A Wearable Backscatter System Featuring Concurrent RF Harvesting and Bidirectional Communication with Commodity BLE Transceivers

Emerging wearable medical sensors enabling real-time health monitoring have become increasingly important for personalized healthcare. Nearly all devices require wireless connectivity at low power to reduce size, weight, and maintenance costs (recharging or replacing the battery). Recent works in body channel communication (BCC), such as galvanic [1], magnetic resonance [2], and capacitive coupling [3], have demonstrated low power communication around human bodies, thanks to the reduced path loss. However, current BCC solutions rely on custom-designed transceivers (TRX) that are not built into commodity hardware (i.e., smartphones/smartwatches). To enable rapid deployment at scale with low cost, communication should ideally be compatible with existing infrastructure, such as WiFi and BLE. However, conventional WiFi or BLE TRXs require 10s to 100s of mW of active power; therefore, large/frequent recharged battery is still necessary.

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Publication Details

Published
2025-04-13
DOI
https://doi.org/10.1109/cicc63670.2025.10983441
Citations
3
Primary Topic
Energy Harvesting in Wireless Networks
Type
article
Field-Weighted Citation Impact
2.19
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article

A Wearable Backscatter System Featuring Concurrent RF Harvesting and Bidirectional Communication with Commodity BLE Transceivers

Yan Wang, Yongling Zhang, Ji Xiong, Ji Zuo et al.
3 citations
Energy Harvesting in Wireless Networks
2.19
article

A Wearable Backscatter System Featuring Concurrent RF Harvesting and Bidirectional Communication with Commodity BLE Transceivers

Yan Wang, Yongling Zhang, Ji Xiong, Ji Zuo, Xiaoyi Wang, Xiaoyu Li, Junzai Chen, Meng Miao
article en
3 citations

Abstract

Emerging wearable medical sensors enabling real-time health monitoring have become increasingly important for personalized healthcare. Nearly all devices require wireless connectivity at low power to reduce size, weight, and maintenance costs (recharging or replacing the battery). Recent works in body channel communication (BCC), such as galvanic [1], magnetic resonance [2], and capacitive coupling [3], have demonstrated low power communication around human bodies, thanks to the reduced path loss. However, current BCC solutions rely on custom-designed transceivers (TRX) that are not built into commodity hardware (i.e., smartphones/smartwatches). To enable rapid deployment at scale with low cost, communication should ideally be compatible with existing infrastructure, such as WiFi and BLE. However, conventional WiFi or BLE TRXs require 10s to 100s of mW of active power; therefore, large/frequent recharged battery is still necessary.

Tongji University (CN), Fudan University (CN)
Openalex Percentile: Top 12%
Energy Harvesting in Wireless Networks
2.19
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