“…The electrochemical reduction of CO 2 to CO requires the transfer of two electrons, typically mediated to the substrate via a catalytic system. 8–10 When electrons are transferred sequentially to a single site, their associated reduction potentials can be separated by hundreds of millivolts as the required driving force increases with each added charge. Biological systems address these energetic challenges with redox cofactors that mediate electron transfer to active sites, in order to perform multielectron catalysis with high efficiency and selectivity.…”
We report a co-electrocatalytic system for the selective reduction of CO2 to CO, comprised of a previously reported molecular Cr complex and 5-phenylbenzo[b]phosphindole-5-oxide (PhBPO) as a redox mediator. Under protic...
“…The electrochemical reduction of CO 2 to CO requires the transfer of two electrons, typically mediated to the substrate via a catalytic system. 8–10 When electrons are transferred sequentially to a single site, their associated reduction potentials can be separated by hundreds of millivolts as the required driving force increases with each added charge. Biological systems address these energetic challenges with redox cofactors that mediate electron transfer to active sites, in order to perform multielectron catalysis with high efficiency and selectivity.…”
We report a co-electrocatalytic system for the selective reduction of CO2 to CO, comprised of a previously reported molecular Cr complex and 5-phenylbenzo[b]phosphindole-5-oxide (PhBPO) as a redox mediator. Under protic...
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