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2015年飓风帕特里夏集合模拟中热带气旋快速增强的动力学与可预测性

Dynamics and Predictability of Tropical Cyclone Rapid Intensification in Ensemble Simulations of Hurricane Patricia (2015).

作者信息

Tao Dandan, van Leeuwen Peter Jan, Bell Michael, Ying Yue

机构信息

Department of Atmospheric Science Colorado State University Fort Collins CO USA.

Advanced Study Program National Center for Atmospheric Research Boulder CO USA.

出版信息

J Geophys Res Atmos. 2022 Apr 27;127(8):e2021JD036079. doi: 10.1029/2021JD036079. Epub 2022 Apr 18.

DOI:10.1029/2021JD036079
PMID:35865320
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9287007/
Abstract

Hurricane Patricia (2015) over the eastern Pacific was a record-breaking tropical cyclone (TC) under a very favorable environment during its rapid intensification (RI) period, which makes it an optimal real case for studying RI dynamics and predictability. In this study, we performed ensemble Kalman filter analyses at Patricia's early development stage using both traditional observations and the Office of Naval Research Tropical Cyclone Intensity (TCI) field campaign data. It is shown that assimilating the inner-core TCI observations produces a stronger initial vortex and significantly improves the prediction of RI. Analysis of observation sensitivity experiments shows that the deep-layer dropsonde observations have high impact on both the primary and secondary circulations for the entire troposphere while the radar observations have the most impact on the primary circulations near aircraft flight level. A wide range of intensification scenarios are obtained through two sets of ensemble forecasts initialized with and without assimilating the TCI data prior to the RI onset. Verification of the ensemble forecasts against the TCI observations during the RI period shows that forecast errors toward later stages can originate from two different error sources at early stages of the vortex structure: One is a timing error from a delayed vortex development such that the TC evolution is the same but shifted in time; the other is due to a totally different storm such that there is no moment in time the simulated storm can obtain a correct TC structure.

摘要

2015年东太平洋的飓风帕特里夏是一个破纪录的热带气旋,在其快速增强期处于非常有利的环境中,这使其成为研究快速增强动力学和可预测性的理想实际案例。在本研究中,我们在帕特里夏早期发展阶段使用传统观测数据和海军研究办公室热带气旋强度(TCI)实地考察数据进行了集合卡尔曼滤波分析。结果表明,同化内核TCI观测数据会产生更强的初始涡旋,并显著改善对快速增强的预测。观测敏感性实验分析表明,深层投落探空仪观测数据对整个对流层的一次和二次环流都有很大影响,而雷达观测数据对飞机飞行高度附近的一次环流影响最大。通过两组集合预报获得了广泛的增强情景,这两组预报分别在快速增强开始前同化和未同化TCI数据的情况下初始化。对快速增强期集合预报与TCI观测数据的验证表明,后期的预报误差可能源于涡旋结构早期的两种不同误差源:一种是涡旋发展延迟导致的时间误差,使得热带气旋的演变相同但时间上有偏移;另一种是由于完全不同的风暴,以至于模拟风暴在任何时刻都无法获得正确的热带气旋结构。

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