Natural systems integrate the work of many sub-units (cells) toward a large-scale unified goal (morphological and behavioral), which can counteract the effects of unexpected experiences, damage, or simply changes in tasks demands. In this paper, we exploit the opportunities presented by soft, modular, and tensegrity robots to introduce soft lattice modules that parallel the sub-units seen in biological systems. The soft lattice modules are comprised of 3D printed plastic "skeletons", linear contracting shape memory alloy spring actuators, and permanent magnets that enable adhesion between modules. The soft lattice modules are capable of independent locomotion, and can also join with other modules to achieve collective, self-assembled, larger scale tasks such as collective locomotion and moving an object across the surface of the lattice assembly. This work represents a preliminary step toward soft modular systems capable of independent and collective behaviors, and provide a platform for future studies on distributed control.
翻译:许多次单元(细胞)整合了许多次单元(形态和行为)的工作,以达到一个大规模统一的目标(形态和行为),可以抵消意外经历、损坏或任务要求的简单变化的影响。在本文中,我们利用软体、模块和时态机器人提供的机会,引入与生物系统所见子单元平行的软板模模块。软板块模块由3D印刷塑料“Skeetons”、线形合同内装内存弹簧动力器和永久磁铁组成,使模块之间能够粘合。软板模块能够独立移动,还可以与其他模块联合,实现集体、自组装、更大规模的任务,如集体移动和移动物体,横跨浮板组装组装的表面。这项工作是朝着能够独立和集体行为的软模块系统迈出的第一步,并为未来对分布式控制进行研究提供一个平台。