Che Shanlong, Qu Guangliang, Wang Guochen, Hao Yunyan, Sun Jiao, Ding Jin
Naval Architecture and Port Engineering College, Shandong Jiaotong University, Weihai 264209, China.
School of Mechanical, Electrical and Information Engineering, Shandong University, Weihai 264209, China.
Polymers (Basel). 2024 Oct 18;16(20):2925. doi: 10.3390/polym16202925.
Sandwich composites are widely used in engineering due to their excellent mechanical properties. Accordingly, the problem of interface bonding between their panels and core layers has always been a hot research topic. The emergence of biomimetic technology has enabled the integration of the structure and function of biological materials from living organisms or nature into the design of sandwich composites, greatly improving the interface bonding and overall performance of heterogeneous materials. In this paper, we review the most commonly used biomimetic structures and the fusion design of multi-biomimetic structures in the engineering field. They are analyzed with respect to their mechanical properties, and several biomimetic structures derived from abstraction in plants and animals are highlighted. Their structural advantages are further discussed specifically. Regarding the optimization of different interface combinations of multilayer composites, this paper explores the optimization of simulations and the contributions of molecular dynamics, machine learning, and other techniques used for optimization. Additionally, the latest molding methods for sandwich composites based on biomimetic structural design are introduced, and the materials applicable to different processes, as well as their advantages and disadvantages, are briefly analyzed. Our research results can help improve the mechanical properties of sandwich composites and promote the application of biomimetic structures in engineering.
夹层复合材料因其优异的力学性能而在工程领域得到广泛应用。因此,其面板与芯层之间的界面粘结问题一直是研究热点。仿生技术的出现,使生物材料从生物体或自然界的结构与功能得以融入夹层复合材料设计中,极大地改善了异质材料的界面粘结和整体性能。本文综述了工程领域中最常用的仿生结构以及多仿生结构的融合设计。分析了它们的力学性能,突出了几种从动植物中抽象出来的仿生结构。具体进一步讨论了它们的结构优势。关于多层复合材料不同界面组合的优化,本文探讨了模拟优化以及分子动力学、机器学习等用于优化的技术的贡献。此外,介绍了基于仿生结构设计的夹层复合材料的最新成型方法,并简要分析了适用于不同工艺的材料及其优缺点。我们的研究结果有助于提高夹层复合材料的力学性能,并推动仿生结构在工程中的应用。