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Published on: October 18, 2017
Performance predication of a solar assisted desiccant air conditioning system using radial basis function neural
Sibghat Ullah1,2, Muzaffar Ali1,3, Muhammad Fahad Sheikh4
1Mechanical Engineering Department, University of Engineering and Technology, Taxila, Pakistan.
This study developed a predictive model for a solar desiccant air conditioning system integrated with an M-cycle cooler. The Radial Basis Function Neural Network accurately predicted system performance, showing minimal deviation from experimental data.
Area of Science:
- Renewable Energy Systems
- HVAC Technology
- Artificial Intelligence in Engineering
Background:
- Solar desiccant air conditioning (Sol-DAC) systems offer a sustainable alternative for cooling by utilizing solar energy for regeneration.
- Integration with Maisotsenko cycle (M-cycle) indirect evaporative coolers enhances latent and sensible load handling capabilities.
- Accurate performance prediction is crucial for optimizing Sol-DAC system design and operation.
Purpose of the Study:
- To develop and validate a predictive model for a novel Sol-DAC system incorporating an M-cycle indirect evaporative cooler.
- To investigate the system's performance under various operating parameters using experimental data.
- To utilize Radial Basis Function Neural Network (RBF-NN) for predicting key system performance metrics.
Main Methods:
- A solar desiccant air conditioning system, featuring a cross-flow M-cycle indirect evaporative cooler and a desiccant wheel (DW), was experimentally evaluated.
- A solar evacuated tube electric heater provided regeneration temperature for the DW.
- A Radial Basis Function Neural Network (RBF-NN) was trained using nine input parameters and four output parameters (temperature, humidity, Cooling Capacity (CC), Coefficient of Performance (COP)) under transient conditions.
Main Results:
- The RBF-NN model demonstrated high accuracy in predicting system performance, with excellent Mean Squared Error (MSE) and Regression coefficient (R) values for all output parameters.
- Optimal predictions were achieved with a regeneration temperature of 70°C across various inlet humidity conditions.
- Experimental and predicted performance parameters showed close agreement, with minimal deviation, confirming the model's reliability.
Conclusions:
- The trained RBF-NN model effectively predicts the performance of the integrated Sol-DAC and M-cycle system under dynamic operating conditions.
- The predictive capability of the RBF-NN model is validated, offering a valuable tool for system analysis and optimization.
- The study highlights the potential of combining solar desiccant cooling with M-cycle technology for efficient and sustainable air conditioning.
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