NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME

In this study, a neural network assisted real-time controller has been designed for highly nonlinear quadrotor orientation control. As controlled dynamic system, a highly nonlinear quadrotor model were used in this study. The controller has been designed with neural networks for Quadrotor attitude a...

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Main Authors: Mustafa Albayrak, Aydemir Arısoy
Format: Article
Language:English
Published: Hezarfen Aeronautics and Space Technologies Institue 2013-07-01
Series:Havacılık ve Uzay Teknolojileri Dergisi
Subjects:
Online Access:http://www.jast.hho.edu.tr/JAST/index.php/JAST/article/view/182/170
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spelling doaj-9b52893730dd4256a0b4ec671f0a6bb92020-11-25T01:11:10ZengHezarfen Aeronautics and Space Technologies InstitueHavacılık ve Uzay Teknolojileri Dergisi1304-04481304-04482013-07-016217NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIMEMustafa Albayrak0Aydemir Arısoy1Turkish Air Force Academy ASTINTurkish Air Force AcademyIn this study, a neural network assisted real-time controller has been designed for highly nonlinear quadrotor orientation control. As controlled dynamic system, a highly nonlinear quadrotor model were used in this study. The controller has been designed with neural networks for Quadrotor attitude and trajectory control, and this controller’s performance was compared against the classical PID controller’s performance. These controllers for dynamic systems performance evaluations were made with the help of real-time experimental setup. Attitude and trajectory controls have done for designed controllers performance evaluation. Neural network performance was compared against the classical PID controller which was designed in the same experimental setup. Designed controllers robustness was tested with pulse inputs. We observed that neural network assisted controller was more succesful than PID controller in more complicated nonlinear dynamic systems, both in attitude and trajectory control performance. We comment that with today’s microcontroller technology, neural networks are faster and more simple for designing controllers for highly nonlinear dynamic systems.http://www.jast.hho.edu.tr/JAST/index.php/JAST/article/view/182/170Artificial Neural NetworksQuadrotorReal Time Hardware in the Loop Simulation
collection DOAJ
language English
format Article
sources DOAJ
author Mustafa Albayrak
Aydemir Arısoy
spellingShingle Mustafa Albayrak
Aydemir Arısoy
NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME
Havacılık ve Uzay Teknolojileri Dergisi
Artificial Neural Networks
Quadrotor
Real Time Hardware in the Loop Simulation
author_facet Mustafa Albayrak
Aydemir Arısoy
author_sort Mustafa Albayrak
title NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME
title_short NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME
title_full NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME
title_fullStr NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME
title_full_unstemmed NEURAL NETWORK CONTROLLER DESIGN FOR QUADROTOR IN REAL TIME
title_sort neural network controller design for quadrotor in real time
publisher Hezarfen Aeronautics and Space Technologies Institue
series Havacılık ve Uzay Teknolojileri Dergisi
issn 1304-0448
1304-0448
publishDate 2013-07-01
description In this study, a neural network assisted real-time controller has been designed for highly nonlinear quadrotor orientation control. As controlled dynamic system, a highly nonlinear quadrotor model were used in this study. The controller has been designed with neural networks for Quadrotor attitude and trajectory control, and this controller’s performance was compared against the classical PID controller’s performance. These controllers for dynamic systems performance evaluations were made with the help of real-time experimental setup. Attitude and trajectory controls have done for designed controllers performance evaluation. Neural network performance was compared against the classical PID controller which was designed in the same experimental setup. Designed controllers robustness was tested with pulse inputs. We observed that neural network assisted controller was more succesful than PID controller in more complicated nonlinear dynamic systems, both in attitude and trajectory control performance. We comment that with today’s microcontroller technology, neural networks are faster and more simple for designing controllers for highly nonlinear dynamic systems.
topic Artificial Neural Networks
Quadrotor
Real Time Hardware in the Loop Simulation
url http://www.jast.hho.edu.tr/JAST/index.php/JAST/article/view/182/170
work_keys_str_mv AT mustafaalbayrak neuralnetworkcontrollerdesignforquadrotorinrealtime
AT aydemirarısoy neuralnetworkcontrollerdesignforquadrotorinrealtime
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