阳极氧化电压和烟草提取物添加量对多孔阳极氧化铝(PAAO)层结构的影响

Akhmad Zein Eko Mustofa, D. R. Adhika, A. Ramelan, Susana Susana
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摘要

多孔阳极氧化铝(PAAO)是阳极氧化产生的多孔氧化层。PAAO 的结构受阳极氧化参数(即电压和电解液成分)的影响。提高阳极氧化电压会影响阳极氧化过程中孔隙的形成和氧化物的生长。添加乙醇、丙醇和聚乙二醇(PEG)等添加剂可增加孔的规则性并影响 PAAO 的结构。在本研究中,草酸阳极氧化溶液中添加了烟草提取物(TE)。烟草提取物中含有多种活性化合物,可能会影响孔隙的形成和氧化物的生长。形态学分析表明,当添加浓度为 0、0.1 和 0.5 g/L 的烟草提取物时,在阳极氧化电压为 40 V 时,孔径分别为 43.92、41.42 和 37.8 nm,而添加浓度为 0、0.1 和 0.5 g/L 的烟草提取物时,在阳极氧化电压为 60 V 时,孔径分别为 46.47、34.24 和 26.8 nm。随着阳极氧化电压和烟草提取物浓度的增加,PAAO 的厚度从 6.45 µm 增加到 16.87 µm。烟草提取物浓度的增加会导致 XRD 峰强度的下降,其中(111)、(220)、(200)和(311)峰强度的下降顺序最为明显。(111)和(220) AAO 峰强度比的下降表明烟草提取物对阳极氧化过程有影响。热重分析(TG)的进一步热分析表明,随着烟草提取物浓度从 0 克/升增加到 0.5 克/升,质量损失从 1.47% 增加到 5.37%。热重分析结果表明,烟草提取物融入了孔隙内壁。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effect of Anodizing Voltage and Tobacco Extract Addition on the Structure of Porous Anodic Aluminum Oxide (PAAO) Layer
Porous Anodic Aluminum oxide (PAAO) is a porous oxide layer resulting from anodization. The structure of PAAO is influenced by anodization parameters, i.e., voltage and electrolyte composition. Increasing anodization voltage can affect the process of pore formation and oxide growth during anodization. Adding additives such as ethanol, propanol, and polyethylene glycol (PEG) can increase pore regularity and affect the structure of PAAO. In this study, tobacco extract (TE) was added to the oxalic acid-based anodizing solution. TE has many active compounds that may affect pore formation and oxide growth. Morphological analysis shows decreased pore diameter when adding tobacco extracts with concentrations of 0, 0.1, and 0.5 g/L, namely 43.92, 41.42, and 37.8 nm at anodization voltage 40 V. In anodization with a voltage of 60 V, a decrease in pore diameter was obtained with 46.47, 34.24, and 26.8 nm for adding tobacco extract 0, 0.1, and 0.5 g/L. The thickness of PAAO increases from 6.45 µm to 16.87 µm with increasing anodization voltage and tobacco extract concentration. The increase of tobacco extract concentration can lead to the decrease of the XRD peak intensity, where the sequence of the most significant decrease was observed for the peaks of (111), (220), (200), and (311), respectively. A decrease in the intensity ratio of (111) and (220) AAO peaks indicates the influence of tobacco extract on the anodization process. Further thermal analysis by Thermo-gravimetric (TG) shows an increase in mass loss from 1.47 to 5.37% with increasing tobacco extract concentration from 0 g/L to 0.5 g/L. TG results indicate the incorporation of tobacco extract in the inner pore wall.
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