Jang Seongwan, Park Sujin, Bae Chang-Jun
3D Printing Materials Center, Korea Institute of Materials Science (KIMS), Changwon, 51508 South Korea.
Biomed Eng Lett. 2020 Oct 10;10(4):493-503. doi: 10.1007/s13534-020-00175-4. eCollection 2020 Nov.
Ceramic additive manufacturing (C-AM) is highlighted as a technology that can overcome the inherent limitations of ceramics such as processability and formability. This process creates a structure by slicing a 3D model and stacking ceramic materials layer-by-layer without mold or machining. C-AM is a technology suitable for the era of multiple low-volume because it is more flexible than conventional methods for shape complexity and design modification. However, many barriers to practical use remain due to process speed, defects, and lack of knowledge. This review focuses on studies to overcome the limitations of C-AM in terms of process and materials. The C-AM process has been advanced through various studies such as model/equation-based parameter control and high-speed sintering using external energy. Besides, by improving and fusing existing technologies, high-precision high-speed printing technology has been improved. A variety of material studies have been made of manufacturing ceramic structures with superior properties using preceramic polymers and composite materials. Through these studies, C-AM has been applied to various fields such as medicine, energy, environment, machinery, and architecture. These continued growths and diverse results demonstrate the importance and potential of C-AM based ceramic manufacturing technology.
陶瓷增材制造(C-AM)被视为一种能够克服陶瓷诸如可加工性和可成型性等固有局限性的技术。该工艺通过对3D模型进行切片并逐层堆叠陶瓷材料来创建结构,无需模具或机械加工。C-AM是一种适用于多品种小批量生产时代的技术,因为在形状复杂性和设计修改方面,它比传统方法更灵活。然而,由于工艺速度、缺陷和知识匮乏,实际应用仍存在许多障碍。本综述聚焦于在工艺和材料方面克服C-AM局限性的研究。通过基于模型/方程的参数控制和利用外部能量的高速烧结等各种研究,C-AM工艺得到了改进。此外,通过改进和融合现有技术,高精度高速打印技术也得到了提升。利用陶瓷前驱体聚合物和复合材料制造具有优异性能的陶瓷结构的各种材料研究也已开展。通过这些研究,C-AM已应用于医学、能源、环境、机械和建筑等各个领域。这些持续的发展和多样的成果证明了基于C-AM的陶瓷制造技术的重要性和潜力。