Cloud-Resolving-Model Simulations of Nocturnal Precipitation over the Himalayan Slopes and Foothills

A numerical experiment with a 2-km resolution was conducted using the Weather Research and Forecasting (WRF) Model to investigate physical processes driving nocturnal precipitation over the Himalayas during the mature monsoon seasons between 2003 and 2010. The WRF Model simulations of increases in p...

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Veröffentlicht in:Journal of hydrometeorology 2021-12, Vol.22 (12), p.3171-3188
Hauptverfasser: Sugimoto, Shiori, Ueno, Kenichi, Fujinami, Hatsuki, Nasuno, Tomoe, Sato, Tomonori, Takahashi, Hiroshi G.
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container_issue 12
container_start_page 3171
container_title Journal of hydrometeorology
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creator Sugimoto, Shiori
Ueno, Kenichi
Fujinami, Hatsuki
Nasuno, Tomoe
Sato, Tomonori
Takahashi, Hiroshi G.
description A numerical experiment with a 2-km resolution was conducted using the Weather Research and Forecasting (WRF) Model to investigate physical processes driving nocturnal precipitation over the Himalayas during the mature monsoon seasons between 2003 and 2010. The WRF Model simulations of increases in precipitation twice a day, one in the afternoon and another around midnight, over the Himalayan slopes, and of the single nocturnal peak over the Himalayan foothills were reasonably accurate. To understand the synoptic-scale moisture transport and its local-scale convergence generating the nocturnal precipitation, composite analyses were conducted using the reanalysis dataset and model outputs. In the synoptic scale, moisture transport associated with the westward propagation of low pressure systems was found when nocturnal precipitation dominated over the Himalayan slopes. In contrast, moisture was directly provided from the synoptic-scale monsoon westerlies for nocturnal precipitation over the foothills. The model outputs suggested that precipitation occurred on the mountain ridges in the Himalayas during the afternoon and expanded horizontally toward lower-elevation areas through the night. During the nighttime, the downslope wind was caused by radiative cooling at the surface and was intensified by evaporative cooling by hydrometeors in the near-surface layer. As a result, convergence between the downslope wind and the synoptic-scale flow promoted nocturnal precipitation over the Himalayas and to the south, as well as the moisture convergence by orography and/or synoptic-scale circulation patterns. The nocturnal precipitation over the Himalayas was not simulated well when we used the coarse topographic resolution and the smaller number of vertical layers.
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During the nighttime, the downslope wind was caused by radiative cooling at the surface and was intensified by evaporative cooling by hydrometeors in the near-surface layer. As a result, convergence between the downslope wind and the synoptic-scale flow promoted nocturnal precipitation over the Himalayas and to the south, as well as the moisture convergence by orography and/or synoptic-scale circulation patterns. 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source American Meteorological Society; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; JSTOR Archive Collection A-Z Listing; Alma/SFX Local Collection
subjects Altitude
Circulation patterns
Climate
Convergence
Cooling
Downslope winds
Elevation
Evaporative cooling
Experiments
Foothills
Hydrometeors
Low pressure
Low pressure systems
Modelling
Moisture
Moisture effects
Monsoon precipitation
Monsoons
Mountains
Near-surface layer
Numerical experiments
Orography
Precipitation
Radiative cooling
Resolution
Ridges
Seasons
Simulation
Slopes
Summer
Surface boundary layer
Surface layers
Topography
Transport
Weather forecasting
Westerlies
Wind
title Cloud-Resolving-Model Simulations of Nocturnal Precipitation over the Himalayan Slopes and Foothills
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