DocumentCode :
3190731
Title :
Research on the Hierarchical Supervisory Control of Underwater Glider
Author :
Zhang, Yu ; Tian, Jiaping ; Su, Donghai ; Wang, Shijie
Author_Institution :
Sch. of Mech. Eng., Shenyang Univ. of Technol.
fYear :
2006
fDate :
9-15 Oct. 2006
Firstpage :
5509
Lastpage :
5513
Abstract :
An underwater glider is a buoyancy-propelled and fixed-wing vehicle with attitude controlled completely by means of internal mass redistribution. In order to independently accomplish complex missions in unstructured and unknown oceanic environment, intelligent control system is needed to provide the underwater glider with the ability of active autonomy. Based on the RW (Ramadge & Wonham) supervisory control theory of discrete event dynamic system (DEDS), a three-level hierarchical supervisory control architecture for underwater glider is presented. The DEDS formalism models of underwater glider in terms of finite state automata (FSA) are built, and the realization of the hierarchical supervisory control (HSC) system is brought forth in detail. The simulation result shows that the three-level supervisory control system can adapt to uncertain undersea environment, and makes reasonable planning
Keywords :
attitude control; discrete event systems; hierarchical systems; intelligent control; planning (artificial intelligence); time-varying systems; uncertain systems; underwater vehicles; active autonomy; attitude control; buoyancy-propelled vehicles; discrete event dynamic systems; finite state automata; fixed-wing vehicles; intelligent control systems; internal mass redistribution; oceanic environment; reasonable planning; three-level hierarchical supervisory control architecture; uncertain undersea environment; underwater gliders; Attitude control; Automata; Control systems; Domestic safety; Intelligent control; Oceans; Power system planning; Supervisory control; Underwater vehicles; Vehicle dynamics; Discrete event dynamic system; Hierarchical supervisory control; Intelligence control architecture; RW supervisory control theory; Underwater glider;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Intelligent Robots and Systems, 2006 IEEE/RSJ International Conference on
Conference_Location :
Beijing
Print_ISBN :
1-4244-0258-1
Electronic_ISBN :
1-4244-0259-X
Type :
conf
DOI :
10.1109/IROS.2006.282186
Filename :
4059306
Link To Document :
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