WED-Net: A Weather-Effect Disentanglement Network with Causal Augmentation for Urban Flow Prediction
Qian Hong, Siyuan Chang, Xiao Zhou

TL;DR
WED-Net is a novel dual-branch Transformer model that disentangles weather effects from urban traffic patterns using causal augmentation, improving prediction robustness under extreme weather conditions.
Contribution
The paper introduces WED-Net, a new architecture with causal augmentation and disentanglement mechanisms for better urban flow prediction during extreme weather events.
Findings
WED-Net outperforms existing models under extreme weather conditions.
Disentanglement improves prediction accuracy and robustness.
Causal augmentation enhances generalization to rare scenarios.
Abstract
Urban spatio-temporal prediction under extreme conditions (e.g., heavy rain) is challenging due to event rarity and dynamics. Existing data-driven approaches that incorporate weather as auxiliary input often rely on coarse-grained descriptors and lack dedicated mechanisms to capture fine-grained spatio-temporal effects. Although recent methods adopt causal techniques to improve out-of-distribution generalization, they typically overlook temporal dynamics or depend on fixed confounder stratification. To address these limitations, we propose WED-Net (Weather-Effect Disentanglement Network), a dual-branch Transformer architecture that separates intrinsic and weather-induced traffic patterns via self- and cross-attention, enhanced with memory banks and fused through adaptive gating. To further promote disentanglement, we introduce a discriminator that explicitly distinguishes weather…
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Taxonomy
TopicsTraffic Prediction and Management Techniques · Human Mobility and Location-Based Analysis · Anomaly Detection Techniques and Applications
