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Projecte llegit

Títol: Global Enroute Route Charges: Analysis and Integration into a Trajectory Planning Tool


Estudiants que han llegit aquest projecte:


Director/a: MELGOSA FARRÉS, MARC

Departament: FIS

Títol: Global Enroute Route Charges: Analysis and Integration into a Trajectory Planning Tool

Data inici oferta: 25-06-2025     Data finalització oferta: 25-02-2026



Estudis d'assignació del projecte:
    GR ENG SIST AEROESP
Tipus: Individual
 
Lloc de realització: EETAC
 
Segon director/a (UPC): PRATS MENÉNDEZ, XAVIER
 
Paraules clau:
Route charges; trajectory; price
 
Descripció del contingut i pla d'activitats:
This project aims to investigate how enroute route charges are structured, calculated, and paid across different regions and air navigation service providers (ANSPs) worldwide. The student will carry out a comprehensive review of international practices in route charging, including but not limited to the Eurocontrol CRCO system in Europe, the FAA cost recovery model in the USA, and other regional systems in Asia, Africa, and South America.

The objective is twofold:

1. Research Phase - Compile and analyze how enroute charges are applied globally, identifying the key parameters used in the calculation (e.g., aircraft weight, distance, airspace type), and the billing and payment mechanisms.

2. Implementation Phase - Design and develop a modular extension to the DYNAMO trajectory planning tool that accurately models and calculates enroute charges based on the airspace crossed, using the real-world charging rules identified in the research phase.
 
Overview (resum en anglès):
Air navigation en-route charges are one of the main costs of airlines, but they are essential to ensure that each country provides a complete Air Navigation Service. An accurate estimation of these charges is therefore essential for trajectory planning.

This thesis analyzes the reliability of Dynamo3, an existing flight optimization web platform, by comparing it with an EUROCONTROL tool. Three European routes have been analyzed and the comparative study reveals three fundamental limitations in the current system: lack of geographic coverage outside Europe, the omission of the mandatory 20 km deduction for takeoff and landing phases in the applicable equations, and the inaccurate distance calculations for non-direct routes.

To address these discrepancies, a detailed data collection process has been performed to identify and catalog the corresponding charging models applied worldwide. This global data-based has been integrated into a Python code to refine and compute global en-route charges for any given route. The proposed methodology incorporates the worldwide applicability, corrects the 20 km distance reduction rule, and the use of Great Circle Distance for non-direct trajectories.

The final results demonstrate that the proposed solution not only expands the operational scope of trajectory but also improves significantly the precision of overflight charges calculations in comparison with Dynamo3. This work provides a robust structure for global trajectory planning applications and contributes to a more simple understanding of international overflight costs.


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