Journal of Arid Meteorology ›› 2012, Vol. 30 ›› Issue (4): 529-538.
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DING Xiaodong1,2,HUANG Jianping1,LI Jiming1,WANG Tianhe1,HUANG Zhongwei1
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丁晓东1,2 ,黄建平1 ,李积明1 ,王天河1 ,黄忠伟1
通讯作者:
作者简介:
基金资助:
国家重大科学研究计划( 2012CB955301) 、科技支撑计划( 2009BAC51B04) 、国家自然科学基金( 41205015) 及半干旱气候变化教育部重点试验室( 兰州大学) 开放基金共同资助.
Abstract:
The CLOUDSAT and CALIPSO active satellite remote sensing data from January 2007 to December 2008 are used to analyze macro and micro vertical strcture characteristics of the different cloud types over three typical regions ( the Loess Plateau,the Qilian Mountain region and Tishan Mountain region) in Northwest China. The results show that the total cloud fraction in the Loess Plateau, the Qilian and the Tianshan Mountain region was 62. 8%,65. 2% and 73. 4%,respectively. Over these regions cumuliform clouds are more in summer but stratiform clouds are more in winter. And the cloud vertical probability density distribution presented obvious regional and seasonal characteristics,and the peak region appeared at 2 - 6 km. The cloud liquid water content showed significant seasonal variations and decreasing trend with altitude,and the maximum value is 0. 47 mg /m3 in summer in Tianshan Mountain region and 0. 38 mg /m3 in the Qilian Mountain region. The average effective particle radius of liquid cloud is 8 - 16 μm. With altitude increasing, the effective particle radius presented a significant decreasing trend for precipitation clouds,while a weak increasing trend for non- precipitation clouds.
Key words: precipitation enhancement, active satellite remote sensing, cloud fraction, cloud water content, cloud effective particle radius, vertical distribution
摘要:
利用2007 年1 月至2008 年12 月CLOUDSAT 和CALIPSO 卫星主动遥感资料分析了我国西北3 个典型区域不同云类型的宏观及微观的垂直结构特征。结果表明: 黄土高原、祁连山和天山地区的年均总云分数分别为62. 8%, 65. 2% 和73. 4%; 3 个区域的积状云在夏秋季节发展旺盛,而层状云在冬春季节占主导地位。云层垂直方向的概率密度分布具有显著的区域和季节变化特征,其峰值位于2 ~ 6 km 之间。各个区域云液态水含量自云底向上有明显的递减趋势,夏季天山和祁连山地区低层具有丰富的云水资源,峰值分别达0. 47 mg /m 3、0. 38 mg /m3。各个区域的云液态水含量峰值以冬季最小,夏季最大。对应的液态云有效粒子半径平均值位于8 ~ 16 μm 之间。降水云的有效粒子半径随高度上升具有明显的递减趋势,而非降水云则存在较弱的增加趋势。这种云层垂直方向上的结构变化对降水有直接影响,是评估人工增雨潜力的重要依据。
关键词: 人工增雨, 主动卫星遥感, 云分数, 云水含量, 有效粒子半径, 垂直分布
CLC Number:
P407. 2
丁晓东,黄建平,李积明,王天河,黄忠伟. 基于主动卫星遥感研究西北地区云层垂直结构特征及其对人工增雨的影响[J]. 干旱气象, 2012, 30(4): 529-538.
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