A new study published in the journal Nature Energy by the Interface Science Department and the Institute of Chemical Research sheds light on the process of converting carbon dioxide (CO2) into valuable chemicals like ethylene and ethanol. This research utilizes advanced spectroscopic methods and theory to understand how renewable electricity can be used to create high-value chemicals, closing the carbon cycle and promoting sustainability in the chemical industry.

The study focuses on the electrochemical reduction of CO2, a technology that has the potential to produce environmentally-friendly plastics and fuels. By investigating the molecular species on copper electrocatalysts, researchers were able to uncover the specific intermediates and active sites involved in the production of ethylene and ethanol. Surface morphology was found to play a crucial role in the effectiveness of the catalytic surface, leading to better performance in producing these valuable chemicals.

The findings of this study have significant implications for the chemical industry, offering insights into how to design more efficient and sustainable catalysts for CO2 conversion. By understanding the specific conditions and intermediates required for selective production, researchers can develop processes that reduce the Carbon Footprint of chemical manufacturing. This collaborative research effort represents a significant advancement in the field of CO2 reduction, providing a foundation for developing more sustainable chemical production methods.



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