Predicting & Quantifying Risk in Airport Capacity Profile Selection for Air Traffic Management*
نویسندگان
چکیده
There is currently no data-driven approach widely used by air traffic managers and controllers to predict the capacity at airports. Instead controllers rely on rules-of-thumb to define the airport acceptance rate (AAR). As the approach is inherently subjective, it can lead to poor definition of Traffic Management Initiatives (TMIs) which rely on accurate airport capacity estimates and can lead to under-delivery or overdelivery of flights to airports. In this paper we propose a methodology for estimating airport capacity and capacity uncertainty based on the environmental conditions within the terminal and airport arrival routes and the projected arrival demand and aircraft spacing. To make these predictions we used a gradient tree boosting model in which the prediction model estimates are time-lagged and conditioned on the previous states. Additionally, estimates from previously predicted states are also used to condition the model based on the history of the predictor variables. The concept was validated against observations from historical data recorded at Newark Liberty Airport (EWR). The proposed method provides accurate prediction of airport capacity and produces a strong quantification of uncertainty in the form of a prediction interval. To explore the implications of applying information about the capacity uncertainty into planning in ground delay programs (GDPs), a stochastic integer programming model for GDP planning was created using the specific quantiles to define a constraint on airport capacity. This model allows the decision maker to make trades based on quantified levels of capacity deviation uncertainty. The results of a sensitivity analysis suggest that the decision maker may benefit from adopting a modest risk premium when planning GDPs. Keywords-Airport Capacity, Capacity Prediction, Ground Delay Programs, Capacity Uncertainty, Stochastic Programming
منابع مشابه
Development of Surface Management System Integrated with CTAS Arrival Tool
The Surface Management System (SMS) is a decision support tool that helps tower traffic coordinators and Ground/Local controllers manage and control airport surface traffic in order to increase capacity, efficiency, and flexibility. SMS provides common situation awareness to personnel at various air traffic control facilities such as air traffic control towers (ATCTs), airline ramp towers, the ...
متن کاملArrival/Departure Capacity Tradeoff Optimization: a Case Study at the St
The busiest European and US airports are still a major bottleneck in the air transportation network. Optimizing utilization of existing airport capacity during periods of congestion, to maximize the airport throughput and minimize delays, is a challenging task. It is important for both strategic (several hours into the future) traffic flow management (TFM) and tactical air traffic control (ATC)...
متن کاملMathematical Optimizationg models for Air Traffic Flow Management: A review
Congestion problems are becoming increasingly acute in many European and American airports and air sectors. To protect Air Traffic Control (ATC) from overload a planning activity called Air Traffic Flow Management (ATFM) tries to anticipate and prevent overload and limit resulting delays. When the traffic expects to exceed the airport arrival and departure capacities or the airsector capacity a...
متن کاملDynamic Stochastic Optimization Model for Air Traffic Flow Management with En Route and Airport Capacity Constraints
In this paper, we present a linear dynamic stochastic optimization model for Air Traffic Flow Management (ATFM) that accounts for uncertainty in both airport and en route airspace capacity. Rather than analyzing this problem in its full generality, we focus on the case in which there is a single destination airport and a small number of arrival fixes subject to blockage or reduced capacity as a...
متن کاملDynamic Stochastic Optimization Models for Air Traffic Flow Management
Dynamic Stochastic Optimization Models for Air Traffic Flow Management by Avijit Mukherjee Doctor of Philosophy in Engineering – Civil and Environmental Engineering University of California, Berkeley Professor Mark Hansen, Chair This dissertation presents dynamic stochastic optimization models for Air Traffic Flow Management (ATFM) that enables decisions to adapt to new information on evolving ...
متن کامل