DocumentCode
533237
Title
Fuzzy support vector machine based on feature- data huffman compression
Author
Tang, Jing ; Hu, Yun´an ; Lin, Tao
Author_Institution
Dept. of Control Eng., Naval Aeronaut. Eng. Inst. Acad., Yantai, China
Volume
11
fYear
2010
fDate
22-24 Oct. 2010
Abstract
More and more state variables in the case, the filter state variables, and identify operating modes means that the state collect and spend a lot of computing time, which lost control of real-time. And contains a lot of noise in electronic devices such as exceptions, these factors will influence the support vector machine to establish the optimal classification surface. High-frequency signal conversion equipment needs in the shortest possible time, alarm, address this requirement, we use a Huffman coding on the control signal compression, Then use a Kernel density estimation method, a structural form of fuzzy membership function, the membership function applied to the fuzzy support vector machines for fault diagnosis, This method can eliminate the characteristics of the impact of noise and outliers, through training support vector machines, we can get fault diagnosis model to realize the failure of electronic equipment, diagnostic classification. The method is applied to high-frequency signal conversion equipment for fault diagnosis, the results show that the compression algorithm used to retain equipment operation to the maximum extent, while greatly reducing the information processing time, Fuzzy support vector functions highlight the different characteristics of fault and correctly diagnose the fault type and effective, this method of fault diagnosis of electronic devices to provide a new way.
Keywords
Huffman codes; condition monitoring; data compression; fault diagnosis; fuzzy set theory; signal processing; support vector machines; Huffman coding; Huffman compression; control signal compression; diagnostic classification; electronic device; electronic equipment; equipment operation; fault diagnosis; filter state variable; fuzzy membership function; fuzzy support vector machine; high-frequency signal conversion equipment; kernel density estimation; optimal classification surface; Bandwidth; Circuit faults; Fault diagnosis; Kernel; Monitoring; Noise; Support vector machines; Fault Diagnosis; Huffman compression principle; Kernel Density Function; Realtime Monitoring; fuzzy support vector machine;
fLanguage
English
Publisher
ieee
Conference_Titel
Computer Application and System Modeling (ICCASM), 2010 International Conference on
Conference_Location
Taiyuan
Print_ISBN
978-1-4244-7235-2
Electronic_ISBN
978-1-4244-7237-6
Type
conf
DOI
10.1109/ICCASM.2010.5623229
Filename
5623229
Link To Document