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Estimation of Magnetic Field Intensity for the Magnetic Packed Beds Using Artificial Neural Networks


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Abstract


Magnetizing properties of the packed beds that are constructed from the stainless steel balls of various sizes are investigated in order to determine the effect of packing fraction factor, filter length, magnetic strength and diameter of the ball on the magnetizing properties of the bed. In this study, we have investigated the effect of the volumetric packing factor on the magnetizing properties of the magnetic packed bed using artificial neural networks. An ANN model was developed to predict the magnetic intensity. The back-propagation algorithm was employed for training and testing of the network, and the Levenberg Marquardt algorithm was utilized for optimization. The MATLAB 7.0 environment with Neural Network Toolbox was used for coding. Given the associated input parameters such as the external magnetic field strength (H), diameter of the balls (d), filter length (L) and packing fraction factor (γ), the model estimates the effect of the variation of the magnetic field intensity.
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Keywords


ANN; Magnetized Packed Bed; Magnetic Field Intensity

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References


Abbasov T., 2007, Magnetic filtration with magnetized granular beds: Basic principles and filter performance, China Particuology, 5 (1-2):71–83.

Friedlaender F. J., Takayasu M. A., 1982, Study of the Mechanism of Particle Build-Up on Single Ferromagnetic Wires and Spheres, IEEE Transactions on Magnetics, MAG-18 (3), 817-821.

Watson J.H.P., Watson S.J.P., 1983, The Ball Matrix Magnetic Separator, IEEE Trans. Magn.. MAG-19 (6), 2698-2704.

Tolmachev S. T., Fainshtein E. G., 1972, Average permeability of packing balls bed, Theoretical Electrotechnics, 14:144-151.

Karadağ T., Yıldız Z., Abbasov T., Sarımeşeli A., 2010, Estimation of Magnetization Properties of the Ferromagnetic Polly Granular Beds, J Dispersion Science Technology 31:6, 826-830.

Moyer C., Natenapit M., Arajs S., 1984, Particle capture by an assemblage of spheres in HGMS, J. Appl. Phys., 55, 2589-92.

Haykin, S., 1999, Neural networks, a comprehensive foundation, Prentice Hall Inc.

Golden R. M., 1996, Mathematical Methods for Neural Network Analysis and Design, MIT Press Cambridge: MA.

Jacobs R. A., 1988, Increased rates of convergence through learning rate adaptation, Neural Networks, 1: 295-307.

Morris A. J., Montague G. A. and Willis M. J., 1994, Artificial Neural Networks: Studies in Process Modelling and Control, Trans IChemE, 72A: 3-19.

Hagan T., Demuth H. B. and Beale M., 1996, Neural Network Design, Thomson Learning USA, Boston: PWS Publishing.

Grossberg S., 1988, Nonlinear neural networks: Principles, mechanisms and architectures, Neural Networks, 1(1): 17-61.

Yuceer, M., 2010, Artificial neural network models for HFCS isomerization process. NeuralComput&Applic, 19:976-986.

The Mathworks Inc. http://www.mathworks.com, 2003


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