Evaluating the Performance of AI in Crisis Detection: A Multi-Scenario Hindcast of Extreme Precipitation Forecasts
Feng Huang, Guofeng Su, Lida Huang, Chen Tao, Jing Zhang
Tsinghua University Ministry of Education
内容与影响
Artificial Intelligence Weather Prediction (AIWP) models excel in global mean-error metrics, yet their efficacy in detecting low-probability, high-impact extreme events--critical for emergency response--remains under-examined. This study evaluates three leading models (GraphCast, FuXi, and Artificial Intelligence Forecasting System (AIFS)) against satellite observations and a numerical baseline across four diverse historical crises. Using a crisis-centric evaluation framework comprising Peak Amplitude Ratio (PAR), Spatial Correlation (SC), Root Mean Square Error (RMSE), volumetric Bias, and the Symmetric Extremal Dependence Index (SEDI), preliminary results reveal a systemic intensity deficit in AIWP models. While GFS maintains a PAR above 0.65 across most scenarios, AI models underestimate peak rainfall by over 90% and exhibit significant spatial displacement. These findings suggest that inherent statistical smoothing transforms catastrophic signals into benign forecasts. Consequently, over-reliance on current AIWP models for crisis detection may yield a false sense of security, potentially exacerbating rather than mitigating emergency vulnerabilities.
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物理Meteorological Phenomena and Simulations
Precipitation Measurement and Analysis · Climate variability and models