Understanding Aviation Sustainability with XAI

Presentation Type

None

In Person or Zoom Presentation

In-Person

Location

Student Union Event Center

Start Date

17-11-2025 4:25 PM

End Date

17-11-2025 4:55 PM

Presentation Description/Abstract

This project uses open aviation operations datasets to build machine-learning and explainable AI (XAI) models that forecast short- and medium-term sustainability outcomes. Target variables include gate-to-gate CO₂ estimates, flight efficiency (horizontal/vertical), surface inefficiency (e.g., additional taxi time), and delay-related indicators at network, state, airport, and service-provider levels. ML and XAI algorithm are trained with rolling-origin validation; performance is reported via SHAP values, partial-dependence plots, and counterfactual analyses provide transparent driver attribution and reveal leverage points—such as continuous climb/descent procedures, pushback control, and demand-capacity alignment. The outcome is a practical, interpretable toolkit that (i) predicts sustainability metrics with actionable confidence intervals, (ii) ranks interventions by marginal emissions-reduction potential, and (iii) supports data-driven prioritization of operational improvements across the aviation network.

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Nov 17th, 4:25 PM Nov 17th, 4:55 PM

Understanding Aviation Sustainability with XAI

Student Union Event Center

This project uses open aviation operations datasets to build machine-learning and explainable AI (XAI) models that forecast short- and medium-term sustainability outcomes. Target variables include gate-to-gate CO₂ estimates, flight efficiency (horizontal/vertical), surface inefficiency (e.g., additional taxi time), and delay-related indicators at network, state, airport, and service-provider levels. ML and XAI algorithm are trained with rolling-origin validation; performance is reported via SHAP values, partial-dependence plots, and counterfactual analyses provide transparent driver attribution and reveal leverage points—such as continuous climb/descent procedures, pushback control, and demand-capacity alignment. The outcome is a practical, interpretable toolkit that (i) predicts sustainability metrics with actionable confidence intervals, (ii) ranks interventions by marginal emissions-reduction potential, and (iii) supports data-driven prioritization of operational improvements across the aviation network.