Citation:
Proceedings of SESAR Innovation Days 2016 (SIDs'16)
ISBN:
0770-1268
Sponsor:
This work has been partially supported by project TBO-MET project (https://tbometh2020.
com/), which has received funding from the SESAR JU under grant agreement
No 699294 under European Union’s Horizon 2020 research and innovation programme.
This work is also partially supported by the Spanish Government through Project entitled
Analysis and optimisation of aircraft trajectories under the effects of meteorological
uncertainty (TRA2014-58413-C2-2-R). The project has been funded under RD&I actions
of Programa Estatal de Investigación, Desarrollo e Innovación Orientada a los Retos
de la Sociedad (call 2014). European Commission
Project:
info:eu-repo/grantAgreement/EC/H2020/699294 Gobierno de España. TRA2014-58413-C2-2-R
A major challenge for Trajectory-Based Operations
is the existence of significant uncertainties in the models and
systems required for trajectory prediction. In particular, weather
uncertainty has been acknowledged as one of the most (if not the
most) releA major challenge for Trajectory-Based Operations
is the existence of significant uncertainties in the models and
systems required for trajectory prediction. In particular, weather
uncertainty has been acknowledged as one of the most (if not the
most) relevant ones. In the present paper we present preliminary
results on robust trajectory planning at the pre-tactical level.
The main goal is to plan trajectories that are efficient, yet
predictable. State-of-the-art forecasts from Ensemble Prediction
Systems are used as input data for the wind field, which we
assume to be the unique source of uncertainty. We develop an
ad-hoc optimal control methodology to solve trajectory planning
problems considering uncertainty in wind fields. A set of Paretooptimal
trajectories is obtained for different preferences between
predictability and average efficiency; in particular, we present
and discuss results for the minimum average fuel trajectory and
the most predictable trajectory, including the trade-off between
fuel consumption and time dispersion. We show how uncertainty
can be quantified and reduced by proposing alternative trajectories.[+][-]