CAMDA: Capacity Assessment Method for Decentralized Air Traffic Control

Conference Paper (2018)
Author(s)

E. Sunil (TU Delft - Control & Simulation)

J. Ellerbroek (TU Delft - Control & Simulation)

Jacco Hoekstra (TU Delft - Control & Simulation)

Copyright
© 2018 E. Sunil, Joost Ellerbroek, J.M. Hoekstra
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Publication Year
2018
Language
English
Copyright
© 2018 E. Sunil, Joost Ellerbroek, J.M. Hoekstra
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Abstract

This paper presents a semi-empirical method to determine the maximum theoretical capacity of decentralized airspace concepts. The method considered here, named Capacity Assessment Method for Decentralized ATC (CAMDA), formalizes an earlier approach described in literature, extends it for threedimensional airspace, and also improves the accuracy of the underlying models. CAMDA defines capacity as the traffic density at which conflict chain reactions propagate uncontrollably throughout the entire airspace. CAMDA identifies this critical density using a semi-empirical approach whereby models describing the actions of decentralized conflict detection and resolution algorithms are combined with empirically obtained conflict count data. The CAMDA method is demonstrated in this work for a decentralized direct routing en-route airspace concept that utilizes a state-based conflict detection algorithm, and a voltage potentialbased conflict resolution algorithm. Three fast-time simulation experiments were performed to study how the capacity of this particular airspace design is affected by: a) conflict detection parameters; b) conflict resolution dimension; and c) the speed distribution of aircraft. The results showed that CAMDA estimated the occurrence of conflict chain reactions with high accuracy for all cases, enabling capacity estimations using relatively non-intensive low density traffic simulations. Therefore, CAMDA can be used to speed up the airspace design process by reducing the number of time consuming high-density traffic simulations that are required when performing a trade-off between different airspace designs, or when fine-tuning the parameters of the selected airspace design.

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