The importance of the application of pattern recognition for image recognition becomes apparent when the number and complexity of images increases. Artificial neural networks have proven their effectiveness in tackling complex pattern problems in the last fifteen years or so and have evolved into deep, hybrid architectures. The construction of neural networks is divided into two stages; the training stage and the test stage, in these stages expert knowledge is needed for the selection and adjustment of the parameters of the neural networks.In this work we present the implementation of a system that optimizes the parameters of a deep neural network based on the state of the art by means of evolutionary computation and parallel computation. This deep Coarse-Fine neural network performs a parallel feeding of the patterns at different levels of granularity: fine, medium and coarse; seeking to form an analysis of the robust characteristic pattern applied to image recognition and classification. We have modified and oriented the deep network from which we started, from patterns of recognition of human activities (HAR), towards attacking the complexity of the images, with promising results of 99 % recognition in the tests carried out with the database MNIST.Two versions of the system were made; Sequential Evolutionary Algorithm and Parallel Evolutionary Algorithm, the latter based on the message passing communication model, using the MPI protocol. In addition, the use of graphic cards (GPU) and multiprocessor computer for the massive handling of operations. We end with a set of system tests with different mechanisms applied to the system, analyzing and comparing the results with the state of the art.