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Category-Based 802.11ax Target Wake Time Solution
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AI
DOI：10.1109/ACCESS.2021.3096940.png)
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摘要
En 中文
IEEE 802.11ax newly introduced Target Wake Time (TWT) function which enables joint reduction of device power consumption and wireless medium congestion through negotiated TWT wake interval and duration. We develop a novel solution which can dynamically configure station (STA) wake interval and duration based on run time recognition of the Quality of Service (QoS) requirement including the required latency and throughput. Specifically, a Machine Learning (ML) based Network Service Detection (NSD) module is developed which can detect the current network service in real time and update the STA wake interval according to the corresponding service latency requirement. Moreover, a novel data time estimation model is developed which can estimate the required throughput and wake duration with the observed throughput, linkspeed, and contention level. In addition, a state-machine based method is developed to detect three different traffic types (random, stable, bursty) and their throughput variation pattern for further optimization of the STA wake duration. Our solution is implemented and extensively tested on commercial smart mobile platform under various network conditions and use cases. The results show that our ML based NSD could reach 99.2% and 96.5% accuracy respectively for coarse-grain and fine-grain network service classification, which ensures our TWT solution can accurately recognize and satisfy the QoS requirements. More importantly, while maintaining the QoS and user experience, our solution can substantially reduce the Wi-Fi duty cycle to 29.6% on average, which leads to lower device power consumption and network contention level.
Keyword:
Throughput
Power demand
Quality of service
Wireless fidelity
Machine learning
IEEE 802
11ax Standard
Machine learning algorithms
802
11ax
target wake time
machine learning
service classification
traffic detection
期刊
IF:
3.6
论文数:
9.8W
被引数:
29.4W
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