lasers will work in concert with the lab’s X-ray laser to dramatically improve our understanding of matter in extreme conditions.

This is the first direct observation of a hydroxyl-hydronium complex – important for a wide range of chemical and biological processes from the tails of comets to cancer treatment.

The award recognizes her research and service at the Stanford Synchrotron Radiation Lightsource.

Much like crystallizing rock candy from sugar syrup, the new method grows 2D perovskites precisely layered with other 2D materials to produce crystals with a wide range of electronic properties.