Ren Luquan, Li Bingqian, Wei Guowu, Wang Kunyang, Song Zhengyi, Wei Yuyang, Ren Lei
Key Laboratory of Bionic Engineering (Ministry of Education), Jilin University, Changchun 130022, China.
School of Science, Engineering and Environment, University of Salford, M5 4WT Salford, UK.
iScience. 2021 Sep 1;24(9):103075. doi: 10.1016/j.isci.2021.103075. eCollection 2021 Sep 24.
Organisms in nature grow with senses, nervous, and actuation systems coordinated in ingenious ways to sustain metabolism and other essential life activities. The understanding of biological structures and functions guide the construction of soft robotics with unprecedented performances. However, despite the progress in soft robotics, there still remains a big gap between man-made soft robotics and natural lives in terms of autonomy, adaptability, self-repair, durability, energy efficiency, etc. Here, the actuation and sensing strategies in the natural biological world are summarized along with their man-made counterparts applied in soft robotics. The development trends of bioinspired soft robotics toward closed loop and embodiment are proposed. Challenges for obtaining autonomous soft robotics similar to natural organisms are outlined to provide a perspective in this field.
自然界中的生物体通过巧妙协调的感官、神经和驱动系统生长,以维持新陈代谢和其他基本生命活动。对生物结构和功能的理解指导了具有前所未有的性能的软体机器人的构建。然而,尽管软体机器人技术取得了进展,但在自主性、适应性、自我修复、耐久性、能源效率等方面,人造软体机器人与自然生命之间仍存在很大差距。在此,总结了自然生物世界中的驱动和传感策略以及它们在软体机器人中的人造对应策略。提出了受生物启发的软体机器人向闭环和实体化发展的趋势。概述了获得类似于自然生物体的自主软体机器人所面临的挑战,以提供该领域的一个视角。