Abstract

Our study analyzed the occurrence frequency and distribution of seedable clouds around the Korean Peninsula in order to better secure water resources. Cloud products from the Communication, Ocean, and Meteorological Satellite (COMS), including cloud fraction, cloud top height, cloud top temperature, cloud phase, cloud top pressure, cloud optical thickness, and rainfall intensity, were used. Daytime hourly data between 0900 and 1800 local standard time (LST) observed from December 2016 to November 2019 was used. Seedable clouds occurring within this period were evaluated based on seasonal cloud phases, occurrence frequency, and cloud characteristics according to land, sea, and cloud type. These clouds exhibited varying average occurrence frequencies in different seasons. Sc (stratocumulus) clouds exhibited the highest occurrence frequency for all seasons, with an average of 63%, followed by Cu (cumulus) at 15%, As (altostratus) at 13%, and Ac (altocumulus) at 6%. We determined that low-level clouds primarily occurred around the Korean Peninsula, and the occurrence frequency of stratiform clouds was highest for water phase seedable clouds, while the occurrence frequency of cumuliform clouds was highest for ice phase seedable clouds. We believe that precipitation enhancement experiments could be suitable for western and eastern seas around the Korean Peninsula as well as for mountainous regions on land.

Highlights

  • The rise in the temperature of the earth surface and its atmosphere owing to global warming is causing climate change worldwide

  • The occurrence frequency of seedable clouds occurred on land and sea and occurrence frequency according to cloud types were analyzed

  • The occurrence frequency of stratiform clouds was highest for water phase seedable clouds, while the occurrence frequency of cumuliform clouds was highest for ice phase seedable clouds

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Summary

Introduction

The rise in the temperature of the earth surface and its atmosphere owing to global warming is causing climate change worldwide. These factors are contributing to meteorological disasters such as heavy rain, floods, heatwaves, and droughts [1,2]. Fluctuations in water resources are increasing due to climate change [3]. Because droughts are inversely related to precipitation, an increase in precipitation can help alleviate droughts. Two-thirds of annual precipitation in summer leads to difficulties in securing water resources in South Korea [5,6,7].

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