Title
A concise functional neural network for computing the extremum eigenpairs of real symmetric matrices
Abstract
Quick extraction of the extremum eigenpairs of a real symmetric matrix is very important in engineering. Using neural networks to complete this operation is in a parallel manner and can achieve high performance. So, this paper proposes a very concise functional neural network (FNN) to compute the largest (or smallest) eigenvalue and one corresponding eigenvector. After transforming the FNN into a differential equation, and obtaining the analytic solution, the convergence properties are completely analyzed. By this FNN, the method that can compute the extremum eigenpairs whether the matrix is non-definite, positive definite or negative definite is designed. Finally, three examples show the validity. Comparing with the other ones used in the same field, the proposed FNN is very simple and concise, so it is very easy to realize.
Year
DOI
Venue
2006
10.1007/11759966_61
ISNN (1)
Keywords
Field
DocType
convergence property,extremum eigenpairs,real symmetric matrix,proposed fnn,differential equation,neural network,analytic solution,corresponding eigenvector,high performance,concise functional neural network,eigenvectors,symmetric matrices,positive definite,symmetric matrix
Convergence (routing),Differential equation,Computer science,Matrix (mathematics),Positive-definite matrix,Recurrent neural network,Algorithm,Symmetric matrix,Artificial neural network,Eigenvalues and eigenvectors
Conference
Volume
ISSN
ISBN
3971
0302-9743
3-540-34439-X
Citations 
PageRank 
References 
1
0.71
11
Authors
2
Name
Order
Citations
PageRank
Yiguang Liu133837.15
Zhisheng You241752.22