Wearable Perspiration Volume Sensor Using Dual-Frequency Impedance Measurement

Ryo Takamatsu, Shogo Amano, S. Izumi, Hiroshi Ohta, T. Nezu, Yuki Noda, T. Araki, T. Uemura, T. Sekitani, H. Kawaguchi
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Abstract

In recent years, the increase in the number of heat stroke patients has become a social problem. Heat stroke occurs indoors at home in many cases. This paper focuses on the measurement of sweat rate using a wearable device to prevent heat stroke in the indoor environment. In the proposed method, textile-based electrodes impregnated in fiber materials are used to measure the impedance of the skin. As sweating lowers the impedance of the skin, the amount of sweating can be estimated from the impedance change between the electrodes. However, the method using impedance has a problem in distinguishing the effects of water volume and salinity. To address this problem, dual-frequency impedance measurement is proposed in this paper. The proposed method utilizes the fact that impedance variations due to water volume and salinity changes have different frequency characteristics. The measurement results indicate that the proposed method can measure impedance while considering changes in the water volume and salinity.
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采用双频阻抗测量的可穿戴式汗液量传感器
近年来,中暑患者数量的增加已成为一个社会问题。中暑在很多情况下发生在室内。本文主要研究了在室内环境中使用可穿戴设备测量出汗率以防止中暑。在该方法中,利用浸渍在纤维材料中的纺织品电极来测量皮肤的阻抗。由于出汗降低了皮肤的阻抗,出汗的量可以从电极之间的阻抗变化来估计。然而,使用阻抗的方法在区分水量和盐度的影响方面存在问题。为了解决这一问题,本文提出了双频阻抗测量方法。该方法利用了由水量和盐度变化引起的阻抗变化具有不同频率特性的事实。测量结果表明,该方法可以在考虑水量和盐度变化的情况下测量阻抗。
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