台风诱发的中尺度气旋涡是一个长期被忽视的大气、海洋和气候之间的联系

IF 8.4 1区 地球科学 Q1 METEOROLOGY & ATMOSPHERIC SCIENCES npj Climate and Atmospheric Science Pub Date : 2025-02-21 DOI:10.1038/s41612-025-00946-9
Jia-Yi Lin, Hua Ho, Ganesh Gopalakrishnan, Zhe-Wen Zheng, Ruo-Shan Tseng, Jiayi Pan, Chung-Ru Ho, Quanan Zheng
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引用次数: 0

摘要

本文研究了北太平洋西部由台风引起的中尺度气旋涡旋。利用全球中尺度涡旋轨迹图谱和JTWC台风数据,共确定了69个潜在的TIME候选者(1995-2018)。随后,对这些候选人进行了系统的分析程序。分析显示,三个气旋海洋涡流(COEs)可能是由台风罗茜(1997)、妮妲(2009)和马安(2011)引发的。利用区域海洋模拟系统(ROMS)的数值模拟重建了这些事件期间的海洋环境。半理想化实验证实,典型的时间事件发生在动能和势能之间的能量传递中,垂直扩散和水平平流对COE自旋上升有重要贡献。辐散和垂直平流项抑制了COE的过度增长。由于全球变暖,台风的强度增加,移动速度减慢,预计未来台风的次数会更多。更强、更持久的时间可能会对气候产生重大影响,这应该成为未来研究的重点。
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Typhoon induced mesoscale cyclonic eddy a long neglected linkage between atmosphere ocean and climate

This study investigates typhoon-induced mesoscale cyclonic eddies (TIME) in the western North Pacific. A total of 69 potential TIME candidates (1995–2018) were identified using global mesoscale eddy trajectory atlas and JTWC typhoon data. Subsequently, systematic analysis procedures were applied to those candidates. Analysis revealed that three cyclonic ocean eddies (COEs) were likely triggered by typhoons Rosie (1997), Nida (2009), and Ma-on (2011). Numerical modeling with a regional ocean modeling system (ROMS) reconstructed the ocean environment during these events. Semi-idealized experiments confirmed that typical TIME events arise from the energy transfer between kinetic and potential energy, with vertical diffusion and horizontal advection contributing significantly to COE spin-up. Divergence and vertical advection terms suppress excessive COE growth. Given the increasing intensity and slower movement of typhoons due to global warming, more TIMEs are expected in the future. Stronger, longer-lasting TIMEs may have significant climate impacts and should be a focus of future research.

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来源期刊
npj Climate and Atmospheric Science
npj Climate and Atmospheric Science Earth and Planetary Sciences-Atmospheric Science
CiteScore
8.80
自引率
3.30%
发文量
87
审稿时长
21 weeks
期刊介绍: npj Climate and Atmospheric Science is an open-access journal encompassing the relevant physical, chemical, and biological aspects of atmospheric and climate science. The journal places particular emphasis on regional studies that unveil new insights into specific localities, including examinations of local atmospheric composition, such as aerosols. The range of topics covered by the journal includes climate dynamics, climate variability, weather and climate prediction, climate change, ocean dynamics, weather extremes, air pollution, atmospheric chemistry (including aerosols), the hydrological cycle, and atmosphere–ocean and atmosphere–land interactions. The journal welcomes studies employing a diverse array of methods, including numerical and statistical modeling, the development and application of in situ observational techniques, remote sensing, and the development or evaluation of new reanalyses.
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