This is an AI-generated image created with Midjourney by Molly-Anna MaQuirl
In conjunction with the European Centre for Medium-Range Weather Forecasts, Google has announced the development of a new weather prediction system that fuses AI with traditional physics-based models.
The innovative model, NeuralGCM, aims to combine the best features of traditional models with a machine-learning approach. The goal is to quickly make accurate climate predictions at a mere fraction of the current cost. It combines a general circulation model with machine learning techniques to model the earth's atmospheric state to predict future weather. This hybrid approach ensures that the machine learning output works alongside physics, resulting in reliable weather forecasts for one to 15 days. The model has also shown itself capable of longer-term modeling to predict extreme weather risks, including tropical cyclones.
Some of the benefits of AI breakthroughs in weather and climate forecasting include:
NeuralGCM provides improved accuracy at a lower cost and more rapid rate, while offering enormous computational savings.
Proven capability in forecasting less common weather conditions, such as atmospheric rivers and tropical cyclones.
Easily generates the massive-scale physical simulations that are critical for predicting climate change.
According to the article published in Nature, the model can accurately forecast climate change over decades.
The NeuralGCM model can be run on a laptop, whereas traditional systems require supercomputers.
Machine learning models require massive datasets of historical observations and satellite information for training. However, the union of these systems raises some concerns:
The process of combining the training of machine learning with conventional models is expensive. However, once trained, the system can accurately predict weather at a fraction of the cost of traditional methods.
AI models rely on datasets, so any inaccuracies or misinformation in the data can result in flawed predictions or enhance existing biases.
This complex model may prove challenging to maintain and will require trained and skilled experts.
Lastly, the advancements in AI forecasting models mirror a broader trend in the modern technology industry, where recent developments such as energy-efficient AI chatbots have gained significant attention.
This is an AI-generated image created with Midjourney by Molly-Anna MaQuirl
In conjunction with the European Centre for Medium-Range Weather Forecasts, Google has announced the development of a new weather prediction system that fuses AI with traditional physics-based models.
The innovative model, NeuralGCM, aims to combine the best features of traditional models with a machine-learning approach. The goal is to quickly make accurate climate predictions at a mere fraction of the current cost. It combines a general circulation model with machine learning techniques to model the earth's atmospheric state to predict future weather. This hybrid approach ensures that the machine learning output works alongside physics, resulting in reliable weather forecasts for one to 15 days. The model has also shown itself capable of longer-term modeling to predict extreme weather risks, including tropical cyclones.
Some of the benefits of AI breakthroughs in weather and climate forecasting include:
NeuralGCM provides improved accuracy at a lower cost and more rapid rate, while offering enormous computational savings.
Proven capability in forecasting less common weather conditions, such as atmospheric rivers and tropical cyclones.
Easily generates the massive-scale physical simulations that are critical for predicting climate change.
According to the article published in Nature, the model can accurately forecast climate change over decades.
The NeuralGCM model can be run on a laptop, whereas traditional systems require supercomputers.
Machine learning models require massive datasets of historical observations and satellite information for training. However, the union of these systems raises some concerns:
The process of combining the training of machine learning with conventional models is expensive. However, once trained, the system can accurately predict weather at a fraction of the cost of traditional methods.
AI models rely on datasets, so any inaccuracies or misinformation in the data can result in flawed predictions or enhance existing biases.
This complex model may prove challenging to maintain and will require trained and skilled experts.
Lastly, the advancements in AI forecasting models mirror a broader trend in the modern technology industry, where recent developments such as energy-efficient AI chatbots have gained significant attention.