SajTom Light Future, Wężerów 37/1, 32-090 Wężerów, Poland.
Department of Chemistry and Chemical Engineering, Chalmers University of Technology, Kemivägen 10, 41296 Gothenburg, Sweden.
Molecules. 2021 Nov 30;26(23):7271. doi: 10.3390/molecules26237271.
This work aims at reviewing the most impactful results obtained on the development of Cu-based photocathodes. The need of a sustainable exploitation of renewable energy sources and the parallel request of reducing pollutant emissions in airborne streams and in waters call for new technologies based on the use of efficient, abundant, low-toxicity and low-cost materials. Photoelectrochemical devices that adopts abundant element-based photoelectrodes might respond to these requests being an enabling technology for the direct use of sunlight to the production of energy fuels form water electrolysis (H) and CO reduction (to alcohols, light hydrocarbons), as well as for the degradation of pollutants. This review analyses the physical chemical properties of CuO (and CuO) and the possible strategies to tune them (doping, lattice strain). Combining Cu with other elements in multinary oxides or in composite photoelectrodes is also discussed in detail. Finally, a short overview on the possible applications of these materials is presented.
这项工作旨在综述在开发基于铜的光阳极方面所取得的最具影响力的成果。可持续利用可再生能源的需求以及减少空气中污染物排放和水中污染物排放的要求,都需要基于使用高效、丰富、低毒和低成本材料的新技术。采用丰富元素基光电阴极的光电化学装置可能会满足这些要求,因为它是一种使能技术,可以直接利用阳光将水分解(H)和 CO 还原(至醇、轻烃)为能源燃料,以及降解污染物。本文分析了 CuO(和 CuO)的物理化学性质以及可能的调控策略(掺杂、晶格应变)。还详细讨论了将铜与多元氧化物或复合光阳极中的其他元素结合的方法。最后,对这些材料的可能应用进行了简要概述。