Title :
North Atlantic Aircraft Trajectory Optimization
Author :
Rodionova, Olga ; Sbihi, Mohamed ; Delahaye, Daniel ; Mongeau, Marcel
Author_Institution :
Math. Appl., Inf. et Autom. pour l´Aerien (MAIAA), Ecole Nat. de l´aviation Civile (ENAC), Toulouse, France
Abstract :
North Atlantic oceanic airspace accommodates air traffic between North America and Europe. Radar-based surveillance is not applicable in this vast and highly congested airspace. For conflict-free flight progress, the organized track system is established in the North Atlantic and flights are prescribed to follow predefined oceanic tracks. Rerouting of aircraft from one track to another is very rarely applied because of large separation standards. As a result, aircraft often follow routes that are not optimal in view of their departure and destination points. This leads to an increase in aircraft cruising time and congestion level in continental airspace at input and output. Implementing new technologies and airborne-based control procedures will enable a significant decrease in the present separation standards and improvement of the traffic situation in the North Atlantic. The aim of the present study is to show the benefits that can be expected from such a reduction of separation standards. Optimal conflict-free trajectories are constructed for several flight sets based on the new proposed separation standards, with respect to the flight input data and oceanic winds. This paper introduces a mathematical model, proposes an optimization formulation of the problem, constructs two test problems based on real air-traffic data, and presents very encouraging results of simulations for these data.
Keywords :
air traffic control; optimal control; optimisation; trajectory optimisation (aerospace); Europe; North America; North Atlantic aircraft trajectory optimization; North Atlantic oceanic airspace; air traffic; airborne-based control procedures; aircraft cruising time; conflict-free flight progress; congestion level; continental airspace; departure points; destination points; flight input data; large separation standards; mathematical model; oceanic winds; optimal conflict-free trajectory; optimization formulation; organized track system; predefined oceanic tracks; radar-based surveillance; real air-traffic data; test problems; Aircraft; Atmospheric modeling; Delays; Optimization; Radar tracking; Standards; Trajectory; Aircraft trajectory optimization; North Atlantic oceanic airspace; genetic algorithm (GA); organized track system (OTS); waypoints;
Journal_Title :
Intelligent Transportation Systems, IEEE Transactions on
DOI :
10.1109/TITS.2014.2312315