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Anodizing of iron-based alloys: Fundamentals, recent progress, and applications.
Reports on Progress in Physics ( IF 19.0 ) Pub Date : 2024-11-21 , DOI: 10.1088/1361-6633/ad959b Rubén Del Olmo,Olena Tynkevych,Magdalena Łazińska,Karolina Syrek,Tomasz Durejko,Mateusz Czerwiński,Leszek Zaraska,Ratnesh Tiwari,Marta Ewa Michalska-Domańska
Reports on Progress in Physics ( IF 19.0 ) Pub Date : 2024-11-21 , DOI: 10.1088/1361-6633/ad959b Rubén Del Olmo,Olena Tynkevych,Magdalena Łazińska,Karolina Syrek,Tomasz Durejko,Mateusz Czerwiński,Leszek Zaraska,Ratnesh Tiwari,Marta Ewa Michalska-Domańska
This review aims to comprehensively and systematically analyze the processes of anodic oxidation that can be employed for the synthesis of nanostructured oxide films on the surface of the most technologically relevant Fe-based alloys and steels. A special emphasis is put on detailed analysis of the mechanisms of the anodic formation of Fe-based nanostructured materials. The effect of anodizing parameters including the type of Fe-alloy, electrolyte composition, potential/current regimes, as well as various post-treatment procedures (including annealing treatment) on the growth, morphology, composition, and properties of the resulting oxide films is discussed in detail. Examples of possible applications of the anodic films grown on Fe-alloys in various fields including photocatalysis, energy storage, sensors, biomedicine, and others are also provided. Finally, current trends, challenges, and perspectives in the anodizing of Fe-alloys are discussed.
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中文翻译:
铁基合金的阳极氧化:基本原理、最新进展和应用。
本文旨在全面、系统地分析可用于在技术上最相关的铁基合金和钢表面合成纳米结构氧化物薄膜的阳极氧化过程。特别强调对 Fe 基纳米结构材料阳极形成机制的详细分析。详细讨论了阳极氧化参数的影响,包括 Fe 合金的类型、电解质组成、电位/电流状态以及各种后处理程序(包括退火处理)对所得氧化膜的生长、形态、成分和性能的影响。还提供了在 Fe 合金上生长的阳极薄膜在各个领域的可能应用示例,包括光催化、储能、传感器、生物医学等。最后,讨论了铁合金阳极氧化的当前趋势、挑战和前景。.
更新日期:2024-11-21
中文翻译:
铁基合金的阳极氧化:基本原理、最新进展和应用。
本文旨在全面、系统地分析可用于在技术上最相关的铁基合金和钢表面合成纳米结构氧化物薄膜的阳极氧化过程。特别强调对 Fe 基纳米结构材料阳极形成机制的详细分析。详细讨论了阳极氧化参数的影响,包括 Fe 合金的类型、电解质组成、电位/电流状态以及各种后处理程序(包括退火处理)对所得氧化膜的生长、形态、成分和性能的影响。还提供了在 Fe 合金上生长的阳极薄膜在各个领域的可能应用示例,包括光催化、储能、传感器、生物医学等。最后,讨论了铁合金阳极氧化的当前趋势、挑战和前景。.