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Heterogeneous thermocatalytic and electrocatalytic conversion of CO  x  including CO and CO 2 to value-added products, which can be performed through three promising approaches - syngas conversion, CO 2 hydrogenation and CO 2 electroreduction, are highly important to achieving a carbon-neutral cycle associated with the continuing consumption of fossil fuels. Toward the formation of value-added C 2+ products, precise regulation of C-C coupling requires rational design of catalysts in all the three approaches, which usually share similar fundamentals from the viewpoint of surface science. In this article, we outline the recent advances in catalyst design for controlling C-C coupling in syngas conversion, CO 2 hydrogenation and CO 2 electroreduction from the viewpoint of surface science. Specifically, the fundamental insights are provided for each conversion approach, which makes a connection between thermocatalysis and electrocatalysis in terms of catalytic site design. Finally, the challenges and opportunities are discussed in the hope of inspiring new ideas to achieve more efficient C-C coupling in thermocatalytic and electrocatalytic CO  x  conversion.

Regulating C–C coupling in thermocatalytic and electrocatalytic COxconversion based on surface science

Regulating C–C coupling in thermocatalytic and electrocatalytic CO_xconversion based on surface science