Fluctuations in airport arrival and departure traffic: A network analysis

Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival and departure traffic, form complicated spatial and temporal dynamics. The fluctuations of airport arrival and departure traffic are studied...

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Published inChinese physics B Vol. 21; no. 8; pp. 584 - 589
Main Author 李善梅 徐肖豪 孟令航
Format Journal Article
LanguageEnglish
Published 01.08.2012
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Abstract Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival and departure traffic, form complicated spatial and temporal dynamics. The fluctuations of airport arrival and departure traffic are studied from the point of view of networks as the special correlation between different airports. Our collected flow volume data on the time-dependent activity of US airport arrival and departure traffic indicate that the coupling between the average flux and the fluctuation of an individual airport obeys a certain scaling law with a wide variety of scaling exponents between 1/2 and 1. These scaling phenomena can explain the interaction between the airport internal dynamics (e.g. queuing at airports, a ground delay program and following flying traffic) and a change in the external (network-wide) traffic demand (e.g. an increase in traffic during peak hours every day), allowing us to further understand the mechanisms governing the collective behaviour of the transportation system. We separate internal dynamics from external fluctuations using a scaling law which is helpful for us to systematically determine the origin of fluctuations in airport arrival and departure traffic, uncovering the collective dynamics. Hot spot features are observed in airport traffic data as the dynamical inhomogeneity in the fluxes of individual airports. The intrinsic characteristics of airport arrival and departure traffic under severe weather is discussed as well.
AbstractList Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival and departure traffic, form complicated spatial and temporal dynamics. The fluctuations of airport arrival and departure traffic are studied from the point of view of networks as the special correlation between different airports. Our collected flow volume data on the time-dependent activity of US airport arrival and departure traffic indicate that the coupling between the average flux and the fluctuation of an individual airport obeys a certain scaling law with a wide variety of scaling exponents between 1/2 and 1. These scaling phenomena can explain the interaction between the airport internal dynamics (e.g. queuing at airports, a ground delay program and following flying traffic) and a change in the external (network-wide) traffic demand (e.g. an increase in traffic during peak hours every day), allowing us to further understand the mechanisms governing the collective behaviour of the transportation system. We separate internal dynamics from external fluctuations using a scaling law which is helpful for us to systematically determine the origin of fluctuations in airport arrival and departure traffic, uncovering the collective dynamics. Hot spot features are observed in airport traffic data as the dynamical inhomogeneity in the fluxes of individual airports. The intrinsic characteristics of airport arrival and departure traffic under severe weather is discussed as well.
Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival and departure traffic, form complicated spatial and temporal dynamics. The fluctuations of airport arrival and departure traffic are studied from the point of view of networks as the special correlation between different airports. Our collected flow volume data on the time-dependent activity of US airport arrival and departure traffic indicate that the coupling between the average flux and the fluctuation of an individual airport obeys a certain scaling law with a wide variety of scaling exponents between 1/2 and 1. These scaling phenomena can explain the interaction between the airport internal dynamics (e.g. queuing at airports, a ground delay program and following flying traffic) and a change in the external (network-wide) traffic demand (e.g. an increase in traffic during peak hours every day), allowing us to further understand the mechanisms governing the collective behaviour of the transportation system. We separate internal dynamics from external fluctuations using a scaling law which is helpful for us to systematically determine the origin of fluctuations in airport arrival and departure traffic, uncovering the collective dynamics. Hot spot features are observed in airport traffic data as the dynamical inhomogeneity in the fluxes of individual airports. The intrinsic characteristics of airport arrival and departure traffic under severe weather is discussed as well.
Author 李善梅 徐肖豪 孟令航
AuthorAffiliation School of Computer Science and Technology, Tianjin University, Tianjin 300072, China College of Air Traffic Management, Civil Aviation University of China, Tianjin 300300, China
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Notes Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival and departure traffic, form complicated spatial and temporal dynamics. The fluctuations of airport arrival and departure traffic are studied from the point of view of networks as the special correlation between different airports. Our collected flow volume data on the time-dependent activity of US airport arrival and departure traffic indicate that the coupling between the average flux and the fluctuation of an individual airport obeys a certain scaling law with a wide variety of scaling exponents between 1/2 and 1. These scaling phenomena can explain the interaction between the airport internal dynamics (e.g. queuing at airports, a ground delay program and following flying traffic) and a change in the external (network-wide) traffic demand (e.g. an increase in traffic during peak hours every day), allowing us to further understand the mechanisms governing the collective behaviour of the transportation system. We separate internal dynamics from external fluctuations using a scaling law which is helpful for us to systematically determine the origin of fluctuations in airport arrival and departure traffic, uncovering the collective dynamics. Hot spot features are observed in airport traffic data as the dynamical inhomogeneity in the fluxes of individual airports. The intrinsic characteristics of airport arrival and departure traffic under severe weather is discussed as well.
air traffic network, fluctuations, scaling law, hot spot
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Snippet Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival...
Air traffic is a typical complex system, in which movements of traffic components (pilots, controllers, equipment, and environment), especially airport arrival...
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SubjectTerms Airports
Arrivals
Complex systems
Dynamical systems
Dynamics
Flight
Fluctuation
Traffic engineering
Traffic flow
复杂系统
时间动态
机场
标度指数法
波动
流量数据
空中交通
网络分析
Title Fluctuations in airport arrival and departure traffic: A network analysis
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