Field Test of Wearable Sensors for Hydration Monitoring

David J. Culver, Alexander B. Colon, Deanna R. Washington, Maurice G. Appleton, A. Strang, A. Alizadeh, A. Burns, M. Poliks, Chad C. Tossell
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引用次数: 1

Abstract

Wearable sweat sensors will soon launch in the commercial sector. Many of these sensors focus on hydration monitoring, which is critical for optimizing performance and ensuring safety; particularly as it relates to individuals participating in extremely demanding physical activities. For these reasons, we tested the, durability, and comfort of a prototype sweat sensor in a mock special operations field event. Data were collected at the U.S. Air Force Academy to include measures of hydration levels (e.g., Urine Specific Gravity) and fluid loss (e.g., body weight) across a series of five strenuous physical activities. We evaluated the prototype design in terms of comfort and intrusiveness. Observations and survey data revealed the participants did not perceive the technologies as intrusive. All of the requisite activities were completed and the technologies did not hinder performance. General Electric, the developers of the particular sensor evaluated, received important design-related information for future iterations. With this technology the U.S. military hopes to see a decrease in the number of heat and hydration related incidents by enhancing the safety of its personnel. Moreover, the future design of this system is critical as part of a physiological dashboard used by special operations forces. A combination of optimizing human performance and safety could create the next iteration of the world's most powerful ground forces.
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水化监测可穿戴传感器的现场试验
可穿戴式汗液传感器将很快在商业领域推出。这些传感器中的许多都专注于水合监测,这对于优化性能和确保安全至关重要;特别是当它涉及到个人参加极其苛刻的体力活动。出于这些原因,我们在模拟特种作战现场事件中测试了原型汗液传感器的耐用性和舒适性。数据是在美国空军学院收集的,包括在一系列五种剧烈体育活动中测量水合水平(如尿比重)和液体损失(如体重)。我们从舒适性和侵入性两方面对原型设计进行了评估。观察和调查数据显示,参与者并不认为这些技术具有侵入性。所有必要的活动都已完成,这些技术并没有妨碍作业。通用电气,这个特殊传感器的开发者,收到了重要的设计相关信息,用于未来的迭代。有了这项技术,美国军方希望通过提高其人员的安全性来减少与高温和水合作用有关的事件的数量。此外,作为特种作战部队使用的生理仪表盘的一部分,该系统的未来设计至关重要。优化人员表现和安全的结合可以创造出世界上最强大的地面部队的下一代。
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