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Double-Sided Wearable Multifunctional Sensing System with Anti-interference Design for Human-Ambience Interface.

Haobin Wang¹, Zehua Xiang¹, Pengcheng Zhao¹

¹National Key Laboratory of Science and Technology on Micro/Nano Fabrication; Beijing Advanced Innovation Center for Integrated Circuits, School of Integrated Circuits, Peking University, Beijing 100871, China.

|August 31, 2022

Summary

This study introduces a novel double-sided wearable system for multifunctional sensing. It effectively decouples signals, overcoming interference issues for accurate multimodal measurements in health and human-machine interfaces.

Keywords:

human−ambience interface laser-induced graphene multimodal sensing sensing-parameter decoupling sensing-signal coordination

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Area of Science:

Wearable technology
Biosensing systems
Materials science

Background:

Multifunctional sensing systems are crucial for applications like health surveillance and human-machine interfaces.
Current systems struggle with signal decoupling and interference, limiting simultaneous multimodal measurements.
There is a need for advanced wearable systems capable of accurate, interference-free sensing.

Purpose of the Study:

To develop a double-sided wearable system for multifunctional sensing.
To address the challenge of signal interference in multimodal measurements.
To enable accurate and simultaneous sensing of various parameters.

Main Methods:

Designing a double-sided wearable system with customized sensing electrodes and active material modification.
Implementing temperature drift compensation and selecting appropriate sensing mechanisms for thermal stability.
Utilizing a double-sided partition layout with serpentine interconnections to reduce motion artifacts and ensure module operation.

Main Results:

The proposed system successfully enables multifunctional sensing while avoiding interferences between multiple parameters.
Customized electrode patterns, active material modifications, and thermal stability measures enhance sensing accuracy.
The system demonstrates resistance to proximity, normal pressure, and gas molecule interference, alongside reduced motion artifacts.

Conclusions:

The developed double-sided wearable system offers a robust solution for interference-free multifunctional sensing.
Integrated energy harvesting and storage modules expand its application potential.
This technology advances the development of intelligent prosthetics, ambient interfaces, and health monitoring devices.