TL;DR
EMFormer introduces an efficient multi-scale transformer architecture with a novel training pipeline, significantly improving long-term weather forecasting accuracy and speed while maintaining temporal consistency.
Contribution
The paper proposes EMFormer, a new multi-scale transformer architecture with a unique training pipeline, enhancing long-context weather forecasting and reducing computational costs.
Findings
Achieves state-of-the-art long-term weather forecast accuracy.
Demonstrates strong generalization on vision benchmarks.
Provides a 5.69x speedup over traditional multi-scale modules.
Abstract
Long-term weather forecasting is critical for socioeconomic planning and disaster preparedness. While recent approaches employ finetuning to extend prediction horizons, they remain constrained by the issues of catastrophic forgetting, error accumulation, and high training overhead. To address these limitations, we present a novel pipeline across pretraining, finetuning and forecasting to enhance long-context modeling while reducing computational overhead. First, we introduce an Efficient Multi-scale Transformer (EMFormer) to extract multi-scale features through a single convolution in both training and inference. Based on the new architecture, we further employ an accumulative context finetuning to improve temporal consistency without degrading short-term accuracy. Additionally, we propose a composite loss that dynamically balances different terms via a sinusoidal weighting, thereby…
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