Passive Respiration Detection via mmWave Communication Signal Under Interference
Kehan Wu, Renqi Chen, Haiyu Wang, Chenqing Ji, Jiayuan Zhu, Guang, Wu

TL;DR
This paper presents a mmWave-based passive respiration detection system that accurately identifies human respiration even amidst significant human motion interference, using neural networks and an empirical model for rapid rate counting.
Contribution
It introduces a novel mmWave sensing system operating at 60.48 GHz capable of detecting respiration under interference, with a neural network and empirical model for improved accuracy and speed.
Findings
Over 90% detection accuracy under interference
Effective respiratory rate counting within 10 seconds
Neural network enhances detection robustness
Abstract
Recent research has highlighted the detection of human respiration rate using commodity WiFi devices. Nevertheless, these devices encounter challenges in accurately discerning human respiration amidst the prevailing human motion interference encountered in daily life. To tackle this predicament, this paper introduces a passive sensing and communication system designed specifically for respiration detection in the presence of robust human motion interference. Operating within the 60.48 GHz band, the proposed system aims to detect human respiration even when confronted with substantial human motion interference within close proximity. Subsequently, a neural network is trained using the collected data by us to enable human respiration detection. The experimental results demonstrate a consistently high accuracy rate over 90\% of the human respiration detection under interference, given an…
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Taxonomy
TopicsIndoor and Outdoor Localization Technologies · Millimeter-Wave Propagation and Modeling · Wireless Body Area Networks
