Body-resonance: transmission line-like wireless links enabling high-speed wearable communication

Seamless interaction between humans and Artificial Intelligence-empowered, battery-operated, miniaturized devices is reshaping wearable technology by forming an anthropomorphic artificial nervous system that demands high-speed, low-power connectivity. Besides being radiative, radio frequency links suffer absorption losses in non-line-of-sight scenarios and consume more than tens of milliwatts of power. Electro-quasistatic human body communication provides non-radiative links with ~100X better energy efficiency and ~30X superior signal confinement over radio wave-based wireless. However, it is limited by ~60-70 dB path loss, limited bandwidth, and data rates ≤30 Mbps, insufficient for applications such as High definition streaming, and distributed computing at wearable sensor nodes. To overcome these challenges, we propose Body-Resonance Human Body Communication, which leverages the human body's transmission-line behavior in the near-intermediate field to enhance channel capacity by up to 30X. It achieves approximately 20 dB higher channel gain and a wider bandwidth compared to electro-quasistatic regime, supporting data rates of hundreds of Mbps. Experimental results validate low-loss (~40-50 dB), wideband body channels that are more than 10X less leaky than antenna-based wireless links. Body Resonance can potentially open up the possibilities of immersive augmented/virtual reality and cooperative on-body computing by enabling energy-efficient, high-speed wearable networks across healthcare, defense, and consumer electronics.

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Publication Details

Journal
Communications Engineering
Published
2025-12-20
DOI
https://doi.org/10.1038/s44172-025-00533-z
Primary Topic
Wireless Body Area Networks
Type
article
Field-Weighted Citation Impact
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article

Body-resonance: transmission line-like wireless links enabling high-speed wearable communication

Shreyas Sen, Qi Huang, Mayukh Nath, Samyadip Sarkar et al.
Communications Engineering
Wireless Body Area Networks
article

Body-resonance: transmission line-like wireless links enabling high-speed wearable communication

Shreyas Sen, Qi Huang, Mayukh Nath, Samyadip Sarkar, Sarthak Antal
article en

Abstract

Seamless interaction between humans and Artificial Intelligence-empowered, battery-operated, miniaturized devices is reshaping wearable technology by forming an anthropomorphic artificial nervous system that demands high-speed, low-power connectivity. Besides being radiative, radio frequency links suffer absorption losses in non-line-of-sight scenarios and consume more than tens of milliwatts of power. Electro-quasistatic human body communication provides non-radiative links with ~100X better energy efficiency and ~30X superior signal confinement over radio wave-based wireless. However, it is limited by ~60-70 dB path loss, limited bandwidth, and data rates ≤30 Mbps, insufficient for applications such as High definition streaming, and distributed computing at wearable sensor nodes. To overcome these challenges, we propose Body-Resonance Human Body Communication, which leverages the human body's transmission-line behavior in the near-intermediate field to enhance channel capacity by up to 30X. It achieves approximately 20 dB higher channel gain and a wider bandwidth compared to electro-quasistatic regime, supporting data rates of hundreds of Mbps. Experimental results validate low-loss (~40-50 dB), wideband body channels that are more than 10X less leaky than antenna-based wireless links. Body Resonance can potentially open up the possibilities of immersive augmented/virtual reality and cooperative on-body computing by enabling energy-efficient, high-speed wearable networks across healthcare, defense, and consumer electronics.

Communications EngineeringVol. 5(1)
Purdue University West Lafayette (US)
Affordable and clean energy
Openalex Percentile: Top 43%
Wireless Body Area Networks
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