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用于预防压力性损伤的无电池无线多模态传感器与 actuator 阵列系统 。(注:这里“actuator”常见释义为“执行器”,但在医学领域可能有更专业或特定的译法,若有需要可进一步根据具体语境调整。)

Battery-Free, Wireless Multi-Modal Sensor, and Actuator Array System for Pressure Injury Prevention.

作者信息

Han Hyeonseok, Park Hyunwoo, Cho Seokjoo, Lee Sung-Uk, Choi Jungrak, Ha Ji-Hwan, Park Jaeho, Jung Young, Kim Hyunjin, Ahn Junseong, Kwon Yeong Jae, Oh Yong Suk, Je Minkyu, Park Inkyu

机构信息

Department of Mechanical Engineering, Korea Advanced Institute of Science and Technology, Daejeon, 34141, Republic of Korea.

School of Electrical Engineering, Korea Advanced Institute of Science and Technology, Daejeon, 34141, Republic of Korea.

出版信息

Small. 2024 Dec;20(50):e2405493. doi: 10.1002/smll.202405493. Epub 2024 Aug 1.

Abstract

Simultaneous monitoring of critical parameters (e.g., pressure, shear, and temperature) at bony prominences is essential for the prevention of pressure injuries in a systematic manner. However, the development of wireless sensor array for accurate mapping of risk factors has been limited due to the challenges in the convergence of wireless technologies and wearable sensor arrays with a thin and small form factor. Herein, a battery-free, wireless, miniaturized multi-modal sensor array is introduced for continuous mapping of pressure, shear, and temperature at skin interfaces. The sensor array includes an integrated pressure and shear sensor consisting of 3D strain gauges and micromachined components. The mechanically decoupled design of the integrated sensor enables reliable data acquisition of pressure and shear at skin interfaces without the need for additional data processing. The sensor platform enables the analysis of interplay among localized pressure, shear, and temperature in response to changes in the patient's movement, posture, and bed inclination. The validation trials using a novel combination of wireless sensor arrays and customized pneumatic actuator demonstrate the efficacy of the platform in continuous monitoring and efficient redistribution of pressure and shear without repositioning, thereby improving the patient's quality of life.

摘要

同时监测骨隆突处的关键参数(如压力、剪切力和温度)对于系统预防压力性损伤至关重要。然而,由于无线技术与外形小巧的可穿戴传感器阵列融合方面存在挑战,用于精确绘制风险因素的无线传感器阵列的发展受到限制。在此,引入了一种无电池、无线、小型化的多模态传感器阵列,用于在皮肤界面连续绘制压力、剪切力和温度。该传感器阵列包括一个由3D应变片和微机械部件组成的集成压力和剪切力传感器。集成传感器的机械解耦设计能够在皮肤界面可靠地采集压力和剪切力数据,而无需额外的数据处理。该传感器平台能够分析局部压力、剪切力和温度之间的相互作用,以响应患者运动、姿势和床倾斜度的变化。使用无线传感器阵列和定制气动执行器的新颖组合进行的验证试验证明了该平台在连续监测以及在不重新定位的情况下有效重新分配压力和剪切力方面的功效,从而提高了患者的生活质量。

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