An adaptive predictive fuzzy logic for the altitude control of a micro-satellite

This paper deals with the attitude control of a micro-satellite in space using fuzzy logic principles. A micro-satellite in space can behave in an un-predictive way due the effect of variations in its system parameters and time delay. In order to reduce the effects of this unfavorable behavior, a pr...

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Main Authors: Ramachandran, Nagarajan, Pandiyan, Paulraj Murugesa, Prof. Madya Dr., Sazali, Yaacob, Prof. Dr., Zuraidah, Md Zain, Prof. Dr., Rusli, R.
Format: Article
Language:English
Published: Association pour la promotion des techniques de modelisation et de simulation dans l'entreprise Press 2010
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Online Access:http://dspace.unimap.edu.my/xmlui/handle/123456789/10345
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Institution: Universiti Malaysia Perlis
Language: English
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spelling my.unimap-103452013-11-20T04:21:32Z An adaptive predictive fuzzy logic for the altitude control of a micro-satellite Ramachandran, Nagarajan Pandiyan, Paulraj Murugesa, Prof. Madya Dr. Sazali, Yaacob, Prof. Dr. Zuraidah, Md Zain, Prof. Dr. Rusli, R. Adaptive system Fuzzy logic control Predictive control Satellite control This paper deals with the attitude control of a micro-satellite in space using fuzzy logic principles. A micro-satellite in space can behave in an un-predictive way due the effect of variations in its system parameters and time delay. In order to reduce the effects of this unfavorable behavior, a predictive adaptive form of a Mamdani type fuzzy logic controller (FLC) is introduced. A predictive controller is needed to compensate the effects of dead time which occurs in the microsatellite control system. The predictor estimates the required control at the next sampling time and applies to the system at the current sampling time. The adaptive portion of FLC compensates the effect of unknown variations of parameters in the satellite system by using an adaptable gain is connected in the forward path of the FLC. The response of the satellite is compared with that of a known reference model and an adaptive algorithm, derived on the basis of deviation in the responses, updates the adaptive gain. The adaptation continues until the micro-satellite attitude reaches the set-reference attitude. The performance of the predictive and adaptive satellite control system is demonstrated as stable and acceptable through a serious of simulation studies with added noises, disturbances and with measurement nonlinearities. 2010-11-30T03:23:20Z 2010-11-30T03:23:20Z 2009 Article Advances in Modelling and Analysis C, vol. 64 (1-2), 2009, pages 16-28 1240-4535 http://hdl.handle.net/123456789/10345 en Association pour la promotion des techniques de modelisation et de simulation dans l'entreprise Press
institution Universiti Malaysia Perlis
building UniMAP Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Malaysia Perlis
content_source UniMAP Library Digital Repository
url_provider http://dspace.unimap.edu.my/
language English
topic Adaptive system
Fuzzy logic control
Predictive control
Satellite control
spellingShingle Adaptive system
Fuzzy logic control
Predictive control
Satellite control
Ramachandran, Nagarajan
Pandiyan, Paulraj Murugesa, Prof. Madya Dr.
Sazali, Yaacob, Prof. Dr.
Zuraidah, Md Zain, Prof. Dr.
Rusli, R.
An adaptive predictive fuzzy logic for the altitude control of a micro-satellite
description This paper deals with the attitude control of a micro-satellite in space using fuzzy logic principles. A micro-satellite in space can behave in an un-predictive way due the effect of variations in its system parameters and time delay. In order to reduce the effects of this unfavorable behavior, a predictive adaptive form of a Mamdani type fuzzy logic controller (FLC) is introduced. A predictive controller is needed to compensate the effects of dead time which occurs in the microsatellite control system. The predictor estimates the required control at the next sampling time and applies to the system at the current sampling time. The adaptive portion of FLC compensates the effect of unknown variations of parameters in the satellite system by using an adaptable gain is connected in the forward path of the FLC. The response of the satellite is compared with that of a known reference model and an adaptive algorithm, derived on the basis of deviation in the responses, updates the adaptive gain. The adaptation continues until the micro-satellite attitude reaches the set-reference attitude. The performance of the predictive and adaptive satellite control system is demonstrated as stable and acceptable through a serious of simulation studies with added noises, disturbances and with measurement nonlinearities.
format Article
author Ramachandran, Nagarajan
Pandiyan, Paulraj Murugesa, Prof. Madya Dr.
Sazali, Yaacob, Prof. Dr.
Zuraidah, Md Zain, Prof. Dr.
Rusli, R.
author_facet Ramachandran, Nagarajan
Pandiyan, Paulraj Murugesa, Prof. Madya Dr.
Sazali, Yaacob, Prof. Dr.
Zuraidah, Md Zain, Prof. Dr.
Rusli, R.
author_sort Ramachandran, Nagarajan
title An adaptive predictive fuzzy logic for the altitude control of a micro-satellite
title_short An adaptive predictive fuzzy logic for the altitude control of a micro-satellite
title_full An adaptive predictive fuzzy logic for the altitude control of a micro-satellite
title_fullStr An adaptive predictive fuzzy logic for the altitude control of a micro-satellite
title_full_unstemmed An adaptive predictive fuzzy logic for the altitude control of a micro-satellite
title_sort adaptive predictive fuzzy logic for the altitude control of a micro-satellite
publisher Association pour la promotion des techniques de modelisation et de simulation dans l'entreprise Press
publishDate 2010
url http://dspace.unimap.edu.my/xmlui/handle/123456789/10345
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