EVA服可穿戴IMU系统的舒适性、机动性和耐久性评估

Young-Young Shen, Justin T. Miller, A. Anderson
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引用次数: 0

摘要

改进宇航服的设计以降低穿戴者肌肉骨骼损伤的几率被证明是具有挑战性的,因为无法观察宇航服内的人体运动。过去已经研究了使用可穿戴惯性传感器来观察穿戴者相对于服装的运动。然而,这些研究都没有研究传感器本身干扰人体在宇航服内运动的可能性。此外,这些过去的系统被发现经常在恶劣的宇航服环境中失效。作者正在开发一种新的可穿戴式惯性传感器系统,以解决以前的努力所面临的缺点。目前的工作描述了两个测试活动,以评估新系统的舒适性、机动性和耐久性。提出了每个测试活动的方法和数据分析计划,以及舒适性和机动性测试的试点研究结果。这些测试不仅可以验证新系统的性能,而且还可以对过去使用类似设备的工作得出结论。这项工作推动了一种可靠的工具的发展,用于观察航天服内的人体运动,这有助于设计更安全的宇航服,这些宇航服将用于行星舱外活动。
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Comfort, Mobility, and Durability Assessment of a Wearable IMU System for EVA Suits
Improving the design of spacesuits to reduce the rate of musculoskeletal injury to the wearer proves challenging due to the inability to observe human motion inside the suit. Past efforts have investigated the use of wearable inertial sensors to observe the motion of the wearer relative to the suit. However, none of these investigated the potential for the sensors themselves to interfere with human motion inside the suit. Additionally, these past systems were found to fail frequently in the harsh in-suit environment. The authors are developing a new in-suit wearable inertial sensor system in order to address the shortcomings faced by previous efforts. The current work describes two test campaigns to evaluate the comfort, mobility, and durability of the new system. Methods and data analysis plans are presented for each test campaign along with pilot study results for the comfort and mobility tests. These tests serve not only to provide verification of the performance of the new system, but also have the potential to allow conclusions to be made about past work using similar devices. The work advances the development of a reliable tool for observing human motion inside the spacesuit, which facilitates the design of safer suits that will be needed for planetary extravehicular activity.
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