Challenges in Developing Finite-Volume Global Weather and Climate Models with Focus on Numerical Accuracy

被引:0
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作者
Yuanfu Xie
Zilong Qin
机构
[1] Chinese Academy of Meteorological Sciences,State Key Laboratory of Severe Weather
[2] China Meteorological Administration,undefined
[3] Guangdong-Hong Kong-Macao Greater Bay Area Weather Research Center for Monitoring Warning and Forecasting (Shenzhen Institute of Meteorological Innovation),undefined
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关键词
global weather forecast model; finite-volume methods; model accuracy; irregular spherical grids; C-grid and Z-grid schemes;
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摘要
High-resolution global non-hydrostatic gridded dynamic models have drawn significant attention in recent years in conjunction with the rising demand for improving weather forecasting and climate predictions. By far it is still challenging to build a high-resolution gridded global model, which is required to meet numerical accuracy, dispersion relation, conservation, and computation requirements. Among these requirements, this review focuses on one significant topic—the numerical accuracy over the entire non-uniform spherical grids. The paper discusses all the topic-related challenges by comparing the schemes adopted in well-known finite-volume-based operational or research dynamical cores. It provides an overview of how these challenges are met in a summary table. The analysis and validation in this review are based on the shallow-water equation system. The conclusions can be applied to more complicated models. These challenges should be critical research topics in the future development of finite-volume global models.
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页码:775 / 788
页数:13
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