The electrocatalytic reduction of COx (including CO2 and CO) into value‐added fuels and
chemicals, particularly multi‐carbon (C2+) alcohols, presents a significant opportunity to …

Achieving high activity and selectivity of multicarbon products in the CO2 reduction reaction
(CO2RR) on Cu-based electrocatalysts remains challenging due to the limited concentration …

Electrochemical energy conversion devices are considered key in reducing CO2 emissions
and significant efforts are being applied to accelerate device development. Unlike other …

The economic viability of carbon dioxide electroreduction (CO2R) relies on improved
performance accompanied by scalable system design. Membranes are commonly used for …

Tailoring catalyst performance is especially crucial in a zero-gap membrane-electrode
assembly (MEA) electrolyzers for electrochemical CO2 reduction reaction at the industrial …

The large‐scale deployment of CO2 electroreduction is hampered by deficient carbon
utilization in neutral and alkaline electrolytes due to CO2 loss into (bi) carbonates. Switching …

Membrane electrode assembly (MEA) cells incorporating Cu catalysts are effective for
generating C2+ chemicals via the CO2 reduction reaction (CO2RR). However, the impact of …

Electrocatalytic carbon dioxide (CO 2) reduction (eCO 2 R) to value-added fuels or
chemicals, especially multicarbon (C 2+) oxygenate and hydrocarbon feedstocks, is a viable …

Copper-based nanomaterials are attractive in CO 2 electroreduction into valuable chemicals
but still suffer from limited selectivity of C 2+ products due to the parasitic hydrogen evolution …

The introduction of a porous structure is a promising approach to promote the
electrochemical reaction of catalysts, which can maximize the utilization of catalytic active …