Wi-Fi Performance and Reliability in Industrial Environments

The field of Wi-Fi research is moving towards improving the performance and reliability of Wi-Fi networks in industrial environments. This is driven by the increasing demand for low-latency and continuous operation in such settings. Researchers are exploring the use of deep learning models to predict Wi-Fi performance metrics, such as the Frame Delivery Ratio, and to adapt to changing network conditions. Additionally, there is a focus on developing more precise clock synchronization protocols, such as Reference Broadcast Infrastructure Synchronization, to ensure determinism in industrial networks.

Noteworthy papers include: On the Prediction of Wi-Fi Performance through Deep Learning, which presents a comparison of two deep learning models for predicting the Frame Delivery Ratio. Widening the Coverage of Reference Broadcast Infrastructure Synchronization in Wi-Fi Networks, which proposes an evolution of the RBIS protocol to increase its coverage area. Wi-Fi Rate Adaptation for Moving Equipment in Industrial Environments, which evaluates the performance of the Minstrel rate adaptation algorithm in industrial scenarios. Performance Evaluation of Parallel Wi-Fi Redundancy with Deferral Techniques, which analyzes the use of parallel redundancy to improve the dependability of Wi-Fi networks. Machine Learning to Predict Slot Usage in TSCH Wireless Sensor Networks, which proposes the use of machine learning to improve the energy efficiency of wireless sensor networks.

Sources

On the Prediction of Wi-Fi Performance through Deep Learning

Widening the Coverage of Reference Broadcast Infrastructure Synchronization in Wi-Fi Networks

Wi-Fi Rate Adaptation for Moving Equipment in Industrial Environments

Performance Evaluation of Parallel Wi-Fi Redundancy with Deferral Techniques

Machine Learning to Predict Slot Usage in TSCH Wireless Sensor Networks

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