Skip to main navigation
Skip to search
Skip to main content
PolyU Scholars Hub Home
Help & FAQ
Link opens in a new tab
Search content at PolyU Scholars Hub
Home
Researchers
Units
Research output
Prizes
Activities
Press/Media
Student theses
An eigenvector based center selection for fast training scheme of RBFNN
Yanxing Hu
,
Jia You
, James N.K. Liu
, Tiantian He
Department of Computing
The Hong Kong Polytechnic University
Research output
:
Journal article publication
›
Journal article
›
Academic research
›
peer-review
31
Link opens in a new tab
Citations (Scopus)
Overview
Fingerprint
Fingerprint
Dive into the research topics of 'An eigenvector based center selection for fast training scheme of RBFNN'. Together they form a unique fingerprint.
Sort by
Weight
Alphabetically
Keyphrases
Radial Basis Function Neural Network (RBFNN)
100%
Eigenvector
100%
Fast Training
100%
Center Selection
100%
Training Scheme
100%
Training Time
25%
K-means
25%
Feedforward Neural Network
12%
Gradient Method
12%
Feature Space
12%
Clustering Methods
12%
Neural Network Architecture
12%
Clustering Approach
12%
Calculation Process
12%
Data Matrix
12%
Iterative Calculation
12%
Comparable Accuracy
12%
Pseudoinverse Solution
12%
Popular
12%
Computer Science
Eigenvector
100%
radial base function neural network
100%
Radial Basis Function
71%
Neural Network Model
57%
k-means Clustering
28%
Feature Space
14%
Gradient Descent
14%
Calculation Process
14%
Neural Network Architecture
14%
Data Matrix
14%
Feedforward Neural Network
14%
clustering approach
14%
Principal Components
14%
Clustering Method
14%
Mathematics
Neural Network
100%
Basis Function
100%
Eigenvector
100%
Network Model
50%
Clustering Method
12%
Matrix
12%
Pseudoinverse
12%
Feature Space
12%
Principal Components
12%
Input Feature
12%
Engineering
Radial Basis Function
100%
Eigenvector
100%
Network Model
57%
Feedforward
14%
Input Feature
14%
Neural Network Architecture
14%
Inverse Solution
14%
Feature Space
14%
Gradient Descent
14%
Principal Components
14%
Chemical Engineering
Neural Network
100%
Feedforward Neural Network
14%