Engineering Electrochemical Surface for Efficient Carbon Dioxide Upgrade. Issue 3 (10th December 2021)

• Record Type: Journal Article
• Authors: Wen, Guobin; Ren, Bohua; Zheng, Yun; Li, Matthew; Silva, Catherine; Song, Shuqin; Zhang, Zhen; Dou, Haozhen; Zhao, Lei; Luo, Dan; Yu, Aiping; Chen, Zhongwei
• Is Part Of: Advanced energy materials. Volume 12:Issue 3(2022)
• Page Start: n/a
• Page End: n/a
• Publication Date: 2021-12-10
• Subjects: CO 2 reduction -- composite electrodes -- electrocatalytic surface engineering -- in situ characterization -- theoretical approaches; Energy harvesting -- Materials -- Periodicals; Energy conversion -- Materials -- Periodicals; Energy storage -- Materials -- Periodicals; Photovoltaics -- Periodicals; Fuel cells -- Periodicals; Thermoelectric materials -- Periodicals; 621.31
• DOI: 10.1002/aenm.202103289
• Languages: English
• ISSNs: 1614-6832

Abstract

Abstract: Electrochemical CO2 conversion offers an attractive route for recycling CO2 with economic and environmental benefits, while the catalytic materials and electrode structures still require further improvements for scale‐up application. Electrocatalytic surface and near‐surface engineering (ESE) has great potential to advance CO2 reduction reactions (CO2 RR) with improved activity, selectivity, energetic efficiency, stability, and reduced overpotentials. This review initially provides a panorama of ESE effects to give a clear perspective and leverage their advantages, including surface electronic effects, ensemble effects, strain effects, and local environment effects. Additionally, relevant in situ spectroscopic characterization techniques to detect, and theoretical computational approaches to reveal these ESE effects are presented. Typical ESE strategies are also summarized, e.g., in situ surface reconstruction, surface morphology control, surface modifications, etc. Rational manipulations of specific ESE approaches or combinations of them are critical to designing composite catalysts and electrodes, consequently promoting sustainable development and steadily increasing the prosperity of this field. Abstract : Electrocatalytic surface and near‐surface engineering play vital roles in promoting activity, selectivity, energy efficiency, and stability for the electrochemical CO2 reduction reaction. To accelerate the research and development in this field and provide clear routes for the rational design of catalytic materials and electrodes, state‐of‐the‐art engineering approaches and effects accompanied by relevant characterizations and simulations are surveyed.