Arsentev Maxim, Topalov Eduard, Balabanov Sergey, Sysoev Evgenii, Shulga Igor, Akhmatnabiev Marsel, Sychov Maxim, Skorb Ekaterina, Nosonovsky Michael
Infochemistry Scientific Center (ISC), ITMO University, 9 Lomonosova St., St. Petersburg 191002, Russia.
Institute of Silicate Chemistry, Russian Academy of Sciences, St. Petersburg 199034, Russia.
Biomimetics (Basel). 2024 May 10;9(5):285. doi: 10.3390/biomimetics9050285.
Triply periodic minimal surfaces (TPMSs) are found in many natural objects including butterfly wings, sea urchins, and biological membranes. They simultaneously have zero mean curvature at every point and a crystallographic group symmetry. A metamaterial can be created from such periodic surfaces or used as a reinforcement of a composite material. While a TPMS as a mathematical object has been known since 1865, only novel additive manufacturing (AM) technology made it possible to fabricate cellular materials with complex TPMS shapes. Cellular TPMS-based metamaterials have remarkable properties related to wetting/liquid penetration, shock absorption, and the absence of stress concentrators. Recent studies showed that TPMSs are also found in natural crystals when electron surfaces are considered. Artificial crystal-inspired metamaterials mimic such crystals including zeolites and schwarzites. These metamaterials are used for shock, acoustic waves, and vibration absorption, and as structural materials, heat exchangers, and for other applications. The choice of the crystalline cell of a material, as well as its microstructure, plays a decisive role in its properties. The new area of crystal-inspired materials has many common features with traditional biomimetics with models being borrowed from nature and adjusted for engineering applications.
三重周期极小曲面(TPMSs)存在于许多自然物体中,包括蝴蝶翅膀、海胆和生物膜。它们在每一点同时具有零平均曲率和晶体学群对称性。可以由这种周期性表面制造超材料,或将其用作复合材料的增强材料。虽然作为一个数学对象,三重周期极小曲面自1865年就已为人所知,但只有新型增材制造(AM)技术才使得制造具有复杂三重周期极小曲面形状的多孔材料成为可能。基于多孔三重周期极小曲面的超材料具有与润湿性/液体渗透、减震以及无应力集中器相关的显著特性。最近的研究表明,当考虑电子表面时,在天然晶体中也能发现三重周期极小曲面。受人工晶体启发的超材料模仿包括沸石和黑硅钙石在内的此类晶体。这些超材料用于减震、吸收声波和振动,并用作结构材料、热交换器以及用于其他应用。材料晶胞的选择及其微观结构对其性能起着决定性作用。受晶体启发的材料这一新领域与传统仿生学有许多共同特征,其模型借鉴自自然并针对工程应用进行调整。