An expert model for the prediction of water gases thermodynamic properties
Knowledge of the thermodynamic properties of water is necessary for the interpretation of physical and chemical processes. In the current research a new method based on artificial neural network (ANN) was applied for the prediction of water gases thermodynamic properties. The required data were coll...
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Veröffentlicht in: | Desalination and water treatment 2011-05, Vol.29 (1-3), p.285-293 |
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creator | Hosseini, S.M. Parvizian, F. Moghadassi, A.R. Sharifi, A. Adimi, M. Hashemi, S.J. |
description | Knowledge of the thermodynamic properties of water is necessary for the interpretation of physical and chemical processes. In the current research a new method based on artificial neural network (ANN) was applied for the prediction of water gases thermodynamic properties. The required data were collected and after pre-treating was used for training of ANN. Also the accuracy and trend stability of the trained networks were tested by it generalization ability in predicting of unseen data. The back-propagation learning algorithm, with different training methods such as scaled conjugate gradient (SCG), Levenberg–Marquardt (LM), gradient descent with momentum (GDM), variable learning rate back propagation (GDA) and resilient back propagation (RP) were used for the purpose. The SCG with seven neurons in the hidden layer showed the best performance with minimum mean square error of 0.0001517. Finally, ANN model performance was compared with classical thermodynamical models for the specific volume prediction of superheated water. Some equations of state such as Lee Kesler, NRTL, Soave–Redlich–Kwong and Peng–Robinson were used for the purpose. The comparisons showed the ANN capability for prediction of the thermodynamic properties of water gases. |
doi_str_mv | 10.5004/dwt.2011.1494 |
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In the current research a new method based on artificial neural network (ANN) was applied for the prediction of water gases thermodynamic properties. The required data were collected and after pre-treating was used for training of ANN. Also the accuracy and trend stability of the trained networks were tested by it generalization ability in predicting of unseen data. The back-propagation learning algorithm, with different training methods such as scaled conjugate gradient (SCG), Levenberg–Marquardt (LM), gradient descent with momentum (GDM), variable learning rate back propagation (GDA) and resilient back propagation (RP) were used for the purpose. The SCG with seven neurons in the hidden layer showed the best performance with minimum mean square error of 0.0001517. Finally, ANN model performance was compared with classical thermodynamical models for the specific volume prediction of superheated water. Some equations of state such as Lee Kesler, NRTL, Soave–Redlich–Kwong and Peng–Robinson were used for the purpose. 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In the current research a new method based on artificial neural network (ANN) was applied for the prediction of water gases thermodynamic properties. The required data were collected and after pre-treating was used for training of ANN. Also the accuracy and trend stability of the trained networks were tested by it generalization ability in predicting of unseen data. The back-propagation learning algorithm, with different training methods such as scaled conjugate gradient (SCG), Levenberg–Marquardt (LM), gradient descent with momentum (GDM), variable learning rate back propagation (GDA) and resilient back propagation (RP) were used for the purpose. The SCG with seven neurons in the hidden layer showed the best performance with minimum mean square error of 0.0001517. Finally, ANN model performance was compared with classical thermodynamical models for the specific volume prediction of superheated water. Some equations of state such as Lee Kesler, NRTL, Soave–Redlich–Kwong and Peng–Robinson were used for the purpose. 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In the current research a new method based on artificial neural network (ANN) was applied for the prediction of water gases thermodynamic properties. The required data were collected and after pre-treating was used for training of ANN. Also the accuracy and trend stability of the trained networks were tested by it generalization ability in predicting of unseen data. The back-propagation learning algorithm, with different training methods such as scaled conjugate gradient (SCG), Levenberg–Marquardt (LM), gradient descent with momentum (GDM), variable learning rate back propagation (GDA) and resilient back propagation (RP) were used for the purpose. The SCG with seven neurons in the hidden layer showed the best performance with minimum mean square error of 0.0001517. Finally, ANN model performance was compared with classical thermodynamical models for the specific volume prediction of superheated water. Some equations of state such as Lee Kesler, NRTL, Soave–Redlich–Kwong and Peng–Robinson were used for the purpose. The comparisons showed the ANN capability for prediction of the thermodynamic properties of water gases.</abstract><cop>L'Aquila</cop><pub>Elsevier Inc</pub><doi>10.5004/dwt.2011.1494</doi><tpages>9</tpages><oa>free_for_read</oa></addata></record> |
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subjects | Algorithms Applied sciences Artificial neural network Artificial neural networks Back propagation Density Equation of state Equations of state Exact sciences and technology Gases Learning Learning theory Machine learning Mathematical models Momentum Neural networks Pollution Prediction Predictions Propagation Properties Specific volume Stability Thermal properties Thermodynamic properties Training Water Water gases Water treatment and pollution |
title | An expert model for the prediction of water gases thermodynamic properties |
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