arrow
Return

Self-organizing radial basis function neural network using accelerated second-order learning algorithm

delete2022-01-01
delete22
PRE
AI
H
Hong-Gui Han *
马
马苗立 (Miao-Li Ma)
杨宏燕 cover
杨宏燕 (Hongyan Yang)
J
Junfei Qiao
DOI:10.1016/j.neucom.2021.10.065delete
deleteOriginal
deleteOriginal request for help
deleteShare
deleteSave
Abstract

Abstract

En 中文
Gradient-based algorithms are commonly used for training radial basis function neural network (RBFNN). However, it is still difficult to avoid vanishing gradient to improve the learning performance in the training process. For this reason, in this paper, an accelerated second-order learning (ASOL) algorithm is developed to train RBFNN. First, an adaptive expansion and pruning mechanism (AEPM) of gradient space, based on the integrity and orthogonality of hidden neurons, is designed. Then, the effective gradient information is constantly added to gradient space and the redundant gradient information is eliminated from gradient space. Second, with AEPM, the neurons are generated or pruned accordingly. In this way, a self-organizing RBFNN (SORBFNN) which reduces the structure complexity and improves the generalization ability is obtained. Then, the structure and parameters in the learning process can be optimized by the proposed ASOL-based SORBFNN (ASOL-SORBFNN). Third, some theoretical analyses including the efficiency of the proposed AEPM on avoiding the vanishing gradient and the stability of SORBFNN in the process of structural adjustment are given, then the successful application of the proposed ASOL-SORBFNN is guaranteed. Finally, to illustrate the advantages of the proposed ASOL-SORBFNN, several experimental studies are examined. By comparing with other existing approaches, the results show that ASOLSORBFNN performs well in terms of both learning speed and prediction accuracy. (c) 2021 Elsevier B.V. All rights reserved.
Keywords:
Self-organizing radial basis function neural network (SORBFNN)
Adaptive expansion and pruning mechanism (AEPM) of gradient space
Accelerated second-order learning (ASOL)algorithm

Journal

Neurocomputing cover
Neurocomputing
IF:
6.5
Papers:
2.5W
Citations:
6.5W

Organization

B
Beijing University of Technology
Scholars:
2.8W
Papers: 2.1W
Citations: 2.7W
Cited Papers

Cited Papers

Experimental evaluation of vibration based damage identification techniques on a pedestrian bridge
errDYNA
IF0
err2019-04-01
err0
errOAAI
errAngélica María Panesso Libreros; Johannio Marulanda; Peter Thomson
errShare
errSave
err
IF0
err
err0
PREAI
err
errShare
errSave
Association of match running performance with and without ball possession to football performance
err2020-05-04
err0
PREAI
errDiego Brito Souza; Roberto López-Del Campo; Hugo Blanco-Pita; Ricardo Resta; Juan Del Coso
errShare
errSave
errShare
errSave
Efficient construction of sparse radial basis function neural networks using L1-regularization
err2017-10-01
err27
PREAI
errQian, Xusheng; Huang, He; Chen, Xiaoping; Huang, Tingwen
errShare
errSave
errShare
errSave
researcher View more