Ayali Amir, Sonnenreich Shai, El Pinchasik Bat
School of Zoology, Faculty of Life Sciences and Sagol School for Neuroscience, Tel-Aviv University, Tel-Aviv 6997801, Israel.
School of Mechanical Engineering, Tel-Aviv University, Tel-Aviv 6997801, Israel.
iScience. 2024 Nov 12;27(12):111378. doi: 10.1016/j.isci.2024.111378. eCollection 2024 Dec 20.
Investigating nature's ingenious designs and systems has become a cornerstone of innovation, influencing fields from robotics, biomechanics, and physics to material sciences. Two key questions, however, regarding bio-inspired innovation are those of how and where does one find bio-inspiration? The perspective presented here is aimed at providing insights into the evolving landscape of bio-inspiration discovery. We present the unique case of the female locust's oviposition as a valuable example for researchers and engineers seeking to pursue multifaceted research, encompassing diverse aspects of biological and bio-inspired systems. The female locust lays her eggs underground to protect them and provide them with optimal conditions for survival and hatching. To this end, she uses a dedicated apparatus comprising two pairs of special digging valves to propagate underground, while remarkably extending her abdomen by 2- to 3-fold its original length. The unique digging mechanism, the subterranean steering ability, and the extreme elongation of the abdomen, including the reversible extension of the abdominal central nervous system, all spark a variety of questions regarding materials, morphology, mechanisms, and their interactions in this complex biological system. We present the cross-discipline efforts to elucidate these fascinating questions, and provide future directions for developing bio-inspired technological innovations based on this remarkable biological system.
探究大自然的精妙设计与系统已成为创新的基石,影响着从机器人技术、生物力学、物理学到材料科学等诸多领域。然而,关于仿生创新有两个关键问题,即人们如何以及在何处找到生物灵感?本文提出的观点旨在深入探讨生物灵感发现这一不断演变的领域。我们以雌性蝗虫产卵这一独特案例为例,为寻求开展多方面研究的研究人员和工程师提供有价值的参考,这些研究涵盖生物和仿生系统的各个方面。雌性蝗虫将卵产在地下以保护它们,并为其提供生存和孵化的最佳条件。为此,它使用一种由两对特殊挖掘瓣膜组成的专用器具在地下挖掘,同时将腹部显著延长至原来长度的2至3倍。这种独特的挖掘机制、地下转向能力以及腹部的极端伸长,包括腹部中枢神经系统的可逆性伸展,都引发了关于这个复杂生物系统中的材料、形态、机制及其相互作用的种种问题。我们展示了为阐明这些有趣问题所做的跨学科努力,并为基于这一非凡生物系统开发仿生技术创新提供了未来方向。