Higher-Order Behaviours in Bio-Inspired Materials

IF 3.1 Q2 CHEMISTRY, MULTIDISCIPLINARY ChemSystemsChem Pub Date : 2024-04-16 DOI:10.1002/syst.202400014
Dr. Aina Rebasa-Vallverdu, Dr. Manuel Antuch, Beatrice Rosetti, Dr. Nicoletta Braidotti, Prof. Pierangelo Gobbo
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Abstract

Bio-inspired approaches in materials science and systems chemistry are yielding a variety of stimuli-responsive and dynamic materials that are gradually changing our everyday life. However, the ability to chemically program these materials to exhibit macroscopic higher-order behaviours such as self-assembly, contractility, swarming, taxis, chemical communication, or predator-prey dynamics remains an ongoing challenge. While still in its infancy, the successful fabrication of bio-inspired materials displaying higher-order behaviours not only will help bridging the gap between living and non-living matter, but it will also contribute to the development of advanced materials for potential applications ranging from tissue engineering and biotechnology, to soft robotics and regenerative medicine. Our Mini-Review will systematically discuss the higher-order behaviours developed thus far in bio-inspired systems, namely (i) polymer networks (ii) microbots, (iii) protocells, and (iv) prototissues. For each system it will provide key examples and highlight how the emergent behaviour could be chemically programmed.

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生物启发材料的高阶行为
材料科学和系统化学中的生物启发方法正在产生各种刺激响应型动态材料,它们正在逐渐改变我们的日常生活。然而,如何对这些材料进行化学编程,使其表现出宏观的高阶行为,如自组装、收缩性、蜂群、滑行、化学通讯或捕食者-猎物动力学,仍然是一个持续的挑战。虽然生物启发材料的制造仍处于起步阶段,但成功制造出具有高阶行为的生物启发材料不仅有助于缩小生命物质与非生命物质之间的差距,还有助于开发先进材料,使其具有从组织工程和生物技术到软机器人和再生医学等各种潜在应用。我们的微型综述将系统地讨论迄今为止在生物启发系统中开发的高阶行为,即 (i) 聚合物网络 (ii) 微型机器人 (iii) 原型细胞 (iv) 原型组织。它将为每种系统提供关键实例,并重点介绍如何通过化学方法对出现的行为进行编程。
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