Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone

The ocean is the largest source of water vapor on the planet, while precipitation is the greatest in tropical oceans and coastal areas. As a strong convective weather, typhoons bring not only strong winds but also strong precipitations. The accurate prediction of rainfall and precipitation induced b...

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Main Authors: Zhiyuan Wu, Naire Mohamad Alshdaifat
Format: Article
Language:English
Published: MDPI AG 2019-05-01
Series:Hydrology
Subjects:
Online Access:https://www.mdpi.com/2306-5338/6/2/42
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spelling doaj-55423b0cb7ad4ddd850ac30d576157b32020-11-24T21:40:43ZengMDPI AGHydrology2306-53382019-05-01624210.3390/hydrology6020042hydrology6020042Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical CycloneZhiyuan Wu0Naire Mohamad Alshdaifat1School of Hydraulic Engineering, Changsha University of Science & Technology, Changsha 410114, ChinaCollege of Engineering, University of Massachusetts Dartmouth, Dartmouth, MA 02747, USAThe ocean is the largest source of water vapor on the planet, while precipitation is the greatest in tropical oceans and coastal areas. As a strong convective weather, typhoons bring not only strong winds but also strong precipitations. The accurate prediction of rainfall and precipitation induced by typhoons is still difficult because of the nonlinear relationship between typhoon precipitation and physical processes such as typhoon dynamics, heat, cloud microphysics, and radiation. In order to fully describe the interaction between sea and air, we simulated rainfall distribution under the influence of a typhoon using a state-of-the-art, atmosphere−ocean-wave model considering a real typhoon over the South China Sea as a case study. The typhoon wind field, pressure field, and spatial and temporal distribution of rainfall were simulated on the basis of this coupled atmosphere−ocean-wave model. The spatial asymmetry distribution characteristics of typhoon wind field, pressure field, and rainfall were revealed by the simulation. The reasons for this asymmetric distribution were elaborated through a diagnostic analysis.https://www.mdpi.com/2306-5338/6/2/42heavy rainfallprecipitationspatial and temporal distributiontropical cyclonenumerical simulation
collection DOAJ
language English
format Article
sources DOAJ
author Zhiyuan Wu
Naire Mohamad Alshdaifat
spellingShingle Zhiyuan Wu
Naire Mohamad Alshdaifat
Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone
Hydrology
heavy rainfall
precipitation
spatial and temporal distribution
tropical cyclone
numerical simulation
author_facet Zhiyuan Wu
Naire Mohamad Alshdaifat
author_sort Zhiyuan Wu
title Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone
title_short Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone
title_full Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone
title_fullStr Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone
title_full_unstemmed Simulation of Marine Weather during an Extreme Rainfall Event: A Case Study of a Tropical Cyclone
title_sort simulation of marine weather during an extreme rainfall event: a case study of a tropical cyclone
publisher MDPI AG
series Hydrology
issn 2306-5338
publishDate 2019-05-01
description The ocean is the largest source of water vapor on the planet, while precipitation is the greatest in tropical oceans and coastal areas. As a strong convective weather, typhoons bring not only strong winds but also strong precipitations. The accurate prediction of rainfall and precipitation induced by typhoons is still difficult because of the nonlinear relationship between typhoon precipitation and physical processes such as typhoon dynamics, heat, cloud microphysics, and radiation. In order to fully describe the interaction between sea and air, we simulated rainfall distribution under the influence of a typhoon using a state-of-the-art, atmosphere−ocean-wave model considering a real typhoon over the South China Sea as a case study. The typhoon wind field, pressure field, and spatial and temporal distribution of rainfall were simulated on the basis of this coupled atmosphere−ocean-wave model. The spatial asymmetry distribution characteristics of typhoon wind field, pressure field, and rainfall were revealed by the simulation. The reasons for this asymmetric distribution were elaborated through a diagnostic analysis.
topic heavy rainfall
precipitation
spatial and temporal distribution
tropical cyclone
numerical simulation
url https://www.mdpi.com/2306-5338/6/2/42
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AT nairemohamadalshdaifat simulationofmarineweatherduringanextremerainfalleventacasestudyofatropicalcyclone
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