Abstract
In Radial Basis Neural Networks (RBNN), the activation of each neuron depends on the Euclidean distance between a pattern and the neuron center. Such a symmetrical activation assumes that all attributes are equally relevant, which might not be true. Non-symmetrical distances like Mahalanobis can be used. However, this distance is computed directly from the data covariance matrix and therefore the accuracy of the learning algorithm is not taken into account. In this paper, we propose to use a Genetic Algorithm to search for a generalized Euclidean distance matrix, that minimizes the error produced by a RBNN.
Keywords
Cite this article
@article{cai-1620,
author = {José M. Valls and Ricardo Aler and Oscar Fernández},
title = {Evolving Generalized Euclidean Distances for Training RBNN},
journal = {Computing and Informatics},
volume = {26},
number = {1},
pages = {33--43},
year = {2007},
issn = {1335-9150},
url = {https://cai.type.sk/content/2007/1/evolving-generalized-euclidean-distances-for-training-rbnn/}
}
TY - JOUR AU - José M. Valls AU - Ricardo Aler AU - Oscar Fernández TI - Evolving Generalized Euclidean Distances for Training RBNN JO - Computing and Informatics VL - 26 IS - 1 SP - 33 EP - 43 PY - 2007 SN - 1335-9150 UR - https://cai.type.sk/content/2007/1/evolving-generalized-euclidean-distances-for-training-rbnn/ KW - Generalized distances KW - evolving distances KW - radial basis neural networks KW - genetic algorithms ER -
Valls, J. M., Aler, R., & Fernández, O. (2007). Evolving Generalized Euclidean Distances for Training RBNN. Computing and Informatics, 26(1), 33–43. https://cai.type.sk/content/2007/1/evolving-generalized-euclidean-distances-for-training-rbnn/