Gao Run Ze, Ren Carolyn L
Department of Mechanical and Mechatronics Engineering, University of Waterloo, Waterloo, Ontario N2L 3G1, Canada.
Biomicrofluidics. 2021 Feb 3;15(1):011302. doi: 10.1063/5.0036991. eCollection 2021 Jan.
Soft robotics has gone through a decade of tremendous progress in advancing both fundamentals and technologies. It has also seen a wide range of applications such as surgery assistance, handling of delicate foods, and wearable assistive systems driven by its soft nature that is more human friendly than traditional hard robotics. The rapid growth of soft robotics introduces many challenges, which vary with applications. Common challenges include the availability of soft materials for realizing different functions and the precision and speed of control required for actuation. In the context of wearable systems, miniaturization appears to be an additional hurdle to be overcome in order to develop truly impactful systems with a high user acceptance. Microfluidics as a field of research has gone through more than two decades of intense and focused research resulting in many fundamental theories and practical tools that have the potentials to be applied synergistically to soft robotics toward miniaturization. This perspective aims to introduce the potential synergy between microfluidics and soft robotics as a research topic and suggest future directions that could leverage the advantages of the two fields.
软机器人技术在推进基础理论和技术方面已经经历了十年的巨大进步。它也有广泛的应用,如手术辅助、处理易碎食品以及可穿戴辅助系统,其柔软的特性使其比传统硬机器人更具人性化。软机器人技术的快速发展带来了许多挑战,这些挑战因应用而异。常见的挑战包括用于实现不同功能的软材料的可用性以及驱动所需的控制精度和速度。在可穿戴系统的背景下,为了开发具有高用户接受度的真正有影响力的系统,小型化似乎是另一个需要克服的障碍。微流体作为一个研究领域已经经历了二十多年的深入和专注研究,产生了许多有潜力协同应用于软机器人技术以实现小型化的基础理论和实用工具。这篇综述旨在介绍微流体和软机器人技术之间作为一个研究主题的潜在协同作用,并提出可以利用这两个领域优势的未来方向。