R. Nigmetzyanov, V. Prikhodko, S. Sundukov, V. Klimenko, Vladimir Kol'dyushov
{"title":"The use of ultrasound in the process of plastic parts additive manufacturing","authors":"R. Nigmetzyanov, V. Prikhodko, S. Sundukov, V. Klimenko, Vladimir Kol'dyushov","doi":"10.30987/2223-4608-2023-15-22","DOIUrl":null,"url":null,"abstract":"Despite huge prospects for the layer-by-layer synthesis of products, which makes it possible to produce parts of a unique shape, the widespread use of the method face the problems of making a proper microgeometry of the product surface, which due to the peculiarities of layer-by-layer production is rather rough, and mechanical methods of machine working often do not admit the possibility of figure-shaped parts post processing. The article studies the problem of ensuring the quality of the plastic parts surface layer obtained by additive technologies. For this purpose, it is proposed to use ultrasonic processing technologies. The existing methods of using ultrasonic vibrations in the production of plastic parts are analyzed: the manufacture of wire for 3D printing with additives, which results in an increase in the mechanical properties of the product. Besides, liquid treatment of a solvent-loaded product in order to remove supporting elements. Studies have been carried out on the finishing of parts in a solvent aerosol obtained by ultrasonic spraying. This method has a number of advantages in comparison with the treatment in solvent vapors obtained during its heating, which include the possibility of regulating the size of droplets, their moving speed, aerosol concentration, caused by changing the modes of ultrasonic treatment. As a result of experimental studies, it is found that the use of this treatment method eventuates an increase in the quality of the sample surfaces to be worked, and besides, it reduces the height parameters of roughness in the direction perpendicular to the layered growth of the product by more than a factor of ten. The mechanism of changing the microgeometry of the surface is as follows: when aerosol droplets contact the surface, part of the material forming the protrusions dissolves and fills valleys, while in the liquid state; after finishing the work, the material polymerizes, generating a surface with improved features.","PeriodicalId":21570,"journal":{"name":"Science intensive technologies in mechanical engineering","volume":"88 10","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2023-12-27","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Science intensive technologies in mechanical engineering","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.30987/2223-4608-2023-15-22","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
Despite huge prospects for the layer-by-layer synthesis of products, which makes it possible to produce parts of a unique shape, the widespread use of the method face the problems of making a proper microgeometry of the product surface, which due to the peculiarities of layer-by-layer production is rather rough, and mechanical methods of machine working often do not admit the possibility of figure-shaped parts post processing. The article studies the problem of ensuring the quality of the plastic parts surface layer obtained by additive technologies. For this purpose, it is proposed to use ultrasonic processing technologies. The existing methods of using ultrasonic vibrations in the production of plastic parts are analyzed: the manufacture of wire for 3D printing with additives, which results in an increase in the mechanical properties of the product. Besides, liquid treatment of a solvent-loaded product in order to remove supporting elements. Studies have been carried out on the finishing of parts in a solvent aerosol obtained by ultrasonic spraying. This method has a number of advantages in comparison with the treatment in solvent vapors obtained during its heating, which include the possibility of regulating the size of droplets, their moving speed, aerosol concentration, caused by changing the modes of ultrasonic treatment. As a result of experimental studies, it is found that the use of this treatment method eventuates an increase in the quality of the sample surfaces to be worked, and besides, it reduces the height parameters of roughness in the direction perpendicular to the layered growth of the product by more than a factor of ten. The mechanism of changing the microgeometry of the surface is as follows: when aerosol droplets contact the surface, part of the material forming the protrusions dissolves and fills valleys, while in the liquid state; after finishing the work, the material polymerizes, generating a surface with improved features.
尽管逐层合成产品的前景广阔,可以生产出独特形状的零件,但该方法的广泛使用面临着产品表面适当微观几何形状的问题,由于逐层生产的特殊性,产品表面相当粗糙,机械加工方法通常不允许对零件进行后处理。文章研究了如何确保通过快速成型技术获得的塑料零件表面层的质量问题。为此,建议使用超声波加工技术。文章分析了在塑料零件生产中使用超声波振动的现有方法:使用添加剂制造用于 3D 打印的线材,从而提高产品的机械性能。此外,对装有溶剂的产品进行液体处理,以去除支撑元素。已对通过超声波喷射获得的溶剂气溶胶中的零件精加工进行了研究。与在加热过程中获得的溶剂蒸汽中进行处理相比,这种方法有许多优点,包括可以通过改变超声波处理模式来调节液滴的大小、移动速度和气溶胶浓度。实验研究发现,使用这种处理方法最终会提高待加工样品表面的质量,此外,还能将垂直于产品分层生长方向的粗糙度高度参数降低 10 倍以上。改变表面微观几何形状的机理如下:当气溶胶液滴接触表面时,形成突起的部分材料在液态下溶解并填满沟谷;完成加工后,材料聚合,形成具有改进特征的表面。