DocumentCode
710727
Title
Autonomous controller design for an orbital debris chaser craft
Author
Labrado, J. ; Benavidez, P. ; Jamshidi, Mo
Author_Institution
Dept. of Electr. & Comput. Eng., Univ. of Texas at San Antonio, San Antonio, TX, USA
fYear
2015
fDate
13-16 April 2015
Firstpage
589
Lastpage
594
Abstract
Space is starting to become very crowded mostly in low earth orbit (LEO). Current projections are showing that without active debris removal (ADR) missions manned and unmanned operations in LEO will become in danger of collisions. While research is being done on removal techniques most approaches involve human pilots and/or are planned for a single use. A more effective solution in the long run would be to have a multi-use crafts that could navigate to rendezvous with multiple targets for de-orbiting. The purpose of this paper is to compare two different types of controllers used on a simulated nonlinear active satellite system to rendezvous with a certain target in orbit. The two types of controllers that are compared are a state feedback controller and a Fuzzy Logic Controller (FLC). Initial conditions are provided to the controller at first in order to ensure each controller works in a variety of start points. Simulations for both controllers are performed to compare operation while attempting to rendezvous with the target location. The simulation results provide details on the different strengths for both types of controllers that could be applied to different missions. One main result of this paper is that the State Feedback controller was able to reach the target location quicker but the FLC had a much smoother approach. Further detail on the results is presented in this paper.
Keywords
aerospace control; aerospace navigation; control system synthesis; fuzzy control; nonlinear control systems; space debris; state feedback; FLC; LEO; autonomous controller design; fuzzy logic controller; low earth orbit; orbital debris chaser craft; simulated nonlinear active satellite system; state feedback controller; Backstepping; Earth; Fuzzy logic; Low earth orbit satellites; Mathematical model; Orbits; Space vehicles; Autonomous Rendezvous; Backstepping Controller; Fuzzy Logic; orbital debris;
fLanguage
English
Publisher
ieee
Conference_Titel
Systems Conference (SysCon), 2015 9th Annual IEEE International
Conference_Location
Vancouver, BC
Type
conf
DOI
10.1109/SYSCON.2015.7116815
Filename
7116815
Link To Document