Modeling the Energy Consumption of R600a Gas in a Refrigeration System with New Explainable Artificial Intelligence
Sinem Akyol1, Mehmet Das2, Bilal Alatas1
1Software Engineering Department, Engineering Faculty, Firat University, Elazig 23279, Turkey.
This study introduces a novel artificial intelligence method to model compressor energy consumption for R600a refrigerant gas. The explainable AI approach identifies optimal operating conditions for reduced energy use in vapor compression refrigeration systems.
Area of Science:
- Thermodynamics and Refrigeration Engineering
- Artificial Intelligence and Machine Learning
Background:
- Refrigerant gases are critical for cooling systems, with selection based on thermophysical properties and energy efficiency.
- Modeling refrigerant properties, including compressor energy consumption, using AI is a growing research area.
- Low global warming potential and energy consumption are key factors in choosing refrigerants.
Purpose of the Study:
- To develop explainable, interpretable, and transparent AI models for compressor energy consumption in R600a vapor compression refrigeration systems.
- To identify optimal operating conditions for minimizing energy consumption using a hybrid-optimization-based AI classification method.
- To apply a novel AI methodology for refrigerant gas energy consumption modeling.
Main Methods:
- Implementation of a hybrid-optimization-based artificial intelligence classification method.
- Development of models to predict R600a refrigerant gas energy consumption based on operating parameters.
- Analysis of system energy consumption relative to evaporator and condenser temperatures and pressures.
Main Results:
- The AI models accurately determine R600a energy consumption based on operating parameters.
- The method automatically reveals operating conditions that result in the lowest energy consumption.
- The developed models achieved an 84.4% accuracy when compared to experimental data.
Conclusions:
- The applied explainable AI method provides transparent and interpretable models for refrigerant energy consumption.
- This innovative approach enables the determination of optimal operating conditions for minimum energy consumption across different refrigerant gases.
- The study demonstrates the potential of AI in optimizing refrigeration system efficiency and environmental impact.
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