Hierarchically Structured E‐Textiles with Embodied Multimodal Signal Decoupling for Conformable Sensing Interfaces

Flexible electronic skins with multimodal sensing capability and high conformability hold great promise for next‐generation human‐machine interfaces, wearable monitoring wearables, and robotic skin. However, conventional layer‐by‐layer integration for multimodal sensing often results in bulky devices and is prone to interfacial delamination. Inspired by the hierarchical information processing of human tactile system, we present an embodied multimodal sensing textile (EMST) enabled by a multiscale textile‐structure design, from composite functional yarns to engineered woven architectures. The EMST achieves integration, decoupling, and tactile mapping of position and pressure signals directly at the textile‐structure level by leveraging on‐body current‐division and resistance‐gradient principles. A geometric model of the touch trajectory is established to elucidate the decoupling mechanism for 2D coordinate sensing. The controllability of the EMST in virtual car motion, as validated by MuJoCo simulations, further demonstrates its potential for assistive interaction with intelligent navigation systems. This work provides a practical and scalable technical strategy for advancing conformable tactile textile interfaces and next‐generation human‐machine interaction.