RESEARCH OF PROPERTIES OF CERAMIC COMPOSITE FIBER PRINTED USING FUSED DEPOSITION MODELING TECHNOLOGY

IF 0.6 Q4 ENGINEERING, MECHANICAL
JAN MILDE, PATRIK DOBROVSZKY, PETER VETESKA, MARTINA ORLOVSKA, TOMAS MACHAC, MILOS BITTER, PETER POKORNY
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Abstract

This research article presents a comprehensive study on ceramic materials using Fused filament fabrication of ceramic (FFFC) for the production of test samples. The study investigates the effects of different production strategies on three types of ceramic materials: experimental ceramic composite fiber (e.c.c.f.)(composite material produced by STU FCHPT), Zirconium Silicate, and White Zirconia. The primary objective is to compare the production times of the different strategies and investigate their effects on the properties of the samples. This research is important because production time is a crucial factor in the manufacturing industry, and minimizing production time without compromising quality is essential. The study aims to explore the impact of various production strategies on the production time and properties of the test samples, such as hardness, porosity, and flexural strength. The experimental procedure involves printing test samples using a MakerBot METHOD X 3D Printer with FDM technology and varying the layer thickness, raster angle, infill density, and other production strategies. The study aims to identify the optimal production strategy for each ceramic material, which can significantly reduce production time while maintaining the desired quality of the parts. Overall, the research provides valuable insights into the optimal production strategies for different types of ceramic materials and contributes to the development of novel, cost-effective, and efficient manufacturing processes for ceramic composites.
熔融沉积成型技术打印陶瓷复合纤维的性能研究
本文对陶瓷材料进行了全面的研究,利用陶瓷熔丝制造技术(FFFC)制作测试样品。研究了不同的生产策略对三种陶瓷材料的影响:实验陶瓷复合纤维(e.c.c.f)(由STU FCHPT生产的复合材料),硅酸锆和白氧化锆。主要目的是比较不同策略的生产时间,并研究它们对样品性质的影响。这项研究很重要,因为生产时间是制造业的一个关键因素,在不影响质量的情况下最小化生产时间是必不可少的。本研究旨在探讨不同的生产策略对试样的生产时间和硬度、孔隙率、抗弯强度等性能的影响。实验过程包括使用具有FDM技术的MakerBot METHOD X 3D打印机打印测试样品,并改变层厚度,光栅角度,填充密度和其他生产策略。该研究旨在确定每种陶瓷材料的最佳生产策略,该策略可以在保持零件所需质量的同时显着减少生产时间。总体而言,该研究为不同类型陶瓷材料的最佳生产策略提供了有价值的见解,并有助于开发新颖,经济高效的陶瓷复合材料制造工艺。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
MM Science Journal
MM Science Journal ENGINEERING, MECHANICAL-
CiteScore
1.30
自引率
42.90%
发文量
96
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