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Link Quality Estimation for Wireless ANDON Towers Based on Deep Learning Models
Teth Azrael Cortes-Aguilar1, Jose Antonio Cantoral-Ceballos2, Adriana Tovar-Arriaga3
1Centro de Tecnologia Avanzada, CIATEQ A.C., Jalisco 45131, Mexico.
Sensors (Basel, Switzerland)
|September 9, 2022
Summary
This study introduces a deep learning model for predicting wireless link quality (LQE) in industrial settings. The model achieves 99.3% accuracy, enabling cost-effective remote sensing and early failure detection for enhanced industrial monitoring.
Area of Science:
- Industrial IoT and Machine Learning
- Wireless Sensor Networks
Background:
- Data reliability is crucial for industrial decision-making.
- Wireless sensor networks (WSNs) are vital for process and machine monitoring.
- ANDON towers with wireless transmission and machine learning can predict link quality (LQE).
Purpose of the Study:
- To propose a deep learning model for LQE prediction suitable for resource-limited industrial environments.
- To enable low-cost remote sensing and early failure detection in industrial settings.
- To develop a novel paradigm for ANDON towers using alarm signals and LQE classification.
Main Methods:
- Collected a novel dataset from a realistic industrial machinery scenario.
- Utilized a deep learning model optimized for limited computational resources.
- Performed extensive data analyses with methodical hyper-parameter tuning across various machine learning models.
Main Results:
- Achieved 99.3% accuracy on the test dataset.
- Identified key features like payload, distance, power, and bit error rate for LQE prediction.
- Demonstrated high performance with minimal computational resource utilization.
Conclusions:
- The proposed deep learning model offers an effective solution for LQE prediction in industrial environments.
- This approach facilitates cost-effective remote sensing and proactive problem prevention.
- The findings advance the state of the art in industrial wireless communication and machine learning applications.

