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Published： 07 February 2020 ，
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徐彬仁，魏瑗瑗，张晗，宋毅，杨支中.2020.中国海洋上空细粒子气溶胶与短寿命痕量气体的时空关系.遥感学报，24（2）： 173-181Xu B R，Wei Y Y，Zhang H，Song Y and Yang Z Z. 2020. Temporal and spatial relationship between fine particle aerosols and short-lived trace gas in Chinese ocean. Journal of Remote Sensing （Chinese）， 24（2）： 173-181［DOI：10.11834/jrs.20208231］
XU Binren,WEI Yuanyuan,ZHANG Han,SONG Yi,YANG Zhizhong. 2020. Temporal and spatial relationship between fine particle aerosols and short-lived trace gas in Chinese ocean. National Remote Sensing Bulletin. 24(2): 173-181
定量分析气溶胶与痕量气体之间的时空变化关系有助于进一步研究气粒转化。本文采用2006年—2015年MODIS气溶胶光学厚度（AOD）、细粒子模态比（FMF）和OMI痕量气体（SO
2
、NO
2
和HCHO）数据，对黄海、东海和南海区域上空的细粒子气溶胶与痕量气体进行定量分析。先对气溶胶和痕量气体作均值分析发现：AOD
fine
、SO
2
、NO
2
和HCHO的均值在黄海、南海、东海均依次减小；再对气溶胶对痕量气体的敏感度分析发现：黄海地区的AOD
fine
对SO
2
最敏感，敏感度为0.424，这与中国东部沿海城市的人为排放有关；而东海和南海地区对HCHO的敏感度较高，依次为0.664和0.545，主要受东南亚和中国南方地区生物质燃烧影响。最后，对3个区域的气溶胶与痕量气体按季节作相关性分析发现：黄海地区AOD
fine
在夏秋两季与SO
2
的相关性较强（
R
>
0.5），主要由于夏秋两季的温湿度大，利于发生气—粒转化；东海地区夏季HCHO与AOD
fine
相关性较明显（
R
=0.57）；南海春季HCHO与AOD
fine
相关性较好（
R
=0.57），呈现出区域与季节性的变化。最终发现，气溶胶与痕量气体随着时空变化存在相关关系。
Aerosols have important effects on global energy balance
cloud properties
rainfall frequency
and atmospheric circulation. To understand the impact of aerosols on climate change
this paper explores the quantitative relationship between fine particle aerosols and gases.Aerosol Optical Depth (AOD)
Fine Mode Fraction (FMF) from MODIS
and trace gas (SO
2
NO
2
and HCHO) from OMI were used to analyze the quantitative relationship between the fine aerosols and trace gases over the Yellow Sea
East China Sea
and South China Sea between 2006 and 2015.First
the mean values of the aerosols and trace gases were analyzed. The mean values of AOD
fine
SO
2
NO
2
and HCHO decreased orderly in the Yellow Sea
South China Sea
and East China Sea all decreased. Meanwhile
the sensitivity analysis of the relationship between aerosols and trace gases revealed that: AOD
fine
is most sensitive to SO
2
with a sensitivity of 0.424
which may be ascribed to the anthropogenic emissions from the coastal cities of Eastern China. Meanwhile
East China Sea and South China Sea demonstrate high sensitivity to HCHO (0.664 and 0.545
respectively)
which can be ascribed to the biomass combustion in Southeast Asia and Southern China. The seasonal correlation analysis of aerosols and trace gases in these three regions reveal that the AOD
fine
in the Yellow Sea has a strong correlation with SO
2
during summer and autumn (
R
>
0.5) mainly due to the high temperature and humidity. A significant correlation is observed between HCHO and AOD
fine
was significant in the East China Sea (
R
=0.57)
and a relatively good correlation is observed between HCHO and AOD
fine
in the South China Sea was relatively good (
R
=0.57) due to regional and seasonal changes.In sum
fine particle modal aerosol has a significant correlation with trace gases
and such relationship provides a scientific basis for understanding the aerosol processes
especially those of artificial aerosols dominated by fine particles.
遥感人为排放AODfine气溶胶痕量气体中国海域时空变化
remote sensinganthropogenic emissionsAODfineaerosolstrace gasesChina’s neighboring seaspatiotemporal change
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