Anioł Wojciech Jan, Dobroń Piotr, Tomczyk Katarzyna, Stępniowski Wojciech J
Institute of Materials Science & Engineering, Military University of Technology, Kaliskiego 2 Str., 00908 Warsaw, Poland.
Materials (Basel). 2025 Apr 10;18(8):1728. doi: 10.3390/ma18081728.
Brasses are well-known structural materials, and their electrochemistry seems to be known. However, the formation of nanostructured anodic oxides on brasses is still not common and researched enough. Despite the electrochemical oxidation or anodization of copper and zinc being well-recognized and known in the scientific community, there is a lack of a satisfactory amount of research on brass anodizing. Both copper and zinc can passivate in neutral and alkaline electrolytes, and also the mechanism of the nanostructured oxide growth of both seems to be similar. In this review, much effort was put in to gather the information on the protocols on the electrochemical oxidations of brasses and their applications. Usually, the effects of electrochemical oxidation allow us to obtain nanostructured surfaces made of mixed Cu and Zn species. The formation of such composite nanostructures allows us to apply them in such emerging applications as photocatalytic organic pollutant decomposition, photoelectrochemical hydrogen generation, electrochemical carbon dioxide reduction reactions, or electrochemical methanol oxidation.
黄铜是众所周知的结构材料,其电化学性质似乎也为人所知。然而,在黄铜上形成纳米结构的阳极氧化物仍然并不常见,且研究不足。尽管铜和锌的电化学氧化或阳极氧化在科学界已得到充分认可和了解,但关于黄铜阳极氧化的研究仍不够充分。铜和锌在中性和碱性电解质中都能发生钝化,而且两者纳米结构氧化物的生长机制似乎相似。在这篇综述中,我们付出了很多努力来收集有关黄铜电化学氧化的实验方案及其应用的信息。通常,电化学氧化的效果使我们能够获得由铜和锌混合物种构成的纳米结构表面。这种复合纳米结构的形成使我们能够将它们应用于光催化有机污染物分解、光电化学制氢、电化学二氧化碳还原反应或电化学甲醇氧化等新兴应用中。