AeroWF: A Geometric Spectral-Temporal Dual-Stream Learning Framework for Aerodrome Weather Forecasting
Xinyu Li, Yunyi Huang, Quan Fang, Yang Yang, Can Zhao, Kaiquan Cai
Abstract
Accurate and reliable aerodrome weather forecasting is essential for aerodrome safety and efficiency. However, existing approaches often fail to effectively capture the multi-scale dynamics and structural heterogeneity inherent in airport meteorological data, which involves variable numbers of runways, entangled high-frequency sensor streams, and low-frequency environmental contexts. In this paper, we propose AeroWF, a novel geometrically aware spectral-temporal dual-stream learning framework designed to address these challenges. Our approach integrates: (1) a macroscopic context injection module, which explicitly grounds transient micro-scale sensor observations within slow-varying macro-scale meteorological reports (METAR), improving consistency between micro-scale observations and macro-scale environmental states; (2) a spectral-temporal dual-stream encoder that disentangles transient temporal patterns and global spectral periodicities via a transformer-based temporal branch and a complex-valued frequency-domain branch; (3) a structure-adaptive hierarchical aggregator that unifies variable-cardinality runway observations through bidirectional interaction, without relying on predefined topological assumptions; and (4) a geometrically consistent pre-training strategy that combines hybrid masked reconstruction with intrinsic metric alignment, encouraging the learned representations to preserve both local fidelity and the temporal-shape/spectral-distribution structure of weather evolution. Extensive experiments on a new curated real-world multi-airport dataset consisting of 248K samples from four major international hubs (ZBAA, ZBAD, ZSPD, ZSSS) demonstrate that AeroWF achieves state-of-the-art performance across forecasting, imputation, and classification tasks. Furthermore, the model exhibits superior few-shot transferability to unseen airports, establishing a robust foundation for next-generation intelligent aviation meteorology. The source code and datasets are available at: https://github.com/MKC-Lab/AeroWF.
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