Yanfen Wang

Yanfen Wang


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

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

Representative Publications

View All Publications
6 September 2022 in Nature Reviews Earth & Environment
Verified
Journal Article
Closed access
PDF file
YWYanfen Wang
Yanfen Wang
WLWangwang Lv
Wangwang Lv
KXKai Xue
Kai Xue
Shiping WangShiping Wang
Shiping Wang
LZLirong Zhang
Lirong Zhang
HNHaishan Niu
Haishan Niu

15 June 2021 in Proceedings of the National Academy of Sciences
Verified
Journal Article
Closed access
PDF file
MWMinghui Wu
Minghui Wu
Shengyun ChenShengyun Chen
Shengyun Chen
JCJianwei Chen
Jianwei Chen
KXKai Xue
Kai Xue
SCShi-Long Chen
Shi-Long Chen
YWYanfen Wang
Yanfen Wang
Significance: Permafrost degradation may induce soil carbon (C) loss, critical for global C cycling, and be mediated by microbes. Despite larger C stored within the active layer of permafrost regions, which are more affected by warming, and the critical roles of Qinghai–Tibet Plateau in global C cycling, most previous studies focused on the permafrost layer and in high-latitude areas. Here, we demonstrate in situ that permafrost degradation alters the diversity and potentially decreases the stability of active layer microbial communities. Additionally, these changes are associated with soil C loss and potentially a positive C feedback. This study provides insights into microbial-mediated mechanisms responsible for C loss within the active layer in degraded permafrost, aiding in the modeling of C emission under future scenarios.

27 September 2022 in Nature Reviews Earth & Environment
Verified
Journal Article
Closed access
PDF file
HHuai Chen
Huai Chen
PJPeijun Ju
Peijun Ju
QZQiuan Zhu
Qiuan Zhu
XXXingliang Xu
Xingliang Xu
NWNing Wu
Ning Wu
YWYanfen Wang
Yanfen Wang

12 October 2023 in Nature Communications
Verified
Journal Article
Open access
PDF file
QZQiu’an Zhu
Qiu’an Zhu
HHuai Chen
Huai Chen
CPChanghui Peng
Changhui Peng
JLJinxun Liu
Jinxun Liu
SPShilong Piao
Shilong Piao
YWYanfen Wang
Yanfen Wang
Intense grazing may lead to grassland degradation on the Qinghai-Tibetan Plateau, but it is difficult to predict where this will occur and to quantify it. Based on a process-based ecosystem model, we define a productivity-based stocking rate threshold that induces extreme grassland degradation to assess whether and where the current grazing activity in the region is sustainable. We find that the current stocking rate is below the threshold in ~80% of grassland areas, but in 55% of these grasslands the stocking rate exceeds half the threshold. According to our model projections, positive effects of climate change including elevated CO2 can partly offset negative effects of grazing across nearly 70% of grasslands on the Plateau, but only in areas below the stocking rate threshold. Our analysis suggests that stocking rate that does not exceed 60% (within 50% to 70%) of the threshold may balance human demands with grassland protection in the face of climate change.

25 September 2019 in Global Change Biology
Verified
Journal Article
Closed access
PDF file
LLLinfeng Li
Linfeng Li
ZZZhenzhen Zheng
Zhenzhen Zheng
WWWeijin Wang
Weijin Wang
JBJoel A. Biederman
Joel A. Biederman
XXXingliang Xu
Xingliang Xu
YWYanfen Wang
Yanfen Wang

1 September 2019 in Applied Catalysis B: Environment and Energy
Verified
Journal Article
Closed access
YWYanfen Wang
Yanfen Wang
MZMiao Zhang
Miao Zhang
HYHai Yu
Hai Yu
YZYong Zuo
Yong Zuo
JGJuan Gao
Juan Gao
ZSZhaoqi Sun
Zhaoqi Sun