• Editorial Team

Artificial photosynthesis transforms carbon dioxide into liquefiable fuels

Updated: Jun 16, 2019

Press Release - University of Illinois

Chemistry professor Prashant Jain, left, and postdoctoral researcher Sungju Yu have developed an artificial photosynthesis process that converts excess CO2 into valuable fuels, bringing green technology one step closer to large-scale solar energy storage.

Chemists at the University of Illinois have successfully produced fuels using water, carbon dioxide and visible light through artificial photosynthesis. By converting carbon dioxide into more complex molecules like propane, green energy technology is now one step closer to using excess CO2 to store solar energy -- in the form of chemical bonds -- for use when the sun is not shining and in times of peak demand.

“As exciting as the development of this CO2-to-liquid fuel may be for green energy technology, the researchers acknowledge that Jain’s artificial photosynthesis process is nowhere near as efficient as it is in plants.”

"Plants use sunlight to drive chemical reactions between water and CO2 to create and store solar energy in the form of energy-dense glucose. In the new study, the researchers developed an artificial process that uses the same green light portion of the visible light spectrum used by plants during natural photosynthesis to convert CO2 and water into fuel, in conjunction with electron-rich gold nanoparticles that serve as a catalyst. The new findings are published in the journal Nature Communications."




"The goal here is to produce complex, liquefiable hydrocarbons from excess CO2 and other sustainable resources such as sunlight," said Prashant Jain, a chemistry professor and co-author of the study. "Liquid fuels are ideal because they are easier, safer and more economical to transport than gas and, because they are made from long-chain molecules, contain more bonds -- meaning they pack energy more densely."


“We need to learn how to tune the catalyst to increase the efficiency of the chemical reactions,” he said. “Then we can start the hard work of determining how to go about scaling up the process. And, like any unconventional energy technology, there will be many economic feasibility questions to be answered, as well.”


The Energy and Biosciences Institute, through the EBI-Shell program, supported this research.

5 views

Subscribe to Our Newsletter

  • White Facebook Icon

© 2026 EMI Design Team