Aug 2026· Carbon Energy· 0 citations· 210 references
Abstract
Cu‐based electrocatalysts are the most efficient viable catalysts for converting CO
2
into multi‐carbon products. However, Cu‐based catalysts still suffer from high overpotential, low selectivity for single C
2
and C
2+
products, and insufficient stability. In recent years, researchers have regarded the engineering design of the catalytic‐reaction interface as an effective strategy for improving electrocatalysis performance. In this review, we focus on Cu‐based electrocatalysts with polymer‐mediated interfacial engineering for enhanced activity, selectivity, and stability of the CO
2
electroreduction reaction (CO
2
RR). The corresponding design strategies can be categorized into five aspects: (1) surface electronic structure modulation of Cu, (2) CO
2
adsorption and activation, (3) reaction microenvironment regulation, (4) molecular protective layer construction, and (5) key intermediates' stabilization. To motivate further advances in this field and address the associated scientific and technological challenges, we also propose future development directions by integrating the unique characteristics of polymers within CO
2
RR systems. This review will inspire interfacial design strategies via polymer modification of Cu‐based catalysts and accelerate its applications in other electrocatalytic systems.
High‐temperature CO
2
electrolysis is a promising route for sustainable fuel production and carbon utilization, yet its efficiency is limited by the scarcity of highly active electrode materials. This study demonstrates heterointerface engineering as a key strategy to dramatically enhance the performance of the c...
The development of efficient, stable, and low-cost electrocatalysts for oxygen evolution reaction (OER) is essential for advancing alkaline water electrolysis and rechargeable metal air batteries. Metal–organic frameworks (MOFs), owing to their modular design and structural versatility, offer a unique platform for engi...
To realize efficient CO
2
electroreduction, it is important to regulate “beyond catalyst” factors, including the diffusional contribution, which reflects local partial pressures of the CO
2
reactant and the key intermediate, CO, at the three‐dimensional porous electrode under industrially relevant conditions (e.g...
Copper‐based catalysts are promising for electrochemical CO
2
reduction toward value‐added chemicals, yet their performance is largely limited by the lack of precise control over catalytic interfaces and reaction intermediates. Here, we demonstrate carbon‐support dimensionality as a key structural descriptor for...
Electrocatalytic carbon dioxide reduction reaction to high-value multicarbon products represents a highly promising strategy for achieving carbon neutrality goals. Among various electrocatalysts, copper-based materials occupy a central position due to their unique capability for *CO adsorption and dimerization; howev...
Shi-Yan Wang, Liu Chen, Wei-Yao Hao et al.· Chemistry of Materials· 0 citations
The development of active and stable CO oxidation catalysts is critical for PEMFCs, as they purify hydrogen fuel and mitigate cathode poisoning, determining cell efficiency and operational lifetime. In this work, we present a rational design strategy for such catalysts via first-principles calculations. We constructed...
Ruo-Bing Han, Chen-Rui Zhang, Tian-Zhen Yang et al.· Physical Chemistry, Chemical...· 0 citations
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