Neuron Efficiency in Fluid Dynamics and Prediction of Groundwater Reservoirs'' Properties Using Pattern Recognition
The application of neural network using pattern recognition to study the fluid dynamics and predict the groundwater reservoirs properties has been used in this research. The essential of geophysical survey using the manual methods has failed in basement environment, hence the need for an intelligent computing such as predicted from neural network is inevitable. A non-linear neural network with an XOR (exclusive OR) output of 8-bits configuration has been used in this research to predict the nature of groundwater reservoirs and fluid dynamics of a typical basement crystalline rock. The control variables are the apparent resistivity of weathered layer (p1
), fractured layer (p2
), and the depth (h), while the dependent variable is the flow parameter (F=
λ). The algorithm that was used in training the neural network is the back-propagation coded in C++ language with 300 epoch runs. The neural network was very intelligent to map out the flow channels and detect how they behave to form viable storage within the strata. The neural network model showed that an important variable gr
(gravitational resistance) can be deduced from the elevation and apparent resistivity pa
. The model results from SPSS showed that the coefficients, a, b and c are statistically significant with reduced standard error at 5%.
 Amadi, U. M. P. and Nurudeen, S. I., 1990, Electromagnetic survey and the search for groundwater in the crystalline basement complex of Nigeria. Journal of Mining Geology, 26, 45 – 53.
 Liker A, Kose M, Ergin G, Terzi (2011) An artificial neural network Approach to study monthly rainfall estimate, IEEE publication.
 Floyd, Thomas L. (2003) Digital fundamentals. (8th ed.) New Jersey: Prentice Hall.
 Sayantani Bhattacharyya, Veronika E. Hubeny, Shiraz Minwalla, and Mukund Rangamani, (2008). "Nonlinear Fluid Dynamics from Gravity,” Journal of High Energy Physics.
 David W. Holmes, John R. Williams, Peter Tilker (2010) "Smooth particle hydrodynamics simulations of low Reynolds number flows through porous media" International Journal for Numerical and Geodynamics vol.35, pg.419-437.