WiFi-based Multi-task Sensing
Xie Zhang, Chengpei Tang, Yasong An, Kang Yin

TL;DR
This paper introduces Wimuse, a WiFi-based multi-task sensing model that simultaneously performs gesture recognition, indoor localization, and user identification, addressing challenges of task imbalance and discrepancy with knowledge distillation and residual adaptors.
Contribution
The paper proposes Wimuse, the first multi-task WiFi sensing model that effectively handles multiple sensing tasks with different difficulties and specific information requirements.
Findings
Achieves state-of-the-art accuracy on three public datasets.
Effectively addresses task imbalance and discrepancy issues.
Demonstrates high accuracy in all three sensing tasks.
Abstract
WiFi-based sensing has aroused immense attention over recent years. The rationale is that the signal fluctuations caused by humans carry the information of human behavior which can be extracted from the channel state information of WiFi. Still, the prior studies mainly focus on single-task sensing (STS), e.g., gesture recognition, indoor localization, user identification. Since the fluctuations caused by gestures are highly coupling with body features and the user's location, we propose a WiFi-based multi-task sensing model (Wimuse) to perform gesture recognition, indoor localization, and user identification tasks simultaneously. However, these tasks have different difficulty levels (i.e., imbalance issue) and need task-specific information (i.e., discrepancy issue). To address these issues, the knowledge distillation technique and task-specific residual adaptor are adopted in Wimuse.…
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Taxonomy
TopicsIndoor and Outdoor Localization Technologies · Wireless Networks and Protocols · Speech and Audio Processing
MethodsKnowledge Distillation
