In this paper, a Cellular Neural Network (CNN) has been applied to a magnet
ic regional/residual anomaly separation problem. CNN is an analog parallel
computing paradigm defined in space and characterized by the locality of co
nnections between processing neurons. The behavior of the CNN is defined by
the template matrices A, B and the template vector L We have optimized wei
ght coefficients of these templates using Recurrent Perceptron Learning Alg
orithm. (RPLA). The advantages of CNN as a real-time stochastic method are
that it introduces little distortion to the shape of the original image and
that it is not effected significantly by factors such as the overlap of po
wer spectra of residual fields. The proposed method is tested using synthet
ic examples and the average depth of the buried objects has been estimated
by power spectrum analysis. Next the CNN approach is applied to magnetic da
ta over the Golatan chromite mine in Elazig which lies East of Turkey. This
area is among the largest and richest chromite masses of the world. We com
pared the performance of CNN to classical derivative approaches.