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E. Jorjani, Sh. Mesroghli, and S. Chehreh Chelgani, Prediction of operational parameters effect on coal flotation using artificial neural network, J. Univ. Sci. Technol. Beijing , 15(2008), No. 5, pp.528-533. https://dx.doi.org/10.1016/S1005-8850(08)60099-7
E. Jorjani, Sh. Mesroghli, and S. Chehreh Chelgani, Prediction of operational parameters effect on coal flotation using artificial neural network, J. Univ. Sci. Technol. Beijing , 15(2008), No. 5, pp.528-533. https://dx.doi.org/10.1016/S1005-8850(08)60099-7
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Prediction of operational parameters effect on coal flotation using artificial neural network

摘要: Artificial neural network procedures were used to predict the combustible value (i.e. 100-Ash) and combustible recovery of coal flotation concentrate in different operational conditions. The pulp density,pH,rotation rate,coal particle size,dosage of collector,frother and conditioner were used as inputs to the network. Feed-forward artificial neural networks with 5-30-2-1 and 7-10-3-1 arrangements were capable to estimate the combustible value and combustible recovery of coal flotation concentrate respectively as the outputs. Quite satisfactory correlations of 1 and 0.91 in training and testing stages for combustible value and of 1 and 0.95 in training and testing stages for combustible recovery prediction were achieved. The proposed neural network models can be used to determine the most advantageous operational conditions for the expected concentrate assay and recovery in the coal flotation process.

 

Prediction of operational parameters effect on coal flotation using artificial neural network

Abstract: Artificial neural network procedures were used to predict the combustible value (i.e. 100-Ash) and combustible recovery of coal flotation concentrate in different operational conditions. The pulp density,pH,rotation rate,coal particle size,dosage of collector,frother and conditioner were used as inputs to the network. Feed-forward artificial neural networks with 5-30-2-1 and 7-10-3-1 arrangements were capable to estimate the combustible value and combustible recovery of coal flotation concentrate respectively as the outputs. Quite satisfactory correlations of 1 and 0.91 in training and testing stages for combustible value and of 1 and 0.95 in training and testing stages for combustible recovery prediction were achieved. The proposed neural network models can be used to determine the most advantageous operational conditions for the expected concentrate assay and recovery in the coal flotation process.

 

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