Welcome To The
Joint Center For Artificial Photosynthesis
Who We Are
Combining high throughput experimentation with theory enabled discovery of a unique solar fuels photoanode with remarkable stability.
Cliff Kubiak receives an ACS award for his groundbreaking and detailed studies of CO2 reduction by transition-metal catalysis .
Researchers figured out a more efficient way to make carbon-based fuels from CO2 - a step toward making renewable liquid fuel.
By choice of electrolyte anions with a high pKa, product selectivity can be shifted from H2 and CH4 to C2 products.
Direct gas feed configurations, such as flow-through GDEs, enable efficient and stable electrochemical reactions without mass transport limitations.
ACS Editor’s Choice® article describes the describes a new method for rapid construction of phase diagrams by combining AI with combinatorial X-ray data.
In a new study in PNAS, researchers report the mechanics behind an early key step in artificially activating CO2 so that it can become the liquid fuel.
X-ray technique coupled with theory reveal how oxygen atoms near the surface of Cu had a dramatic effect on the reaction than earlier theories could account for.
A look inside the labs at the Joint Center for Artificial Photosynthesis reveals the inventions and processes that yield groundbreaking discoveries in solar fuel. The work was published in PNAS.