With a new suite of tools, scientists discovered exactly how tiny plate-like catalyst particles carry out a key step in that conversion – the evolution of oxygen in an electrocatalytic cell – in unprecedented detail.

The surprising results offer a way to boost the activity and stability of catalysts for making hydrogen fuel from water.

They discovered the messy environment of a chemical reaction can actually change the shape of a catalytic nanoparticle in a way that makes it more active.

Replacing today’s expensive catalysts could bring down the cost of producing the gas for fuel, fertilizer and clean energy storage.

SLAC/Stanford scientists and their colleagues find a new way to efficiently convert CO2 into the building block for sustainable liquid fuels.

SUNCAT researchers discover a way to improve a key step in these conversions, and explore what it would take to turn the climate-changing gas into valuable products on an industrial scale.

A new way to arrange the hard-working atoms in this part of an exhaust system could lower the cost of curbing pollution from automotive engines.

A serendipitous discovery lets researchers spy on this self-assembly process for the first time with SLAC’s X-ray synchrotron. What they learn will help them fine-tune precision materials for electronics, catalysis and more.

A recent discovery by scientists from the SUNCAT Center for Interface Science and Catalysis could lead to a new, more sustainable way to make ethanol without corn or other crops.

An advance by SLAC and Stanford researchers greatly reduces the time needed to analyze complex catalytic reactions for making fuel, industrial chemicals and other products, and should improve computational analysis throughout chemistry.

Stanford and SLAC researchers are leading a multi-year effort to produce nitrogen-based fertilizers in a sustainable way, by inventing a solar-powered chemistry technology that can make it right on the farm and apply it directly to crops, drip-irrigation style.