Kim D B, Witherell P, Lu Y, Feng S
Manufacturing and Engineering Technology, College of Engineering, Tennessee Technological Univ., 920 N. Peachtree Avenue, Lewis Hall 111A, Cookeville, TN 38505.
Engineering Laboratory, National Inst. of Standards and Technology, Gaithersburg, MD 20899.
Smart Sustain Manuf Syst. 2017;1(1):75-99. doi: 10.1520/SSMS20160003. Epub 2017 Feb 28.
Additive manufacturing (AM) has been envisioned by many as a driving factor of the next industrial revolution. Potential benefits of AM adoption include the production of low-volume, customized, complicated parts/products, supply chain efficiencies, shortened time-to-market, and environmental sustainability. Work remains, however, for AM to reach the status of a full production-ready technology. Whereas the ability to create unique 3D geometries has been generally proven, production challenges remain, including lack of (1) data manageability through information management systems, (2) traceability to promote product producibility, process repeatability, and part-to-part reproducibility, and (3) accountability through mature certification and qualification methodologies. To address these challenges in part, this paper discusses the building of data models to support the development of validation and conformance methodologies in AM. We present an AM information map that leverages informatics to facilitate part producibility, process repeatability, and part-to-part reproducibility in an AM process. We present three separate case studies to demonstrate the importance of establishing baseline data structures and part provenance through an AM digital thread.
许多人将增材制造(AM)视为下一次工业革命的驱动因素。采用增材制造的潜在好处包括生产小批量、定制化、复杂的零件/产品,提高供应链效率,缩短上市时间以及实现环境可持续性。然而,增材制造要达到完全可用于生产的技术状态仍有工作要做。虽然创建独特3D几何形状的能力已得到普遍证明,但生产挑战依然存在,包括缺乏(1)通过信息管理系统实现的数据可管理性,(2)促进产品可生产性、工艺可重复性和零件间再现性的可追溯性,以及(3)通过成熟的认证和鉴定方法实现的可问责性。为了部分应对这些挑战,本文讨论了数据模型的构建,以支持增材制造中验证和一致性方法的开发。我们展示了一个增材制造信息图,该图利用信息学在增材制造过程中促进零件可生产性、工艺可重复性和零件间再现性。我们展示了三个独立的案例研究,以证明通过增材制造数字线程建立基线数据结构和零件来源的重要性。