Abstract
The runway system of an airport is a bottleneck resource, limiting the amount of traffic an airport can
service. The capacity of a runway system is affected by the runway configuration in use and the transition
time to change to a new runway configuration. Better prediction of runway configuration transition
times can aid air traffic controllers in selecting the runway configuration that minimises delays. This
study introduces a novel data-driven approach to model the transition times between directional runway
configuration changes, derived by using computed features from the flight positional data. The study also
formulates classification models to assign the magnitude of transition times and their impact on runway
capacity, utilizing features known in the literature, as well as engineered features including weather
coefficients and runway complexity. The transition time model is able to identify the instances where the
transition times are ‘High’ approximately 92% of the time. Correctly identifying ‘High’ transition times
is important as high transition times lead to greater reduction in runway capacity. This is validated when
the predicted transition time is used as a feature input for the capacity impact model, which correctly
identifies periods of unfulfilled demand approximately 89% of the time. The predicted transition time is
shown to be a more important predictor of capacity impact than weather features, which to date have
been considered crucial features in determining capacity.