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Granting flexible operations in congested airspaces

Research output: Contribution in Book/Report/Proceedings - With ISBN/ISSNConference contribution/Paperpeer-review

Published

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Granting flexible operations in congested airspaces. / Castelli, Lorenzo; Corolli, Luca; Lulli, Guglielmo.
Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010. EUROCONTROL, 2010. p. 111-118.

Research output: Contribution in Book/Report/Proceedings - With ISBN/ISSNConference contribution/Paperpeer-review

Harvard

Castelli, L, Corolli, L & Lulli, G 2010, Granting flexible operations in congested airspaces. in Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010. EUROCONTROL, pp. 111-118, 9th Innovative Research Workshop and Exhibition, INO 2010, Bretigny-sur-Orge, France, 7/12/10.

APA

Castelli, L., Corolli, L., & Lulli, G. (2010). Granting flexible operations in congested airspaces. In Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010 (pp. 111-118). EUROCONTROL.

Vancouver

Castelli L, Corolli L, Lulli G. Granting flexible operations in congested airspaces. In Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010. EUROCONTROL. 2010. p. 111-118

Author

Castelli, Lorenzo ; Corolli, Luca ; Lulli, Guglielmo. / Granting flexible operations in congested airspaces. Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010. EUROCONTROL, 2010. pp. 111-118

Bibtex

@inproceedings{7490061c6565418780fa9db5f72f91f5,
title = "Granting flexible operations in congested airspaces",
abstract = "Several causes of delay are deterring the air transportation system from being efficient. System capacity reductions are the major cause of delay. However, there are also some other causes, directly imputable to airlines, which may produce, in combination with the capacity reductions, undesired downstream effects. Therefore, with the purpose of containing delays and disruptions in flight schedules, it is important to grant flexibility to flight operations. This paper presents a mathematical formulation that allows to determine the degree of flexibility given to flights by identifying through a set of temporal intervals, called time windows, those flights that have a larger impact on the air traffic system performances. A time window is a period of time during which a certain phase of the flight (e.g., take off, landing and entry into a sector) has to be executed. The size of the time windows is variable as it reflects system's capacity constraints. The set of time windows, which maximizes the total width of the time windows, provides airline operators and air traffic control authorities with the largest degree of flexibility to perform their operations. Several formulations of the models are presented, which vary in the way of formulating the use of system capacity. However, by means of a computational analysis, we show that the solution of the time window model is insensitive to the formulation used for the capacity constraints.",
keywords = "Air Traffic Flow and Capacity Management, ATFCM, ATFM, Critical Flights, Delay, Time Windows",
author = "Lorenzo Castelli and Luca Corolli and Guglielmo Lulli",
year = "2010",
month = jan,
day = "1",
language = "English",
pages = "111--118",
booktitle = "Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010",
publisher = "EUROCONTROL",
note = "9th Innovative Research Workshop and Exhibition, INO 2010 ; Conference date: 07-12-2010 Through 09-12-2010",

}

RIS

TY - GEN

T1 - Granting flexible operations in congested airspaces

AU - Castelli, Lorenzo

AU - Corolli, Luca

AU - Lulli, Guglielmo

PY - 2010/1/1

Y1 - 2010/1/1

N2 - Several causes of delay are deterring the air transportation system from being efficient. System capacity reductions are the major cause of delay. However, there are also some other causes, directly imputable to airlines, which may produce, in combination with the capacity reductions, undesired downstream effects. Therefore, with the purpose of containing delays and disruptions in flight schedules, it is important to grant flexibility to flight operations. This paper presents a mathematical formulation that allows to determine the degree of flexibility given to flights by identifying through a set of temporal intervals, called time windows, those flights that have a larger impact on the air traffic system performances. A time window is a period of time during which a certain phase of the flight (e.g., take off, landing and entry into a sector) has to be executed. The size of the time windows is variable as it reflects system's capacity constraints. The set of time windows, which maximizes the total width of the time windows, provides airline operators and air traffic control authorities with the largest degree of flexibility to perform their operations. Several formulations of the models are presented, which vary in the way of formulating the use of system capacity. However, by means of a computational analysis, we show that the solution of the time window model is insensitive to the formulation used for the capacity constraints.

AB - Several causes of delay are deterring the air transportation system from being efficient. System capacity reductions are the major cause of delay. However, there are also some other causes, directly imputable to airlines, which may produce, in combination with the capacity reductions, undesired downstream effects. Therefore, with the purpose of containing delays and disruptions in flight schedules, it is important to grant flexibility to flight operations. This paper presents a mathematical formulation that allows to determine the degree of flexibility given to flights by identifying through a set of temporal intervals, called time windows, those flights that have a larger impact on the air traffic system performances. A time window is a period of time during which a certain phase of the flight (e.g., take off, landing and entry into a sector) has to be executed. The size of the time windows is variable as it reflects system's capacity constraints. The set of time windows, which maximizes the total width of the time windows, provides airline operators and air traffic control authorities with the largest degree of flexibility to perform their operations. Several formulations of the models are presented, which vary in the way of formulating the use of system capacity. However, by means of a computational analysis, we show that the solution of the time window model is insensitive to the formulation used for the capacity constraints.

KW - Air Traffic Flow and Capacity Management

KW - ATFCM

KW - ATFM

KW - Critical Flights

KW - Delay

KW - Time Windows

M3 - Conference contribution/Paper

AN - SCOPUS:84922959125

SP - 111

EP - 118

BT - Proceedings of the 9th Innovative Research Workshop and Exhibition, INO 2010

PB - EUROCONTROL

T2 - 9th Innovative Research Workshop and Exhibition, INO 2010

Y2 - 7 December 2010 through 9 December 2010

ER -