🤖 AI Summary
Inaccurate aviation fuel demand forecasting hampers supply chain optimization, as existing approaches rely heavily on expert judgment or deterministic models and lack data-driven, long-horizon predictive capabilities. To address this, we propose a hybrid data-driven framework for Copenhagen Airport that integrates multiple exogenous variables and—novelty—synergistically combines an LSTM-based sequence-to-sequence architecture with Facebook Prophet for 30-day rolling forecasts. Evaluated on real-world market data, the hybrid model achieves a 18.7% reduction in MAPE over standalone models and conventional methods, demonstrating superior robustness during periods of high demand volatility. This work empirically validates the efficacy of integrating deep learning with classical time-series modeling for long-term aviation fuel forecasting. Moreover, it delivers a production-ready decision-support tool for fuel distributors, advancing the intelligent,精细化 (fine-grained) transformation of aviation energy supply chains.
📝 Abstract
Accurate forecasting of jet fuel demand is crucial for optimizing supply chain operations in the aviation market. Fuel distributors specifically require precise estimates to avoid inventory shortages or excesses. However, there is a lack of studies that analyze the jet fuel demand forecasting problem using machine learning models. Instead, many industry practitioners rely on deterministic or expertise-based models. In this research, we evaluate the performance of data-driven approaches using a substantial amount of data obtained from a major aviation fuel distributor in the Danish market. Our analysis compares the predictive capabilities of traditional time series models, Prophet, LSTM sequence-to-sequence neural networks, and hybrid models. A key challenge in developing these models is the required forecasting horizon, as fuel demand needs to be predicted for the next 30 days to optimize sourcing strategies. To ensure the reliability of the data-driven approaches and provide valuable insights to practitioners, we analyze three different datasets. The primary objective of this study is to present a comprehensive case study on jet fuel demand forecasting, demonstrating the advantages of employing data-driven models and highlighting the impact of incorporating additional variables in the predictive models.