fig5

Hydrophobic modification regulates the water microenvironment at the interface of Cu-based materials to promote E-CO<sub>2</sub>RR

Figure 5. Electrochemical performance of Cu2O (100) and HY-Cu2O (100) in 1 M KOH. CV curves of (A and C) Cu2O (100) and (B and D) HY-Cu2O (100) in Ar and CO2 atmospheres; Electrocatalytic CO2 reduction performance of Cu2O (100) and HY-Cu2O (100) in 1 M KOH; (E) Faradaic efficiency (FE) of C2H4 for Cu2O (100) and HY-Cu2O (100); (F) FE of H2 for Cu2O (100) and HY-Cu2O (100); (G and H) FE distributions for all gaseous products of Cu2O (100) and HY-Cu2O (100); (I) C2H4 current density for Cu2O (100) and HY-Cu2O (100); (J) H2 current density for Cu2O (100) and HY-Cu2O (100); (K) C2H4 yield for Cu2O (100) and HY-Cu2O (100); (L) H2 yield for Cu2O (100) and HY-Cu2O (100). [For all electrochemical performance curves, the error bars represent the standard deviation from at least three independent tests (n = 3)]. RHE: Reversible hydrogen electrode; CV: cyclic voltammetry.

Energy Materials
ISSN 2770-5900 (Online)
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