AI for atmosphere–ocean sciences: advancements, challenges and ways forward

Искусственный интеллект для наук об атмосфере и океане: достижения, проблемы и дальнейшие направления
Jing-Jia Luo, Jiangjiang Xia, Baoxiang Pan, Yoo-Geun Ham, Xiaofeng Li, Wei Shangguan, Wei Xue, Yaqiang Wang, Yaqiang Wang, Bin Mu, Youngjoon Hong, Hao Li, Xiaohui Zhong, Kan Dai, Lei Bai, Fenghua Ling, Niklas Boers, Christopher Bretherton, Bin Chen, Dongjin Cho, Pierre Gentine, Zijie Guo, Xiaomeng Huang, Daehyun Kang, Jeong-Hwan Kim, Jeong-Hwan Kim, Lili Lei, Fan Meng, Seol-Hee Oh, Bo Qin, Zixiong Shen, Qiming Sun, Xuan Tong, Xuan Tong, Lina Wang, Ya Wang, Yiming Wang, Ya Wang, Yiming Wang, Jiye Wu, Yi Xiao, Lina Yao, Song Yang, Chaoxia Yuan, Shijin Yuan, Tingzhao Yu, Mengchu Zhao
2026-01-28

deep learningexplainable AIhybrid physics-AI modelingmulti-hazard early-warning systemsweather and climate forecasting
Artificial intelligence (AI) is rapidly transforming Earth science, offering unprecedented capabilities to tackle the most pressing challenges in the field. This work explores significant advances and emerging challenges across the AI for atmosphere-ocean sciences, while outlining critical ways forward. We review deep-learning methods and their application in weather and climate forecasting, which outperforms dynamical models in accuracy and computational efficiency. The role of AI in detecting complex phenomena, enhancing data assimilation and reconstruction, bias correction and downscaling coarse model outputs is also examined. However, the 'black-box' nature of complex AI models necessitates a focus on explainable AI to build trust and extract mechanistic insight. The most promising path forward is identified as the development of hybrid physics-AI modeling, which integrates the data-driven power of AI with the foundational constraints of physical laws to ensure generalizability and causal consistency. A new framework for AI-based model intercomparison is essential for rigorous benchmark performance. Finally, we contextualize these technical developments by discussing the usefulness and applicability of AI to society, including the improvement of multi-hazard early-warning systems and green energy production. We conclude by envisioning the future of AI agents for Earth science-autonomous, goal-oriented systems capable of designing and running experiments, generating and testing hypotheses, and learning dynamics from multisource data. This synthesis underscores that AI is not merely a tool, but a paradigm shift, which will significantly improve how we understand and adapt to a changing climate.
1
AI enables detection of complex atmosphere–ocean phenomena, enhanced data assimilation and reconstruction, bias correction, and downscaling of coarse model outputs.
2
Deep-learning methods for weather and climate forecasting can outperform dynamical models in both accuracy and computational efficiency.
3
Hybrid physics–AI models are identified as the most promising path because they combine data-driven power with physical constraints, improving generalizability and causal consistency.
4
Rigorous AI-based model intercomparison frameworks are needed to benchmark performance, while future AI agents could autonomously design experiments, test hypotheses, and learn Earth-system dynamics from multisource data.
5
The black-box nature of complex AI models makes explainable AI essential for building trust and extracting mechanistic understanding.

AI applications and models for atmosphere–ocean Earth sciences

Advances, challenges, and future directions in AI-based weather and climate forecasting, Earth-system modeling, and scientific understanding

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Publication Date
2026-01-28
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Authors
Jing-Jia Luo
Jiangjiang Xia
Baoxiang Pan
Yoo-Geun Ham
Xiaofeng Li
Wei Shangguan
Wei Xue
Yaqiang Wang
Yaqiang Wang
Bin Mu
Youngjoon Hong
Hao Li
Xiaohui Zhong
Kan Dai
Lei Bai
Fenghua Ling
Niklas Boers
Christopher Bretherton
Bin Chen
Dongjin Cho
Pierre Gentine
Zijie Guo
Xiaomeng Huang
Daehyun Kang
Jeong-Hwan Kim
Jeong-Hwan Kim
Lili Lei
Fan Meng
Seol-Hee Oh
Bo Qin
Zixiong Shen
Qiming Sun
Xuan Tong
Xuan Tong
Lina Wang
Ya Wang
Yiming Wang
Ya Wang
Yiming Wang
Jiye Wu
Yi Xiao
Lina Yao
Song Yang
Chaoxia Yuan
Shijin Yuan
Tingzhao Yu
Mengchu Zhao
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