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Integration of machine learning with complex industrial mining systems for reduced energy consumption
Michael David Harmse1, Jean Herman van Laar1, Wiehan Adriaan Pelser1
1Department of Industrial Engineering, Stellenbosch University, Stellenbosch, South Africa.
Frontiers in Artificial Intelligence
|August 15, 2022
Summary
Machine learning models predict underground mine refrigeration-ventilation system behavior, even without continuous sensors. Support Vector Machines offer significant energy savings, demonstrating the potential of AI in optimizing mining operations.
Area of Science:
- Mining Engineering
- Artificial Intelligence
- Industrial Control Systems
Background:
- Deep-level mining faces declining profitability due to rising costs and reduced output.
- Implementing Internet of Things (IoT) technologies is challenging in underground mines owing to complex, integrated systems and lack of dynamic control.
- Refrigeration and ventilation systems are critical but often controlled independently, hindering energy efficiency and production optimization.
Purpose of the Study:
- To develop and compare machine learning (ML) prediction techniques for the integrated behavior of a key component in the refrigeration-ventilation system.
- To address the challenge of lacking continuous measurements for critical components.
- To evaluate ML models based on accuracy, prediction time, and data requirements.
Main Methods:
- Development of industrial machine learning models to predict system behavior without direct sensor data.
- Comparison of various ML techniques, including Support Vector Machines (SVM) and Artificial Neural Networks (ANN).
- Evaluation of model performance based on prediction accuracy, speed, and data volume.
Main Results:
- The Support Vector Machines (SVM) method achieved the lowest average error at 1.97%.
- The Artificial Neural Network (ANN) method demonstrated greater robustness with a maximum percentage error of 12.90%.
- Potential annual energy savings of 215 kW (2.9%) for the ventilation and refrigeration system, equating to R1.33 million ($82,900), are achievable with SVM.
Conclusions:
- Machine learning models can effectively predict the integrated behavior of critical mining components despite data limitations.
- The SVM approach shows significant promise for optimizing energy consumption in underground mining's refrigeration-ventilation systems.
- AI-driven predictive modeling offers a viable strategy to enhance efficiency and profitability in the deep-level mining industry.
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