DocumentCode
3323224
Title
Ship equipment fault grade assessment model based on back propagation neural network and genetic algorithm
Author
Xie Li ; Wei Ru-xiang ; Hou Yue
Author_Institution
Dept. of Equip. Econ. & Manage., Naval Univ. of Eng., Wuhan
fYear
2008
fDate
10-12 Sept. 2008
Firstpage
211
Lastpage
218
Abstract
The factors that affect the ship equipment fault grade assessment are analyzed firstly, and then the fault grade assessment model is founded on the base of back propagation neural network. The genetic algorithm is used to quantify the value of the initial weight vector of neural network. Three methods that are gradient descent back propagation algorithm, momentum gradient descent back propagation algorithm and Levenberg-Marquard back propagation algorithm are used to train the neural network. Through lots of simulation calculation, the neural network simulation algorithm which is most adaptive to this special assessment problem and has the highest precision is found. Next, the methods through which can improve the assessment precision are given. In the end, the visualization forms of the neural network model which are compiled by Matlab and VB software is researched to improve the usability of the methods.
Keywords
backpropagation; genetic algorithms; marine engineering; neural nets; ships; Levenberg-Marquard back propagation algorithm; backpropagation neural network; genetic algorithm; gradient descent back propagation algorithm; momentum gradient descent back propagation algorithm; ship equipment fault grade assessment model; Conference management; Energy management; Engineering management; Genetic algorithms; Genetic engineering; Inspection; Marine vehicles; Mathematical model; Neural networks; Power engineering and energy; assessment; back propagation neural network; fault grade; genetic algorithm; ship equipment;
fLanguage
English
Publisher
ieee
Conference_Titel
Management Science and Engineering, 2008. ICMSE 2008. 15th Annual Conference Proceedings., International Conference on
Conference_Location
Long Beach, CA
Print_ISBN
978-1-4244-2387-3
Electronic_ISBN
978-1-4244-2388-0
Type
conf
DOI
10.1109/ICMSE.2008.4668918
Filename
4668918
Link To Document