Conflict-free trajectory planning based on the model predictive control theory

Model Predictive Control (MPC) is a model-based control method based on a receding horizon approach and online optimization. A key advantage of MPC is that it can accommodate constraints on the inputs and outputs. This paper proposes a max-plus general modeling framework adapted to the robust optima...

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Main Authors: Han Yun-xiang, Huang Xiao-qiong
Format: Article
Language:English
Published: Faculty of Transport, Warsaw University of Technology 2016-03-01
Series:Archives of Transport
Subjects:
Online Access:http://aot.publisherspanel.com/gicid/01.3001.0010.1150
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spelling doaj-73550cf2a91845a9bcb3c49d0f4869222020-12-29T12:38:21ZengFaculty of Transport, Warsaw University of TechnologyArchives of Transport0866-95462300-88302016-03-01371778510.5604/08669546.120320501.3001.0010.1150Conflict-free trajectory planning based on the model predictive control theoryHan Yun-xiang0Huang Xiao-qiong1Jiangsu University of Technology, School of automobile and traffic engineering, Changzhou, P.R ChinaJiangsu University of Technology, School of business, Changzhou, P.R ChinaModel Predictive Control (MPC) is a model-based control method based on a receding horizon approach and online optimization. A key advantage of MPC is that it can accommodate constraints on the inputs and outputs. This paper proposes a max-plus general modeling framework adapted to the robust optimal control of air traffic flow in the airspace. It is shown that the problem can be posed as the control of queues with safety separation-dependent service rate. We extend MPC to a class of discrete-event system that can be described by models that are linear in the max-plus algebra with noise or modeling errors. Regarding the single aircraft as a batch, the relationships between input variables, state variables and output variable are established. We discuss some key properties of the system model and indicate how these properties can be used to analyze the behavior of air traffic flow. The model predictive control design problems are defined for this type of discrete event system to help prepare the airspace for various robust regulation needs and we give some extensions of the air traffic max-plus linear systems. http://aot.publisherspanel.com/gicid/01.3001.0010.1150civil aviationair transportationaircraftair traffic controlseparationtrajectories
collection DOAJ
language English
format Article
sources DOAJ
author Han Yun-xiang
Huang Xiao-qiong
spellingShingle Han Yun-xiang
Huang Xiao-qiong
Conflict-free trajectory planning based on the model predictive control theory
Archives of Transport
civil aviation
air transportation
aircraft
air traffic control
separation
trajectories
author_facet Han Yun-xiang
Huang Xiao-qiong
author_sort Han Yun-xiang
title Conflict-free trajectory planning based on the model predictive control theory
title_short Conflict-free trajectory planning based on the model predictive control theory
title_full Conflict-free trajectory planning based on the model predictive control theory
title_fullStr Conflict-free trajectory planning based on the model predictive control theory
title_full_unstemmed Conflict-free trajectory planning based on the model predictive control theory
title_sort conflict-free trajectory planning based on the model predictive control theory
publisher Faculty of Transport, Warsaw University of Technology
series Archives of Transport
issn 0866-9546
2300-8830
publishDate 2016-03-01
description Model Predictive Control (MPC) is a model-based control method based on a receding horizon approach and online optimization. A key advantage of MPC is that it can accommodate constraints on the inputs and outputs. This paper proposes a max-plus general modeling framework adapted to the robust optimal control of air traffic flow in the airspace. It is shown that the problem can be posed as the control of queues with safety separation-dependent service rate. We extend MPC to a class of discrete-event system that can be described by models that are linear in the max-plus algebra with noise or modeling errors. Regarding the single aircraft as a batch, the relationships between input variables, state variables and output variable are established. We discuss some key properties of the system model and indicate how these properties can be used to analyze the behavior of air traffic flow. The model predictive control design problems are defined for this type of discrete event system to help prepare the airspace for various robust regulation needs and we give some extensions of the air traffic max-plus linear systems.
topic civil aviation
air transportation
aircraft
air traffic control
separation
trajectories
url http://aot.publisherspanel.com/gicid/01.3001.0010.1150
work_keys_str_mv AT hanyunxiang conflictfreetrajectoryplanningbasedonthemodelpredictivecontroltheory
AT huangxiaoqiong conflictfreetrajectoryplanningbasedonthemodelpredictivecontroltheory
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