Yuli Shan

Dr. Yuli Shan

Integrated Research on Energy, Environment and Society (IREES),Energy and Sustainability Research Institute Groningen, University of Groningen, 9700 AB Groningen, The Netherlands

Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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19 May 2020 in Nature Climate Change
Verified
Journal Article
Open access
PDF file
CQCorinne Le Quéré
Corinne Le Quéré
RJRobert B. Jackson
Robert B. Jackson
MJMatthew W. Jones
Matthew W. Jones
ASAdam J. P. Smith
Adam J. P. Smith
SASam Abernethy
Sam Abernethy
GPGlen P. Peters
Glen P. Peters
Government policies during the COVID-19 pandemic have drastically altered patterns of energy demand around the world. Many international borders were closed and populations were confined to their homes, which reduced transport and changed consumption patterns. Here we compile government policies and activity data to estimate the decrease in CO2 emissions during forced confinements. Daily global CO2 emissions decreased by –17% (–11 to –25% for ±1σ) by early April 2020 compared with the mean 2019 levels, just under half from changes in surface transport. At their peak, emissions in individual countries decreased by –26% on average. The impact on 2020 annual emissions depends on the duration of the confinement, with a low estimate of –4% (–2 to –7%) if prepandemic conditions return by mid-June, and a high estimate of –7% (–3 to –13%) if some restrictions remain worldwide until the end of 2020. Government actions and economic incentives postcrisis will likely influence the global CO2 emissions path for decades.

16 January 2018 in Scientific Data
Verified
Journal Article
Open access
PDF file
YSYuli Shan
Yuli Shan
DGDabo Guan
Dabo Guan
HZHeran Zheng
Heran Zheng
JOJiamin Ou
Jiamin Ou
YLYuan Li
Yuan Li
QZQiang Zhang
Qiang Zhang
China is the world’s top energy consumer and CO2 emitter, accounting for 30% of global emissions. Compiling an accurate accounting of China’s CO2 emissions is the first step in implementing reduction policies. However, no annual, officially published emissions data exist for China. The current emissions estimated by academic institutes and scholars exhibit great discrepancies. The gap between the different emissions estimates is approximately equal to the total emissions of the Russian Federation (the 4th highest emitter globally) in 2011. In this study, we constructed the time-series of CO2 emission inventories for China and its 30 provinces. We followed the Intergovernmental Panel on Climate Change (IPCC) emissions accounting method with a territorial administrative scope. The inventories include energy-related emissions (17 fossil fuels in 47 sectors) and process-related emissions (cement production). The first version of our dataset presents emission inventories from 1997 to 2015. We will update the dataset annually. The uniformly formatted emission inventories provide data support for further emission-related research as well as emissions reduction policy-making in China.

13 February 2020 in Scientific Data
Verified
Journal Article
Open access
PDF file
YSYuli Shan
Yuli Shan
QHQi Huang
Qi Huang
DGDabo Guan
Dabo Guan
KHKlaus Hubacek
Klaus Hubacek
Despite China’s emissions having plateaued in 2013, it is still the world’s leading energy consumer and CO2 emitter, accounting for approximately 30% of global emissions. Detailed CO2 emission inventories by energy and sector have great significance to China’s carbon policies as well as to achieving global climate change mitigation targets. This study constructs the most up-to-date CO2 emission inventories for China and its 30 provinces, as well as their energy inventories for the years 2016 and 2017. The newly compiled inventories provide key updates and supplements to our previous emission dataset for 1997–2015. Emissions are calculated based on IPCC (Intergovernmental Panel on Climate Change) administrative territorial scope that covers all anthropogenic emissions generated within an administrative boundary due to energy consumption (i.e. energy-related emissions from 17 fossil fuel types) and industrial production (i.e. process-related emissions from cement production). The inventories are constructed for 47 economic sectors consistent with the national economic accounting system. The data can be used as inputs to climate and integrated assessment models and for analysis of emission patterns of China and its regions.

12 November 2020 in Scientific Data
Verified
Journal Article
Open access
PDF file
JCJiandong Chen
Jiandong Chen
MGMing Gao
Ming Gao
SCShulei Cheng
Shulei Cheng
WHWenxuan Hou
Wenxuan Hou
MSMalin Song
Malin Song
YSYuli Shan
Yuli Shan
With the implementation of China’s top-down CO2 emissions reduction strategy, the regional differences should be considered. As the most basic governmental unit in China, counties could better capture the regional heterogeneity than provinces and prefecture-level city, and county-level CO2 emissions could be used for the development of strategic policies tailored to local conditions. However, most of the previous accounts of CO2 emissions in China have only focused on the national, provincial, or city levels, owing to limited methods and smaller-scale data. In this study, a particle swarm optimization-back propagation (PSO-BP) algorithm was employed to unify the scale of DMSP/OLS and NPP/VIIRS satellite imagery and estimate the CO2 emissions in 2,735 Chinese counties during 1997–2017. Moreover, as vegetation has a significant ability to sequester and reduce CO2 emissions, we calculated the county-level carbon sequestration value of terrestrial vegetation. The results presented here can contribute to existing data gaps and enable the development of strategies to reduce CO2 emissions in China.

9 November 2021 in Earth's Future
Verified
Journal Article
Open access
PDF file
YGYuru Guan
Yuru Guan
YSYuli Shan
Yuli Shan
QHQi Huang
Qi Huang
HCHuilin Chen
Huilin Chen
DWDan Wang
Dan Wang
KHKlaus Hubacek
Klaus Hubacek
Energy and emission data are crucial to climate change research and mitigation efforts. The accuracy of energy statistics is essential for mitigation strategies and evaluating the performance of low carbon energy transition efforts. This study provides the most up‐to‐date emission inventories for China and its provinces for 2018 and 2019. We also update the carbon dioxide (CO2) emission inventories of China and 30 provinces since 2012 based on the newly revised energy statistics. The inventories are compiled in a combined accounting approach of scope 1 (Intergovernmental Panel on Climate Change territorial emissions from 17 types of fossil fuel combustion and cement production by 47 socioeconomic sectors) and scope 2 (emissions from purchased electricity and heat consumption). The most recent energy revision led to an increase in reported national CO2 emissions by an average of 0.3% from 2014 to 2017. The results show that data revisions raised China's carbon intensity mitigation baseline (in 2005) by 5.1%–10.8% and thus made it more challenging to fulfill the mitigation pledges. However, the 2020 carbon intensity mitigation target was achieved ahead of schedule in 2018. A preliminary estimate of China's national emissions for 2020 shows that the COVID‐19 pandemic and lockdown was not able to offset China's annual increase in CO2 emissions. These emissions inventories provide an improved evidence base for China's policies toward net‐zero emissions.

1 December 2016 in Applied Energy
Verified
Journal Article
Closed access
YSYuli Shan
Yuli Shan
JLJianghua Liu
Jianghua Liu
ZLZhu Liu
Zhu Liu
XXXinwanghao Xu
Xinwanghao Xu
Shuai ShaoShuai Shao
Shuai Shao
DGDabo Guan
Dabo Guan