Recent advancements in stereolithography (SLA) and their optimization of process parameters for sustainable manufacturing

Asmaul Husna , Salahuddin Ashrafi , ANM Amanullah Tomal , Noshin Tasnim Tuli , Adib Bin Rashid
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Abstract

Stereolithography employs digital models generated from computer-aided design to personalize 3D items automatically. Its development has made a substantial contribution to the aerospace, industrial, medical, manufacturing, design, and engineering sectors during the past 40 years. Excellent precision can be achieved by selecting the right process parameters and right material. That’s why this technology is highly valued. In this study, a comprehensive overview of Stereolithography, including its process, material overview, application, and recent advancements, is provided. The study includes a brief discussion of factors such as layer thickness, print orientation, curing time, curing temperature, and laser power, and how these parameters affect mechanical properties like material hardness, tensile strength at yield, flexural strength, elongation at break, and surface roughness. Furthermore, the paper discusses the application of optimization methods like Genetic Algorithms and Artificial Neural Networks (ANN) to analyze, refine, and determine the optimal processing parameters for stereolithography. These techniques play a vital role in achieving a diverse array of mechanical properties for manufactured products, thereby contributing to the advancement of additive manufacturing processes. Additive Manufacturing (AM) is essential in Industry 4.0 as it can produce customized products, lower costs for small and medium-sized production runs and has the ability to reuse materials. Most of the research has focused on current improvements, but there is a need for more attention to future work.
立体光刻技术(SLA)的最新进展及其为实现可持续制造而进行的工艺参数优化
立体光刻技术利用计算机辅助设计生成的数字模型,自动制作个性化的三维物品。在过去的 40 年中,立体光刻技术的发展为航空航天、工业、医疗、制造、设计和工程领域做出了巨大贡献。通过选择正确的工艺参数和材料,可以实现极高的精度。这也是这项技术备受推崇的原因。本研究全面概述了立体光刻技术,包括其工艺、材料概述、应用和最新进展。本研究简要讨论了层厚度、打印方向、固化时间、固化温度和激光功率等因素,以及这些参数如何影响材料硬度、屈服拉伸强度、弯曲强度、断裂伸长率和表面粗糙度等机械性能。此外,论文还讨论了遗传算法和人工神经网络(ANN)等优化方法的应用,以分析、完善和确定立体光刻的最佳加工参数。这些技术在实现制成品的各种机械性能方面发挥着重要作用,从而推动了快速成型制造工艺的发展。增材制造(AM)对工业 4.0 至关重要,因为它可以生产定制产品,降低中小型生产的成本,并能重复使用材料。大多数研究都集中在当前的改进方面,但有必要更多地关注未来的工作。
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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