使用带有伪海洋耦合的 TIFS 预测台风强度

IF 1.7 4区 地球科学 Q4 METEOROLOGY & ATMOSPHERIC SCIENCES Sola Pub Date : 2024-02-23 DOI:10.2151/sola.2024-012
Munehiko Yamaguchi, Norihisa Usui, Nariaki Hirose
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引用次数: 0

摘要

2020 年第 10 号台风 HAISHEN 在九州西海岸上空向北移动时,强度比预测的要弱。日本气象厅(JMA)采用的台风强度预报系统(TIFS)对 "海神 "强度的预报往往强于观测到的强度,导致日本气象厅的业务预报出现较大误差。误差大的一个可能原因是 TIFS 没有包括与热带气旋相关的海洋冷却效应。在此,我们研究了用海洋模式预测的静态海面温度和海洋热含量取代传统 TIFS 中使用的静态海面温度和海洋热含量是否能提高台风强度预测的准确性。使用伪海洋耦合 TIFS 的预测实验结果表明,"海神 "的过度加强得到了抑制,预测误差显著减小。我们还将评估扩展到 2020 年的所有台风,发现在预测时间为 3 至 5 天的情况下,伪海洋耦合 TIFS 比传统 TIFS 的预测误差减少了约 10%。这表明,传统 TIFS 的伪海洋耦合可提高台风强度预报的准确性。
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Typhoon Intensity Forecasts using TIFS with Pseudo Ocean Coupling

Typhoon HAISHEN, Typhoon No. 10 in 2020, was weaker than forecasts as it moved north over the western coast of Kyushu. The typhoon intensity forecasting scheme called TIFS operated at the Japan Meteorological Agency (JMA) tended to predict HAISHEN's intensity more strongly than the observed one, resulting in large errors in JMA's operational forecasts. One possible reason for the large errors is that TIFS does not include the effect of ocean cooling associated with tropical cyclones. Here, we investigated whether the accuracy of the typhoon intensity predictions can be improved by replacing static sea surface temperature and ocean heat content used in the conventional TIFS by those predicted by an ocean model. The results of prediction experiments using the pseudo-ocean-coupled TIFS show that the over-intensification of HAISHEN was suppressed and that the prediction errors were significantly reduced. We also extended the evaluation to all typhoons in 2020 and found that the pseudo-ocean-coupled TIFS reduced the prediction errors by about 10% compared to the conventional TIFS for prediction times of 3 to 5 days. This indicates that pseudo-ocean coupling of the conventional TIFS can improve the accuracy of typhoon intensity forecasts.

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来源期刊
Sola
Sola 地学-气象与大气科学
CiteScore
3.50
自引率
21.10%
发文量
41
审稿时长
>12 weeks
期刊介绍: SOLA (Scientific Online Letters on the Atmosphere) is a peer-reviewed, Open Access, online-only journal. It publishes scientific discoveries and advances in understanding in meteorology, climatology, the atmospheric sciences and related interdisciplinary areas. SOLA focuses on presenting new and scientifically rigorous observations, experiments, data analyses, numerical modeling, data assimilation, and technical developments as quickly as possible. It achieves this via rapid peer review and publication of research letters, published as Regular Articles. Published and supported by the Meteorological Society of Japan, the journal follows strong research and publication ethics principles. Most manuscripts receive a first decision within one month and a decision upon resubmission within a further month. Accepted articles are then quickly published on the journal’s website, where they are easily accessible to our broad audience.
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