The Hurricane Track Fit Consensus Model for Improving Hurricane Forecasting
Nathan Ginis, Timothy Marchok

TL;DR
This paper introduces the HFIT model, a new statistical consensus approach for real-time hurricane track prediction that reduces forecast errors by learning from historical model biases and errors.
Contribution
The paper presents the HFIT model, a novel, computationally efficient method for creating separate, hour-specific consensus forecasts that improve accuracy over existing models and official forecasts.
Findings
HFIT reduces forecast errors by up to 23% at 72 hours.
HFIT outperforms individual models and official NHC forecasts in error reduction.
The method is scalable and effective in real-time operational settings.
Abstract
We present a new method for creating a model consensus to improve real-time hurricane track prediction. The method is based on the statistical fitting of historic numerical model track forecasts to the observed storm positions and learning from their historical errors and biases. Our method is closest to the HFIP Corrected Consensus Approach (HCCA) methodology while using an alternative model formulation. Our method creates a separate consensus model for each forecast hour making it possible to independently correct the bias of each input model for that specific hour. This approach, which we call the Hurricane Track Fit (HFIT) model, is computationally efficient and scalable to additional numerical models as input, and it produces interpretable coefficients weighing model contributions. The new method is evaluated for the 2014-2021 hurricane seasons in the Atlantic basin using the…
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Taxonomy
TopicsTropical and Extratropical Cyclones Research · Meteorological Phenomena and Simulations · Flood Risk Assessment and Management
