Submersible touchless interactivity in conformable textiles enabled by highly selective overbraided magnetoresistive sensors.

Pasindu Lugoda, Eduardo Sergio Oliveros-Mata, Kalana Marasinghe, Rahul Bhaumik, Niccolò Pretto, Carlos Oliveira, Tilak Dias, Theodore Hughes-Riley, Michael Haller, Niko Münzenrieder, Denys Makarov
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Abstract

Miniature electronics positioned within textile braids leverages the persistent flexibility and comfort of textiles constructed from electronics with 1D form factors. Here, we developed touchless interactivity within textiles using 1D overbraided magnetic field sensors. Our integration strategy minimally impacts the performance of flexible giant magnetoresistive sensors, yielding machine-washable sensors that maintain conformability when integrated in traditional fabrics. These overbraided magnetoresistive sensors exhibit a detectivity down to 380 nT and a nearly isotropic magnetoresistance amplitude response, facilitating intuitive touchless interaction. The interactivity is possible even in humid environments, including underwater, opening reliable activation in day-to-day and specialized applications. To showcase capabilities of overbraided magnetoresistive sensors, we demonstrate a functional armband for navigation control in virtual reality environments and a self-monitoring safety helmet strap. This approach bridges the integration gap between on-skin and rigid magnetic interfaces, paving the way for highly reliable, comfortable, interactive textiles across entertainment, safety, and sportswear.

纺织品编织物内的微型电子元件利用了由一维电子元件构成的纺织品的持久灵活性和舒适性。在这里,我们利用 1D 超编织磁场传感器在纺织品中开发了无触摸互动功能。我们的集成策略对柔性巨型磁阻传感器的性能影响极小,可产生可机洗的传感器,在集成到传统织物中时仍能保持顺应性。这些包覆式磁阻传感器的检测率低至 380 nT,磁阻振幅响应几乎各向同性,有助于实现直观的无触摸交互。即使在包括水下在内的潮湿环境中也能实现互动,为日常和特殊应用提供了可靠的激活功能。为了展示包覆磁阻传感器的功能,我们展示了在虚拟现实环境中用于导航控制的功能臂带和自我监测安全头盔带。这种方法弥补了皮肤和刚性磁性接口之间的集成差距,为娱乐、安全和运动服装领域的高可靠性、舒适性和交互式纺织品铺平了道路。
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