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Recent advances in catalytic CO₂ reduction demonstrate that copper-based nanostructures significantly enhance selectivity toward C₂+ products such as ethylene (C₂H₄) and ethanol (C₂H₅OH), rather than simple methane (CH₄) formation (Nitopi et al., 2019). This shift in product distribution—driven by tunable surface morphology and local pH gradients—represents a promising pathway for sustainable fuel synthesis. Density functional theory (DFT) calculations further reveal that *OCCO intermediates stabilize preferentially on Cu(100) facets, lowering the energy barrier for C–C coupling (Calle-Vallejo & Koper, 2013). Notably, incorporating trace nitrogen dopants into the catalyst lattice appears to modulate charge distribution, improving Faradaic efficiency by upwards of 15%.

In recent years, catalytic CO₂ reduction has been shown to improve selectivity towards C₂+ products, including ethylene (C₂H₄) and ethanol (C₂H₅OH) compared to simple methane (CH₄) production through the use of Cu based nanostructures (Nitopi et al., 2019). Tunable surface morphology and local pH gradients play a role in this improvement, which suggests that the development of new catalysts for sustainable fuel production may be possible. Density functional theory (DFT) calculations have also revealed that OCCO intermediates tend to be more stable on Cu(100) aspects with a lower barrier for C-C coupling (Calle-Vallejo & Koper, 2013). Doping the catalyst with traces of nitrogen could potentially improve Faradaic efficiency by upwards of 15% by influencing the distribution of charge.