Sergey Venevsky（謝爾蓋·韋涅夫斯基），現任清華大學地球系統科學系副教授，主要從事全球植被動態模擬、生物多樣性熱點識別及火災與生態系統相互作用研究。早年於莫斯科能源研究所特殊設計局擔任軟體工程師，1993年起先後在奧地利國際套用系統分析研究所、德國波茨坦氣候影響研究所擔任研究員。2003年赴日本國立環境研究所及全球變化前沿研究系統任職，2004年加入英國氣象局哈德利中心任高級研究員。2006年至2013年在英國利茲大學地理學院任高級講師，2013年起任職於清華大學。
研究聚焦動態全球植被模型（DGVM）開發及區域化套用，涉及全球碳循環、凍土帶水文模擬等領域。主持國家自然科學基金項目《黑龍江區域氣候、凍土和野火動態對水文和植物影響的數值模擬研究》，主導或參與多個國際合作項目。作為通訊作者或合作者在《Global Change Biology》《One Earth》《美國國家科學院院刊》等期刊發表多篇論文，揭示火災動態變化對陸地碳匯及氣候變暖的影響機制，並提出政策權衡建議。指導博士生在能源經濟、生物多樣性評估等領域開展研究並發表成果。
基本介紹
- 職業：教師
- 專業方向：Dynamic Global Vegetation Modelling (DGVM) at global scale
- 任職院校：清華大學
- 外文名：Sergey Venevsky
人物經歷,研究方向,學術成果,
人物經歷
工作經歷
1985.07 – 1990.09: The Special Designer Bureau of the Moscow Power Institute, Moscow, USSR, Software Engineer
1993.06 – 1997.02: Sustainable Forestry Project, International Institute for Applied System Analysis, Laxenburg, Austria, Research scientist
1997.02 – 2003.10: Natural Systems Department, Climate Department,
Potsdam Institute for Climate Impact Research, Potsdam, Germany, Research scientist
2003.10 – 2004.05: National Institute for Environmental Sciences, Tsukuba, Japan and Frontier Research System for Global Change, Yokohama, Japan, Research scientist
2004.10 – 2006.09: Hadley Centre for Climate Change, Met Office, Exeter, UK, Senior research scientist
2006.09 – 2013.01: School of Geography, University of Leeds, UK, Lecturer B (senior)
2013.02 – present: Department of Earth System Science, Tsinghua University, Beijing, China, Associate Professor
研究方向
Dynamic Global Vegetation Modelling (DGVM) at global scale；Regionalisation of Dynamic Global Vegetation Modelling (DGVM) to continental scale；Global fire modelling within DGVM and Global Circulation Model (GCM)；Carbon balance and hydrology in permafrost zone at continental scale；Global vegetation diversity model；Identification of continental scale biodiversity hotspots；Wildfires in the continental scale biodiversity hotspots
學術成果
[1]Venevsky, S., et al. (2003), Large-scale energetic and landscape factors of vegetation diversity Mapping tree density at a global scale, ECOLOGY LETTERS, 6(11), 1004-1016.
[2]Venevsky, S., K. Thonicke, S. Sitch, and W. Cramer (2002), Simulating fire regimes in human-dominated ecosystems: Iberian Peninsula case study, GLOBAL CHANGE BIOLOGY, 8(10), 984-998
[3]Venevsky, S., and I. Venevskaia (2005), Hierarchical systematic conservation planning at the national level: Identifying national biodiversity hotspots using abiotic factors in Russia, Biological Conservation, 124(2), 235-251.
[4]Venevsky, S., and S. Maksyutov (2007), SEVER: A modification of the LPJ global dynamic vegetation model for daily time step and parallel computation, ENVIRONMENTAL MODELLING & SOFTWARE, 22(1), 104-109.
[5]Sitch, S., et al. (2003), Evaluation of ecosystem dynamics, plant geography and terrestrial carbon cycling in the LPJ dynamic global vegetation model, GLOBAL CHANGE BIOLOGY, 9(2), 161-185.
[6]Thonicke, K., S. Venevsky, S. Sitch, and W. Cramer (2001), The role of fire disturbance for global vegetation dynamics: coupling fire into a Dynamic Global Vegetation Model, GLOBAL ECOLOGY AND BIOGEOGRAPHY, 10(6), 661-677.
[7]Sykes, M. T., I. C. Prentice, B. Smith, W. Cramer, and S. Venevsky (2001), An introduction to the European Terrestrial Ecosystem Modelling Activity, Global Ecology and Biogeography, 10(6), 581-593.
[8]Sykes, M. T., I. C. Prentice, B. Smith, W. Cramer, and S. Venevsky (2001), An introduction to the European Terrestrial Ecosystem Modelling Activity, Global Ecology and Biogeography, 10(6), 581-593.
[9]Venevskaia, I., S. Venevsky, and C. D. Thomas (2013), Projected latitudinal and regional changes in vascular plant diversity through climate change: short-term gains and longer-term losses, Biodiversity and Conservation, 22(6-7), 1467-1483.
[10]Schuur, E. A. G., et al. (2008), Vulnerability of permafrost carbon to climate change: Implications for the global carbon cycle, Bioscience, 58(8), 701-714.
[11]Shvidenko, A., S. Venevsky, G. Raile, and S. Nilsson (1995), A SYSTEM FOR EVALUATION OF GROWTH AND MORTALITY IN RUSSIAN FORESTS, Water Air and Soil Pollution, 82(1-2), 333-348.
[12]Venevsky, S. V. (1991), ENTROPY AS A FUNCTION OF THE BIOSPHERE, Zhurnal Obshchei Biologii, 52(6), 900-915.
[13]Belotelov, N. V., B. G. Bogatyrev, A. P. Kirilenko, and S. V. Venevsky (1996), Modelling of time-dependent biome shifts under global climate changes, Ecological Modelling, 87(1-3), 29-40.
[14] Venevsky, S. V. (1991), ENTROPY AS A FUNCTION OF THE BIOSPHERE, Zhurnal Obshchei Biologii, 52(6), 900-915.
[15]Svirezhev, Y. M., and S. V. Venevsky (1998), Constraints on information measures of embodied solar energy fluxes in the biosphere, Ecological Modelling, 105(2-3), 227-234.
[16] Watts, N., et al. (2015), Health and climate change: policy responses to protect public health, Lancet, 386(10006), 53.
[17] Khvostikov, S, S. Venevsky and S. Bartalev (2015), Regional adaptation of a dynamic global vegetation model using a remote sensing data derived land cover map of Russia, Environmental Research Letters, 10(12)
