海南云水资源分布特征和变化趋势的研究
Study on the Distribution Characteristics and Changing Trends of Cloud Water Resource in Hainan
DOI: 10.12677/ccrl.2024.135142, PDF,    科研立项经费支持
作者: 黄巧明:海南省气象灾害防御技术中心,海南 海口;海南省气象科学研究所,海南 海口;海南省南海气象防灾减灾重点实验室,海南 海口
关键词: 云水资源增雨潜力分布特征评估FNL再分析数据Cloud Water Resource Rainfall Enhancement Potential Distribution Characteristics Evaluation FNL Reanalysis Data
摘要: 使用云水资源监测评估方法(CWR-MEM)和NCEP/NCAR的FNL再分析数据,对2018~2020年海南空中水资源的分布特征和变化趋势进行研究,分析水汽、水凝物和云水资源的状况,估算云水资源人工增雨潜力。结果表明:1. 海南的年均降水量为1783.7 mm,年均水汽总量22651.0亿吨,年均水凝物总量639.5亿吨,年均云水资源总量31.4亿吨;2. 从各边界净输入的年均水汽总量为−219.0亿吨,年均水凝物总量为−1.3亿吨,水汽和水凝物都从岛内区域向外流出;3. 海南不同区域中,北部和中部水凝物总量较大,中部云系有较高的降水效率,云水资源总量也最为丰富;西部区域水凝物总量为各部区域中最少,降水效率也最低,都有很大一部分云水资源可供开发利用;4. 海南岛水汽分布是北部的水汽总量最多,西部的水汽总量最少,西部少、四周多;5. 水凝物的分布与降水相类似,北部、中部和南部的水凝物总量较为丰富,西部的水凝物总量最小;6. 水凝物明显小于水汽1至2个数量级,且空间分布不均匀;7. 水汽主要位于海南岛的沿海地区,最小值在西部;而水凝物的最大值位于中北部或中南部,依次往本岛四周减少。
Abstract: The distribution characteristics and variation trends of atmospheric water resource are studied in Hainan from 2018 to 2020, employing the Cloud Water Resource Monitoring and Evaluation Method (CWR-MEM) along with NCEP/NCAR FNL reanalysis data. The status of water vapor, hydrometeors, and cloud water resource is analyzed. And the artificial rainfall enhancement potential from cloud water resource is estimated. The results show that: 1. The annual average precipitation in Hainan is 1783.7 mm, the annual average total amount of atmospheric water vapor is 2265.10 billion tons, the annual average total amount of atmospheric hydrometeors is 63.95 billion tons, and the annual average total amount of cloud water resource is 3.14 billion tons. 2. The annual average total amount of atmospheric water vapor input from each boundary is −21.90 billion tons, and the annual average total amount of atmospheric hydrometeors is −0.13 billion tons. Both atmospheric water vapor and atmospheric hydrometeors flow out from the island area. 3. In different regions of Hainan, the total amount of atmospheric hydrometeors in the northern and central regions are relatively large, and the central cloud system has a higher precipitation efficiency, and the total amount of cloud water resource is also the most abundant; The total amount of atmospheric hydrometeors in the western region is the lowest among all regions, and the precipitation efficiency is also the lowest. A large portion of cloud water resources is available for development and utilization. 4. The distribution of atmospheric water vapor in Hainan Island is the highest in the north, the lowest in the west, and less in the west and more around. 5. The distribution of atmospheric hydrometeors is similar to precipitation, with the total amount of atmospheric hydrometeors being relatively abundant in the northern, central, and southern regions, while the total amount of atmospheric hydrometeors in the western region is the smallest. 6. Atmospheric hydrometeors are significantly smaller than atmospheric water vapor by about 1 - 2 orders of magnitude, and their spatial distribution is uneven. 7. Atmospheric water vapor is mainly located in the coastal areas of Hainan Island, with the minimum value in the west. The maximum value of atmospheric hydrometeors is in the central north or central south, and gradually decreases around the island.
文章引用:黄巧明. 海南云水资源分布特征和变化趋势的研究[J]. 气候变化研究快报, 2024, 13(5): 1253-1266. https://doi.org/10.12677/ccrl.2024.135142

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