Xiaohong Yao

Dr. Xiaohong Yao

Key Lab of Marine Environment and Ecology, Ministry of Education, Ocean University of China, Qingdao 266100, China

Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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3 March 2017 in Science Advances
Verified
Journal Article
Open access
PDF file
WLWeijun Li
Weijun Li
LXLiang Xu
Liang Xu
XLXiaohuan Liu
Xiaohuan Liu
JZJianchao Zhang
Jianchao Zhang
YLYangting Lin
Yangting Lin
Zongbo ShiZongbo Shi
Zongbo Shi
Acidic air pollutants dissolve iron in aerosols and fertilize the ocean.

13 December 2021 in Environmental Science & Technology
Verified
Journal Article
Closed access
MMMingchen Ma
Mingchen Ma
YGYang Gao
Yang Gao
ADAijun Ding
Aijun Ding
HSHang Su
Hang Su
HLHong Liao
Hong Liao
HGHuiwang Gao
Huiwang Gao

26 May 2017 in Environmental Science & Technology
Verified
Journal Article
Closed access
XTXiaolin Teng
Xiaolin Teng
QHQingjing Hu
Qingjing Hu
LZLeiming Zhang
Leiming Zhang
JQJiajia Qi
Jiajia Qi
JSJinhui Shi
Jinhui Shi
Xiaohong YaoXiaohong Yao
Xiaohong Yao

23 June 2020 in Geophysical Research Letters
Verified
Journal Article
Open access
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JSJinhui Shi
Jinhui Shi
YGYang Guan
Yang Guan
AIAkinori Ito
Akinori Ito
HGHuiwang Gao
Huiwang Gao
Xiaohong YaoXiaohong Yao
Xiaohong Yao
DZDaizhou Zhang
Daizhou Zhang
The current poor understanding of soluble iron (Fe) yield in atmospheric aerosols leaves two observational facts having not yet been correctly simulated in numerical models: the high Fe solubility in aerosols with low Fe content and, hence, the wide range of observed Fe solubility. Our observation at Qingdao, a coastal city of China, revealed that soluble Fe was produced along with aerosol acidification much more efficiently in fog than under other weather conditions. The median Fe solubility in fog aerosols, 5.81%, was 3.3 times of that in haze aerosols, 5.2 times of that in clear days, and 21.5 times of that in dust aerosols. Involving fog processing in models may reduce the discrepancy in the atmospheric flux of soluble Fe to the ocean between numerical simulations and field observations.

3 February 2012 in Journal of Geophysical Research: Atmospheres
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Journal Article
Closed access
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JFJ. L. Feng
J. L. Feng
ZGZ. G. Guo
Z. G. Guo
TZT. R. Zhang
T. R. Zhang
Xiaohong YaoXiaohong Yao
Xiaohong Yao
CCC. K. Chan
C. K. Chan
MFM. Fang
M. Fang

25 January 2017 in Scientific Reports
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Journal Article
Open access
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LFLimin Feng
Limin Feng
HSHengqing Shen
Hengqing Shen
YZYujiao Zhu
Yujiao Zhu
HGHuiwang Gao
Huiwang Gao
Xiaohong YaoXiaohong Yao
Xiaohong Yao
This report focuses on studying generation and/or evolution of sea-salt aerosols (SSA) on basis of measurements in the Northwest Pacific Ocean (NWPO), the marginal seas of China, at sea-beach sites and a semi-urban coastal site in 2012–2015. From measurements in the NWPO, we obtained the smallest generation function of the super-micron SSA mass ([MSSA]) by the local wind comparing to those previously reported. Vessel-caused wave-breaking was found to greatly enhance generation of SSA and increase [MSSA], which was subject to non-natural generation of SSA. However, naturally enhanced generation of SSA was indeed observed in the marginal seas and at the sea-beach site. The two enhancement mechanisms may explain the difference among this and previous studies. Size distributions of super-micron SSA exhibited two modes, i.e., 1–2 μm mode and ~5 μm mode. The 1–2 μm mode of SSA was enhanced more and comparable to the ~5 μm mode under the wind speed >7 m/s. However, the smaller mode SSA was largely reduced from open oceans to sea-beach sites with reducing wind speed. The two super-micron modes were comparable again at a semi-urban coastal site, suggesting that the smaller super-micron mode SSA may play more important roles in atmospheres.