Quanqin Shao

Quanqin Shao


Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

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

Representative Publications

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24 February 2011 in Climatic Change
Verified
Journal Article
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LHLin Huang
Lin Huang
JLJiyuan Liu
Jiyuan Liu
QSQuanqin Shao
Quanqin Shao
RLRonggao Liu
Ronggao Liu

15 April 2012 in Science China Earth Sciences
Verified
Journal Article
Closed access
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ZCZhuoQi Chen
ZhuoQi Chen
QSQuanqin Shao
Quanqin Shao
JLJiYuan Liu
JiYuan Liu
JWJunBang Wang
JunBang Wang

1 April 2011 in Journal of Geographical Sciences
Verified
Journal Article
Closed access
PDF file
QSQuanqin Shao
Quanqin Shao
LHLin Huang
Lin Huang
JLJiyuan Liu
Jiyuan Liu
WKWenhui Kuang
Wenhui Kuang
JLJia Li
Jia Li

11 February 2019 in Remote Sensing
Verified
Journal Article
Open access
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Yuzhi TangYuzhi Tang
Yuzhi Tang
QSQuanqin Shao
Quanqin Shao
JLJiyuan Liu
Jiyuan Liu
HZHaiyang Zhang
Haiyang Zhang
FYFan Yang
Fan Yang
GGGuoli Gong
Guoli Gong
Ecological restoration programs are expected to control environmental deterioration and enhance ecosystem functions under a scenario of increasing human disturbance. The largest ecological restoration program ever implemented in China, the first round of the countrywide Grain for Green Program (GGP), finished in 2010. However, it is not known whether the ecological changes that resulted from the GGP met the restoration goal across the whole implementation region. In this study, we monitored and assessed the ecological changes in the whole GGP region in China over the lifetime of the first round of implementation (2000–2010), by establishing a comprehensive assessment indicator system composed of ecosystem pattern, ecosystem quality (EQ), and key ecosystem services (ESs). Remote sensing interpretation, ecological model simulations based on multi-source images, and trend analysis were used to generate land use and land cover (LULC) datasets and estimate ES and ESs indicators. Results showed that while forest increased by 0.77%, artificial land increased more intensely by 22.38%, and cropland and grassland decreased by 1.81% and 0.68%, respectively. The interconversion of cropland and forest played a primary role in ecosystem pattern change. The increase in ecosystem quality measures, including fractional vegetation cover (0.1459% yr−1), leaf area index (0.0121 yr−1), and net primary productivity (2.6958 gC m−2 yr−1), and the mitigation of ecosystem services deterioration in soil water loss (−0.0841 t ha yr−1) and soil wind loss (−1.0071 t ha yr−1) in the GGP region, indicated the positive ecological change in the GGP region to some extent, while southern GGP subregions improved more than the those in the north on the whole. The GGP implementation other than climate change impacted ecological change, with contributions of 14.23%, 9.94%, 8.23%, 30.45%, and 18.05% in the ecological outputs mentioned above, respectively. However, the water regulation did not improve (−2283 t km−2 yr−1), revealing trade-offs between ecosystem services and inappropriate afforestation in ecological restoration programs. Future GGP implementation should change the practice of large-scale afforestation, and focus more on the restoration of existing forest and cultivation of young plantings, formulating rational and specific plans and designs for afforestation areas through the establishment of near-natural vegetation communities, instead of single-species plantations, guided by regional climate and geographical characteristics.

7 March 2012 in Journal of Geographical Sciences
Verified
Journal Article
Closed access
PDF file
LBLongfei Bing
Longfei Bing
QSQuanqin Shao
Quanqin Shao
JLJiyuan Liu
Jiyuan Liu

20 February 2012 in Journal of Geo-information Science
Verified
Journal Article
Closed access
LBLongfei Bing
Longfei Bing
HSHongbo Su
Hongbo Su
QSQuanqin Shao
Quanqin Shao
JLJiyuan Liu
Jiyuan Liu