风暴丹尼尔是由地中海异常高的海面温度引发的

IF 8.5 1区 地球科学 Q1 METEOROLOGY & ATMOSPHERIC SCIENCES npj Climate and Atmospheric Science Pub Date : 2024-12-19 DOI:10.1038/s41612-024-00872-2
D. Argüeso, M. Marcos, A. Amores
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摘要

2023年9月,气旋丹尼尔在地中海形成,严重影响了希腊和利比亚,成为地中海历史上最致命的风暴。地中海异常高的海面温度(SST)很可能促成了气旋的强度和极端降雨。希腊在18小时内降雨量超过700毫米,而利比亚的日降雨量超过400毫米,导致灾难性的基础设施故障。我们的假设是,高海温提供了额外的能量和水分,助长了丹尼尔的增强。利用“天气研究与预报”模式,我们进行了数值试验,量化了高海温在事件中的作用。对比实际条件和反事实情景,我们发现海温的长期全球变暖信号显著增加了风暴的强度和降水。这项研究强调,有必要了解随着全球气温升高,海温上升对预测和缓解未来类似热带气旋的贡献。
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Storm Daniel fueled by anomalously high sea surface temperatures in the Mediterranean
In September 2023, Cyclone Daniel formed in the Mediterranean, severely affecting Greece and Libya, and becoming the deadliest storm in Mediterranean history. The Mediterranean’s unusually high sea surface temperatures (SST) likely contributed to the cyclone’s intensity and extreme rainfall. Greece saw over 700 mm of rain in 18 h, while Libya experienced daily records exceeding 400 mm, leading to catastrophic infrastructure failures. Our hypothesis is that high SSTs provided additional energy and moisture fueling Daniel’s intensification. Using the Weather Research and Forecasting model, we conducted numerical experiments to quantify the role of high SSTs during the event. Comparing actual conditions with a counterfactual scenario, we found that the long-term global warming signal in SSTs significantly increased the storm’s intensity and precipitation. This study underscores the need to understand rising SSTs contribution to predicting and mitigate future tropical-like cyclones as global temperatures increase.
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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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