Airspace sectorisation based on Voronoi diagrams

The increasing air traffic demand has called for more efficient methods of airspace sectorisation to prevent overloaded sectors. Overloaded sectors lead to congestion which can impose delays and traffic rerouting, resulting in billions of dollars lost every year. Airspace sectorisation partitioned t...

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Main Author: Ang, Ding Jie
Other Authors: Mao Jianfeng
Format: Final Year Project
Language:English
Published: 2016
Subjects:
Online Access:http://hdl.handle.net/10356/68603
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-686032023-03-04T18:24:12Z Airspace sectorisation based on Voronoi diagrams Ang, Ding Jie Mao Jianfeng School of Mechanical and Aerospace Engineering DRNTU::Engineering The increasing air traffic demand has called for more efficient methods of airspace sectorisation to prevent overloaded sectors. Overloaded sectors lead to congestion which can impose delays and traffic rerouting, resulting in billions of dollars lost every year. Airspace sectorisation partitioned the airspace into sectors such that workloads between sectors are balanced and total system cost is minimised. This work examined the use of Voronoi Diagrams and Genetic Algorithms to sectorise airspace. Two airspace sectorisation models were developed and test using flight data from a small airspace with modest traffic. The first model successfully balanced surveillance workload between sectors. However, multiple optimal solutions were obtained. The second one managed to minimise coordination workload, while balancing surveillance workload between sectors. With the inclusion of minimum distance constraint and minimum sector crossing time constraint, a particular unique solution type was obtained from the model. Through the implementation of these two models, the strength and weakness of using Voronoi Diagrams and Genetic Algorithm became clear. Using Voronoi Diagrams automatically fulfils the convexity and connectivity constrains, but unique solutions are usually not achievable as different site locations can give rise to sector boundaries that are essentially the same. Genetic Algorithm can be implemented with relative ease, but it does not scale well with complexity and the efficiency of the model can be significantly affected by the local optima problem. Bachelor of Engineering (Aerospace Engineering) 2016-05-30T02:06:11Z 2016-05-30T02:06:11Z 2016 Final Year Project (FYP) http://hdl.handle.net/10356/68603 en Nanyang Technological University 71 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering
spellingShingle DRNTU::Engineering
Ang, Ding Jie
Airspace sectorisation based on Voronoi diagrams
description The increasing air traffic demand has called for more efficient methods of airspace sectorisation to prevent overloaded sectors. Overloaded sectors lead to congestion which can impose delays and traffic rerouting, resulting in billions of dollars lost every year. Airspace sectorisation partitioned the airspace into sectors such that workloads between sectors are balanced and total system cost is minimised. This work examined the use of Voronoi Diagrams and Genetic Algorithms to sectorise airspace. Two airspace sectorisation models were developed and test using flight data from a small airspace with modest traffic. The first model successfully balanced surveillance workload between sectors. However, multiple optimal solutions were obtained. The second one managed to minimise coordination workload, while balancing surveillance workload between sectors. With the inclusion of minimum distance constraint and minimum sector crossing time constraint, a particular unique solution type was obtained from the model. Through the implementation of these two models, the strength and weakness of using Voronoi Diagrams and Genetic Algorithm became clear. Using Voronoi Diagrams automatically fulfils the convexity and connectivity constrains, but unique solutions are usually not achievable as different site locations can give rise to sector boundaries that are essentially the same. Genetic Algorithm can be implemented with relative ease, but it does not scale well with complexity and the efficiency of the model can be significantly affected by the local optima problem.
author2 Mao Jianfeng
author_facet Mao Jianfeng
Ang, Ding Jie
format Final Year Project
author Ang, Ding Jie
author_sort Ang, Ding Jie
title Airspace sectorisation based on Voronoi diagrams
title_short Airspace sectorisation based on Voronoi diagrams
title_full Airspace sectorisation based on Voronoi diagrams
title_fullStr Airspace sectorisation based on Voronoi diagrams
title_full_unstemmed Airspace sectorisation based on Voronoi diagrams
title_sort airspace sectorisation based on voronoi diagrams
publishDate 2016
url http://hdl.handle.net/10356/68603
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