TY - GEN
T1 - Zero-Effort Cross-Domain Wireless Respiration Monitoring under Free Movements with Commercial UWB Devices
AU - Wang, Ge
AU - Chen, Jiazheng
AU - Chen, Zhe
AU - Wang, Fei
AU - Zhao, Cong
AU - Wang, Jianan
AU - Ding, Han
AU - Zhao, Cui
AU - Xi, Wei
AU - Han, Jinsong
N1 - Publisher Copyright:
© 2026 Copyright held by the owner/author(s).
PY - 2026/5/10
Y1 - 2026/5/10
N2 - Respiratory monitoring using wireless technologies has garnered significant attention for its potential in healthcare, smart cockpits, and various applications. Though extensively studied, existing systems face practical challenges in adapting to new data domains without substantial customization efforts. Current solutions attempt to address this limitation through domain-independent feature extraction or cross-domain feature translation, employing either knowledge-based sensing models or data-driven neural networks. However, these approaches typically require additional data collection or model retraining for new domains, significantly hindering their practical deployment. This paper proposes RF-Carer, a fully zero-effort cross-domain respiration monitoring system. Our key innovation lies in building an explainable propagation model to transform any heterogeneous signals under unknown domains into a unified form in the signal processing layer. To further address accidental irrelevant factors, we propose to align the feature spaces while suppressing the noisy ones with contrastive learning. On this basis, we develop a one-fits-all model that requires only one-time training but can adapt to 12 domains with 57 cases like unconstrained movements, unknown users, untrained environments, etc.. To the best of our knowledge, RF-Carer is the first zero-effort cross-domain respiration monitoring work with wireless RF signals and would be a fundamental step toward real-world deployments.
AB - Respiratory monitoring using wireless technologies has garnered significant attention for its potential in healthcare, smart cockpits, and various applications. Though extensively studied, existing systems face practical challenges in adapting to new data domains without substantial customization efforts. Current solutions attempt to address this limitation through domain-independent feature extraction or cross-domain feature translation, employing either knowledge-based sensing models or data-driven neural networks. However, these approaches typically require additional data collection or model retraining for new domains, significantly hindering their practical deployment. This paper proposes RF-Carer, a fully zero-effort cross-domain respiration monitoring system. Our key innovation lies in building an explainable propagation model to transform any heterogeneous signals under unknown domains into a unified form in the signal processing layer. To further address accidental irrelevant factors, we propose to align the feature spaces while suppressing the noisy ones with contrastive learning. On this basis, we develop a one-fits-all model that requires only one-time training but can adapt to 12 domains with 57 cases like unconstrained movements, unknown users, untrained environments, etc.. To the best of our knowledge, RF-Carer is the first zero-effort cross-domain respiration monitoring work with wireless RF signals and would be a fundamental step toward real-world deployments.
KW - Respiration monitoring
KW - RF sensing
KW - UWB
UR - https://www.scopus.com/pages/publications/105041170245
U2 - 10.1145/3774906.3800465
DO - 10.1145/3774906.3800465
M3 - 会议稿件
AN - SCOPUS:105041170245
T3 - SenSys 2026 - Proceedings of the 2026 ACM/IEEE International Conference on Embedded Artificial Intelligence and Sensing Systems, Part of CPS-IoTWeek 2026
SP - 876
EP - 889
BT - SenSys 2026 - Proceedings of the 2026 ACM/IEEE International Conference on Embedded Artificial Intelligence and Sensing Systems, Part of CPS-IoTWeek 2026
PB - Association for Computing Machinery, Inc
T2 - International Conference on Embedded Artificial Intelligence and Sensing Systems, SenSys 2026
Y2 - 11 May 2026 through 14 May 2026
ER -