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Next-Generation Weather Prediction
Ayush Chandel, Manjeet Kaur
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Abstract: Accurate weather forecasting is essential for disaster management, agriculture, aviation, and environmental planning. Traditional weather prediction relies on numerical weather prediction (NWP) models that simulate atmospheric processes using complex physical equations. Although these models are scientifically reliable, they require significant computational resources and long processing times.
Modern AI models such as GraphCast and FourCastNet can analyze large atmospheric datasets and produce forecasts much faster than traditional models. Research shows that these systems can generate global weather predictions in less than one minute while maintaining competitive accuracy compared with conventional forecasting systems. AI techniques use deep neural networks, graph neural networks, and large climate datasets to detect patterns in temperature, pressure, humidity, and wind variables. These approaches have demonstrated promising results in predicting extreme weather events such as storms, cyclones, and heatwaves. However, challenges remain, including data dependency, model interpretability, and limitations in predicting rare climate events.
This study reviews recent advancements in AI-based weather prediction models and analyzes their advantages, limitations, and future potential in climate science. The findings suggest that AI does not replace traditional meteorological models but complements them, enabling faster and more efficient forecasting systems.
Keywords: AI, Weather Prediction, Climate Science, Machine Learning, Deep Learning, Extreme Weather, Climate Modeling, severe
Modern AI models such as GraphCast and FourCastNet can analyze large atmospheric datasets and produce forecasts much faster than traditional models. Research shows that these systems can generate global weather predictions in less than one minute while maintaining competitive accuracy compared with conventional forecasting systems. AI techniques use deep neural networks, graph neural networks, and large climate datasets to detect patterns in temperature, pressure, humidity, and wind variables. These approaches have demonstrated promising results in predicting extreme weather events such as storms, cyclones, and heatwaves. However, challenges remain, including data dependency, model interpretability, and limitations in predicting rare climate events.
This study reviews recent advancements in AI-based weather prediction models and analyzes their advantages, limitations, and future potential in climate science. The findings suggest that AI does not replace traditional meteorological models but complements them, enabling faster and more efficient forecasting systems.
Keywords: AI, Weather Prediction, Climate Science, Machine Learning, Deep Learning, Extreme Weather, Climate Modeling, severe
How to Cite:
[1] Ayush Chandel, Manjeet Kaur, βNext-Generation Weather Prediction,β International Journal of Advanced Research in Computer and Communication Engineering (IJARCCE), DOI: 10.17148/IJARCCE.2026.15629
