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Nanofinishing of FDM-fabricated components using ball end magnetorheological finishing process

机译:使用球形磁流学整理过程纳米植物制造的FDM制造部件

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摘要

Fused deposition modeling (FDM) is among the extensively used and the most economical additive manufacturing processes. Currently, the surface finish obtained for FDM additive manufactured parts are not at par with the current industrial application. To overcome the limitation of high surface roughness of 3D printed parts, a novel finishing technique has been proposed which includes primary and secondary finishing processes. While facing and lapping has been used as primary finishing technique, the secondary finishing involves the use of ball end magnetorheological finishing (BEMRF) process. BEMRF process is an unconventional finishing process which utilizes an advanced approach to impart finish on magnetic as well as non-magnetic materials that may be flat or freeform in shape. This article presents the experimental and analytical study to finish a polylactic acid (PLA) workpiece material manufactured by FDM process and finished using the BEMRF technique. The surface roughness of the FDM component has been reduced from initial surface roughness Ra = 20 mu m to final value of Ra = 81 nm by combined primary and secondary finishing processes. The effect of magnetorheological polishing (MRP) fluid's composition and finishing time is discussed and is followed by optimization of MRP fluid for maximum percentage reduction in surface roughness.
机译:融合沉积建模(FDM)是广泛使用的和最经济的添加剂制造过程之一。目前,用于FDM添加剂制造部件获得的表面光洁度与当前的工业应用相提并论。为了克服3D印刷部件的高表面粗糙度的限制,提出了一种新的精加工技术,包括初级和二次精加工过程。虽然面对和研磨已被用作主要精加工技术,但二次精加工涉及使用球形磁流学精加工(BEMRF)工艺。 BEMRF工艺是一种非常规的整理过程,它利用先进的方法来赋予磁性的磁性和非磁性材料,其形状为平坦或自由形状。本文介绍了完成通过FDM工艺制造的聚乳酸(PLA)工件材料并使用BEMRF技术完成的实验和分析研究。通过组合的初级和二次精加工方法,从初始表面粗糙度Ra =20μm到Ra = 81nm的最终值的初始表面粗糙度Ra =20μm的表面粗糙度。讨论磁流变抛光(MRP)流体组合物和精加工时间的影响,然后进行MRP流体的优化,以最大百分比降低表面粗糙度。

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