​Restoration ecology, global change biology, forest ecology，lichen ecology

2008.07-2013.07: Ph.D. in Ecology, Xishuangbanna Tropical Garden, Chinese Academy of Science.  

2005.07-2008.07: M.Sc. in Ecology, Xishuangbanna Tropical Garden, Chinese Academy of Science.  

2001.09-2005.07: B.Sc. in Biology, Lanzhou University. 

   

2025.05-: Professor in Restoration Ecology Group, Xishuangbanna Tropical Botanical Garden (XTBG), Chinese Academy of Sciences (CAS)

2016.01-2025.05: Associate Professor in Restoration Ecology Group, Xishuangbanna Tropical Botanical Garden (XTBG), Chinese Academy of Sciences (CAS) 

2013.07-2015.12: Assistant researcher in Restoration Ecology Group, Xishuangbanna Tropical Botanical Garden (XTBG), Chinese Academy of Sciences (CAS) 

   

1)      Liu, Y., Sun, W., Jia, T., Su, T.H., Wu, S.S., Zhou, C.Y., Mo, Y.X., Qi, J.H., Lu, Z.Y., Li, S.*, 2025. Leaf nutrient resorption of vascular epiphytes is regulated by stoichiometry and nutrient limitation control strategies. Plant, Cell & Environment 48, 4550-4563.

2)      Su, T.H., Zhou, C.Y., Sun, W., Jia, T., Hu, T., Li, Z.F., P, X.Y., Lu, Z.Y., Li, S.*, 2023. Greater differentiation in nitrogen sources is essential for co-occurring epiphytes under low-nitrogen canopy conditions. Environmental and Experimental Botany 215, 105509.

3)      Hu, H.X., Mo, Y.X., Shen, T., Wu, Y., Shi, X.M., Ai, Y.Y., Lu, H.Z., Zakari, S., Li, S.*, Song, L.*, 2022. Simulated high-intensity phorophyte removal mitigates the robustness of epiphyte community and destroys commensal network structure. Forest Ecology and Management 526, 120586.

4)      Pu, X.Y., Li, S.*, Hu, T., Wu, Y., Lu, Z.Y., Yang, J.B., 2021. Fast restore of the structure and composition of hemiepiphytes after a heavy-snowfall event in a subtropical forest. Acta Oecologica 113, 103770.

5)      Liu, S., Li, S.*, Fan, X.Y., Yuan, G.D., Hu, T., Shi, X.M., Huang, J.B., Pu, X.Y., Wu, C.S., 2019. Comparison of two noninvasive methods for measuring the pigment content in foliose macrolichens. Photosynthesis Research 141, 245-257.

6)      Li, S.*, Liu, W.Y.*, Shi, X.M., Liu, S., Hu, T., Song, L., Lu, H.Z., Chen, X., Wu, C.S, 2019. Non-dominant trees significantly enhance species richness of epiphytic lichens in subtropical forests of southwest China. Fungal Ecology 37, 10-18.

7)      Li, S.*, Liu, S., Shi, X.M., Liu, W.Y.*, Song, L., Lu, H.Z., Chen, X., Wu, C.S, 2017. Forest type and tree characteristics determine the vertical distribution of epiphytic lichen biomass in subtropical forests. Forests 8, 436.

8)      Li, S., Liu, W.Y.*, Li, D.W., Song, L., Shi, X.M., Lu, H.Z., 2015. Species richness and vertical stratification of epiphytic lichens in subtropical primary and secondary forests in southwest China. Fungal Ecology 17, 30-40.

9)      Li, S., Liu, W.Y.*, Li, D.W., Li, Z.X., Song, L., Chen, K., Fu, Y., 2014. Slower rates of litter decomposition of dominant epiphytes in the canopy than on the forest floor in a subtropical montane forest, southwest China. Soil Biology & Biochemistry 70, 211-220.

10)   Li, S., Liu, W.Y.*, Li, D.W., 2013. Epiphytic lichens in subtropical forest ecosystems in southwest China: species diversity and implications for conservation. Biological Conservation 159, 88-95.

11)   Li, S., Liu, W.Y.*, Li, D.W., 2013. Bole epiphytic lichens as potential indicators of environmental change in subtropical forest ecosystems in southwest China. Ecological Indicators 29, 93-104.

12)   Li, S., Liu, W.Y.*, Wang, L.S., Ma, W.Z., Song, L., 2011. Biomass, diversity and composition of epiphytic macrolichens in primary and secondary forests in the subtropical Ailao Mountains, southwest China. Forest Ecology and Management 261, 1760-1770.

已指导学生

普晓妍  硕士研究生  071300-生态学  

苏天昊  硕士研究生  071300-生态学  

周春艳  硕士研究生  071300-生态学  

孙维  硕士研究生  071300-生态学  

刘彦  硕士研究生  071300-生态学  

现指导学生

徐榕  硕士研究生  071300-生态学  

孙梦凡  硕士研究生  071300-生态学  

刘文静  博士研究生  071300-生态学