Electrochemical Reactor with an Ultrasonic Piezoelectric Ceramic Transducer for Manufacturing Nanoporous Aluminum Oxide Membrane

Urtė Ciganė, A. Palevičius
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Abstract

This article is intended for the research and development of innovative functional nanoporous membranes manufacturing technology. Innovative anodic aluminum oxide (AAO) nanoporous membranes would be characterized by having different controlled nanopores areas. To achieve this objective, an electrochemical reactor stand suitable for the synthesis of new nanoporous membranes was developed. To obtain pore areas of different sizes, high-frequency excitation techniques will be used during the electrochemical etching process. Before starting the production of innovative AAO membranes, it is important to perform vibration analysis and verify that the developed electrochemical reactor can use a high-frequency excitation technique to control the distribution of nanopores during the electrochemical etching process. Firstly, vibration simulations were performed by using COMSOL Multiphysics 5.4 software. Using theoretical calculations, it is possible to discover the frequency at which a reactor can reach resonant modes. Then, theoretical results were compared with experimental ones. The results of the vibration analysis revealed that the reactor design is suitable to produce innovative AAO membranes. Vibration analysis shows that the use of high-frequency vibrations offers a real opportunity to create innovative AAO membranes with different controlled nanopore areas. This would extend their functionality and application in various fields.
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超声压电陶瓷换能器制备纳米多孔氧化铝膜的电化学反应器
本文旨在研究和开发创新的功能纳米孔膜制造技术。新型阳极氧化铝(AAO)纳米孔膜具有不同的可控纳米孔面积。为实现这一目标,研制了一种适合新型纳米孔膜合成的电化学反应器。为了获得不同大小的孔面积,在电化学刻蚀过程中将使用高频激发技术。在开始生产创新的AAO膜之前,重要的是进行振动分析并验证所开发的电化学反应器在电化学蚀刻过程中可以使用高频激励技术来控制纳米孔的分布。首先,利用COMSOL Multiphysics 5.4软件进行振动仿真。通过理论计算,可以发现反应堆达到共振模式的频率。然后,将理论结果与实验结果进行了比较。振动分析结果表明,该反应器设计适合于生产新型AAO膜。振动分析表明,使用高频振动提供了一个真正的机会来创造具有不同控制纳米孔区域的创新AAO膜。这将扩展它们在各个领域的功能和应用。
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