Rykaczewski Konrad
School for Engineering of Matter, Transport and Energy, Arizona State University, Tempe, AZ, US.
Julie Ann Wrigley Global Futures Laboratory, Arizona State University, Tempe, AZ, USA.
Temperature (Austin). 2022 Aug 23;10(3):313-325. doi: 10.1080/23328940.2022.2113725. eCollection 2023.
Technological advancements in the last two decades have enabled development of a variety of mechanically supporting wearable robots (i.e. exoskeletons) that are transitioning to practice in medical and industrial settings. The feedback from industry and recent controlled studies is highlighting thermal discomfort as a major reason for the disuse of the devices and a substantial barrier to their long-term adoption. Furthermore, a brief overview of the devices and their intended applications reveals that many of the potential users are likely to face thermal comfort issues because of either high exertion or medically related high heat sensitivity. The aim of this review is to discuss these emerging thermal challenges and opportunities surrounding wearable robots. This review discusses mechanisms, potential solutions, and a platform for systematically measuring heat transfer inhibition caused by wearing of an exoskeleton. Lastly, the potential for substantial metabolic rate reduction provided by exoskeletons to reduce worker thermal strain in warm-to-hot conditions is also considered.
在过去二十年中,技术进步使得各种机械支撑可穿戴机器人(即外骨骼)得以发展,这些机器人正逐渐应用于医疗和工业领域。来自行业的反馈以及最近的对照研究表明,热不适是这些设备被弃用的主要原因,也是其长期应用的重大障碍。此外,对这些设备及其预期应用的简要概述显示,许多潜在用户可能会因高强度劳作或与医学相关的高热敏感性而面临热舒适问题。本综述的目的是讨论围绕可穿戴机器人出现的这些热挑战和机遇。本综述讨论了相关机制、潜在解决方案以及一个用于系统测量外骨骼穿戴引起的热传递抑制的平台。最后,还考虑了外骨骼在温暖至炎热条件下大幅降低代谢率以减轻工人热应激的潜力。