设计为熔融沉积建模优化的薄2.5D零件

James I. Novak, Mark Liu, J. Loy
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引用次数: 9

摘要

本章为采用熔融沉积建模(FDM)技术作为最终制造工艺的设计工程师建立了新的知识,而不仅仅是作为原型工艺。基于对2.5D打印及其在实际增材制造中的应用的研究,研究人员以0.1mm的增量分析了厚度在0.4-4.0mm范围内的111个测试件,以了解这些属性如何影响零件的质量和打印时间,并分离出针对FDM工艺优化的特定尺寸。结果显示,在优化区域内,外壁、内壁和/或填充物可以连续挤出,打印速度明显快于优化区域外的厚度。因此,基于基本的FDM原理,给出了一个快速参考图和几个方程,允许设计工程师在计算机辅助设计(CAD)中实现优化的壁尺寸,而不是将打印优化留给技术人员和制造商在最终的工艺参数中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Designing Thin 2.5D Parts Optimized for Fused Deposition Modeling
This chapter builds new knowledge for design engineers adopting fused deposition modeling (FDM) technology as an end manufacturing process, rather than simply as a prototyping process. Based on research into 2.5D printing and its use in real-world additive manufacturing situations, a study featuring 111 test pieces across the range of 0.4-4.0mm in thickness were analyzed in increments of 0.1mm to understand how these attributes affect the quality and print time of the parts and isolate specific dimensions which are optimized for the FDM process. The results revealed optimized zones where the outer wall, inner wall/s, and/or infill are produced as continuous extrusions significantly faster to print than thicknesses falling outside of optimized zones. As a result, a quick reference graph and several equations are presented based on fundamental FDM principles, allowing design engineers to implement optimized wall dimensions in computer-aided design (CAD) rather than leaving print optimization to technicians and manufacturers in the final process parameters.
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