Alqaderi Ahmed, Jaafar Syed Muhammad Hafiz Syed Mohd, Kamal Shafarina Azlinda Ahmad, Wah Lee Hing, Lim Wei Yin, Ramakrishan Narayanan
Micro and Nano Devices Lab, Department of Electrical and Robotics Engineering, School of Engineering, Monash University Malaysia, Selangor, Malaysia.
Semiconductor R&D, MIMOS BERHAD, Kuala Lumpur, Malaysia.
Wearable Technol. 2025 Jul 25;6:e35. doi: 10.1017/wtc.2025.10020. eCollection 2025.
We present a flexible, multilayer fabric strain sensor composed of a carbon fabric layer sandwiched between elastic bands. The sensor achieved a gauge factor of 3.4 and maintained its durability up to 635% strain. Its uniform graphite layer enabled reliable fabrication and easy integration into wearable formats. Performing well on commercial gloves and bands, the sensor effectively captured strain variations during body movement and enabled wireless transmission for real-time monitoring. Distinct resistance patterns were recorded for various body motions such as walking, jogging, jumping, and knee bending with a clear separation between high- and low-intensity activities. The overall design supports scalable fabrication and practical integration into wearable systems.
我们展示了一种灵活的多层织物应变传感器,它由夹在弹性带之间的碳纤维织物层组成。该传感器的应变系数为3.4,在高达635%的应变下仍能保持其耐用性。其均匀的石墨层有助于可靠制造,并易于集成到可穿戴形式中。该传感器在商用手套和腕带上表现良好,能有效捕捉身体运动期间的应变变化,并实现无线传输以进行实时监测。对于各种身体运动,如行走、慢跑、跳跃和膝盖弯曲,都记录到了不同的电阻模式,高强度和低强度活动之间有明显区分。整体设计支持可扩展制造,并能实际集成到可穿戴系统中。