Kladovasilakis Nikolaos, Tsongas Konstantinos, Karalekas Dimitris, Tzetzis Dimitrios
Digital Manufacturing and Materials Characterization Laboratory, School of Science and Technology, International Hellenic University, 57001 Thessaloniki, Greece.
Centre for Research and Technology Hellas, Information Technologies Institute (CERTH/ITI), 57001 Thessaloniki, Greece.
Materials (Basel). 2022 Aug 26;15(17):5919. doi: 10.3390/ma15175919.
One of the main advantages of Additive Manufacturing (AM) is the ability to produce topologically optimized parts with high geometric complexity. In this context, a plethora of architected materials was investigated and utilized in order to optimize the 3D design of existing parts, reducing their mass, topology-controlling their mechanical response, and adding remarkable physical properties, such as high porosity and high surface area to volume ratio. Thus, the current re-view has been focused on providing the definition of architected materials and explaining their main physical properties. Furthermore, an up-to-date classification of cellular materials is presented containing all types of lattice structures. In addition, this research summarized the developed methods that enhance the mechanical performance of architected materials. Then, the effective mechanical behavior of the architected materials was investigated and compared through the existing literature. Moreover, commercial applications and potential uses of the architected materials are presented in various industries, such as the aeronautical, automotive, biomechanical, etc. The objectives of this comprehensive review are to provide a detailed map of the existing architected materials and their mechanical behavior, explore innovative techniques for improving them and highlight the comprehensive advantages of topology optimization in industrial applications utilizing additive manufacturing and novel architected materials.
增材制造(AM)的主要优势之一是能够生产具有高几何复杂性的拓扑优化零件。在此背景下,人们研究并利用了大量的结构化材料,以优化现有零件的三维设计,减轻其重量,控制其拓扑结构的力学响应,并赋予其显著的物理特性,如高孔隙率和高比表面积。因此,本综述聚焦于给出结构化材料的定义并解释其主要物理特性。此外,还给出了包含所有类型晶格结构的多孔材料的最新分类。此外,本研究总结了提高结构化材料力学性能的已开发方法。然后,通过现有文献对结构化材料的有效力学行为进行了研究和比较。此外,还介绍了结构化材料在航空、汽车、生物力学等各个行业的商业应用和潜在用途。本全面综述的目的是提供现有结构化材料及其力学行为的详细图谱,探索改进它们的创新技术,并突出在利用增材制造和新型结构化材料的工业应用中拓扑优化的综合优势。