New methods of optimization of the flight profiles for performance database-modeled aircraft
Roberto Salvador Félix Patrón, Yolène Berrou, Ruxandra Mihaela Botez
Abstract
Roberto Salvador Félix Patrón, Yolène Berrou, Ruxandra Mihaela Botez
Abstract
Researchers have been attempting to reduce aircraft fuel consumption for decades to minimize aviation’s emissions to the atmosphere. This article presents an algorithm which improves the trajectories created by a commercial flight management system. A complete analysis of the climb, cruise, and descent was performed and a genetic algorithm has been implemented to evaluate the effects of the possible changes to aircraft speeds and altitudes, as well as the influence of the wind vector on the lateral and vertical profiles, all to obtain the flight trajectory that most reduces the global flight fuel consumption.
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Researchers have been attempting to reduce aircraft fuel consumption for decades to minimize aviation’s emissions to the atmosphere. This article presents an algorithm which improves the trajectories created by a commercial flight management system. A complete analysis of the climb, cruise, and descent was performed and a genetic algorithm has been implemented to evaluate the effects of the possible changes to aircraft speeds and altitudes, as well as the influence of the wind vector on the lateral and vertical profiles, all to obtain the flight trajectory that most reduces the global flight fuel consumption.
Key concepts: Climb, Descent (aeronautics), Cruise, Fuel efficiency, Trajectory, Atmosphere (unit), Aviation, Aeronautics