研究隊伍
閆濤，男，1988.03；山西大同；研究生；研究員，博士生導師；人工林生產/生態(tài)功能形成與維持機制及提升途徑；《生態(tài)學雜志》編委，Journal of Plant Ecology、《植物生態(tài)學報》、《林業(yè)科學》等期刊青年編委；以第一或通訊作者在Ecology、New Phytologist、Global Change Biology、Soil Biology and Biochemistry、Tree Physiology、Agricultural and Forest Meteorology、Forest Ecology and Management等期刊發(fā)表SCI論文22篇。
2014.09-2017.07??中國科學院沈陽應用生態(tài)研究所 生態(tài)學 博士
2011.09-2014.07??中國科學院沈陽應用生態(tài)研究所 生態(tài)學 碩士
2007.09-2011.07??黑龍江大學 水土保持與荒漠化防治 學士
2025.04-至今 中國科學院沈陽應用生態(tài)研究所 研究員
2024.06-2025.03 蘭州大學 教授
2019.06-2024.05 蘭州大學 研究員
2017.07-2019.06 北京大學 博士后
2016.12-2017.02??Alberta Agriculture and Forestry, Canada 訪問學者
人工林；生產力；碳匯；養(yǎng)分與水分策略；氣候變化
遼寧省杰出青年、草地農業(yè)生態(tài)系統(tǒng)國家重點實驗室青年英才
2026-2027：遼寧省杰出青年基金(青A)，我國北方典型人工林功能穩(wěn)定性維持機制，項目負責人
2026-2030：中國科學院B類先導專項課題，三北地區(qū)低質低效林形成機制與提質增效，課題負責人
2026-2029：國家自然科學基金面上項目，落葉松人工林生產力形成的全系統(tǒng)物候驅動機制：基于長期氮添加控制實驗，項目負責人
2022-2026：國家自然科學基金重大項目專題，人工林生態(tài)系統(tǒng)生產力提升與碳匯維持機制，專題負責人
2022-2025：國家自然科學基金面上項目，氣候變化背景下落葉松人工林生產力形成與維持的水-氮互作機制，項目負責人
2019-2021：國家自然科學基金青年基金，溫度和光周期對華北落葉松秋季物候與養(yǎng)分再吸收的影響機制，項目負責人
2022-2024：甘肅省自然科學基金面上項目，西北半干旱區(qū)典型人工林衰退死亡的水碳作用機制，項目負責人
2019-2024：蘭州大學人才引進科研啟動費，項目負責人
[1]Ning SJ, Yan T*, Wang Z, Zhu JJ. 2026. Root resorption completes the tree nitrogen economy: Evidence from a 15-year nitrogen addition experiment across stand ages. New Phytologist, https://doi.org/10.1111/nph.71019.
[2]Song HH, Zhong TY, Zhu JX, Yan T*. 2025. Higher risk of hydraulic dysfunction and carbohydrate depletion of declining Larix principis-rupprechtii??trees. Ecological Processes, 14, https://doi.org/10.1186/s13717-024-00567-9.
[3]Ning SJ, He XR, Ma T, Yan T*. 2024. Attenuated asymmetry of above- versus belowground stoichiometry to a decadal nitrogen addition during stand development. Ecology, 105, e4458.
[4]Ning SJ, Yan T*, Luo WT, Tao SL, Zou XM, Li YJ, Shangguan ZJ, Wu YN, Zhang ZH, He JS*. 2024. Aridity-dependent resistance but strong resilience of grassland aboveground net primary productivity: evidence from long-term naturally occurring extreme precipitation events. Journal of Plant Ecology, rtae084, https://doi.org/10.1093/jpe/rtae084.
[5]Yan T*, Fang YT, Wang JS, Song HH, Zhong TY, Wang PL. 2024. Effects of long-term nitrogen addition on the shift of nitrogen cycle from open to closed along an age gradient of larch plantations in North China. Soil Biology and Biochemistry, 191, 109295.
[6]Yan T*, Wang LY, Wang PL, Zhong TY. 2023. Stability in the leaf functional traits of understory herbaceous species after 12-yr of nitrogen addition in temperate larch plantations. Frontiers in Plant Science, 14:1282884.
[7]Li XF, Wang X, Fang YT, Liu DW, Huang K, Wang PL, Zhang JX, Yan T*. 2023. Phenology advances uniformly in spring but diverges in autumn among three temperate tree species in response to warming. Agricultural and Forest Meteorology, 336, 109475.
[8]Yan T*, Wang LY, Zhong TY, Fu C. 2022. Decadal nitrogen addition increases divergence in intrinsic water-use efficiency between sapling and mature larch plantations. Forest Ecology and Management, 523, 120494.
[9]Wang PL, Fu C, Wang LY, Yan T*. 2022. Delayed autumnal leaf senescence following nutrient fertilization results in altered nitrogen resorption. Tree Physiology, 42, 1549-1559.
[10]Yan T, Fu YS, Campioli M, Pe?uelas J, Wang XH*. 2021. Divergent responses of phenology and growth to summer and autumnal warming. Global Change Biology, 27, 2905-2913.
[11]Yan T*, Song HH, Zeng H. 2020. Spring phenophases of larch are more sensitive to spring warming than to year-round warming: Results of a seasonally asymmetric warming experiment. Forest Ecology and Management, 474, https://doi.org/10.1016/j.foreco.2020.118368.
[12]Song HH, Yan T*, Wang JS, Sun ZZ. 2020. Precipitation variability drives the reduction of total soil respiration and heterotrophic respiration in response to nitrogen addition in a temperate forest plantation. Biology and Fertility of Soils, 56, 273-279.
[13]Yan T#, Song HH#, Wang ZQ, Teramoto M, Wang JS, Liang NS, Ma C, Sun ZZ, Xi Y, Li LL, Peng SS*. 2019. Temperature sensitivity of soil respiration across multiple time scales in a temperate plantation forest. Science of the Total Environment, 688, 479-485.
[14]Yan T, Qu TT, Song HH, Sun ZZ, Zeng H*, Peng SS*. 2019. Ectomycorrhizal fungi respiration quantification and drivers in three differently aged larch plantations. Agricultural and Forest Meteorology, 265, 245-251.
[15]Yan T, Zhu JJ*, Song HH, Yang K. 2019. Resorption-related nitrogen changes in the leaves and roots of Larix kaempferi seedlings under nutrient-sufficient and nutrient-starvation conditions. Journal of Plant Ecology, 12, 615-623.
[16]Yan T, Qu TT, Sun ZZ, Dbyzinski R, Chen AP, Yao XC, Zeng H, Piao SL*. 2018. Negative effect of nitrogen addition on soil respiration dependent on stand age: Evidence from a 7-year field study of larch plantations in northern China. Agricultural and Forest Meteorology, 262, 24-33.
[17]Yan T, Lü XT, Zhu JJ*, Yang K, Yu LZ, Gao T. 2018. Changes in nitrogen and phosphorus cycling suggest a transition to phosphorus limitation with the stand development of larch plantations. Plant and Soil, 422, 385-396.
[18]Yan T, Zhu JJ*, Fang YT, Yang K, Li MC. 2018. Effects of thinning on nitrogen status of a larch plantation, illustrated by 15N natural abundance and N resorption. Scandinavian Journal of Forest Research, 33, 357-364.
[19]Yan T, Zhu JJ*, Yang K. 2018. Leaf nitrogen and phosphorus resorption of woody species in response to climatic conditions and soil nutrients: a meta-analysis. Journal of Forestry Research, 29, 905-913.
[20]Yan T, Qu TT, Song HH, Ciais P, Piao SL, Sun ZZ, Zeng H*. 2018. Contrasting effects of N addition on the N and P status of understory vegetation in plantations of sapling and mature Larix principis-rupprechtii. Journal of Plant Ecology, 11, 843-852.
[21]Yan T, Zhu JJ*, Yang K*, Yu LZ, Zhang JX. 2017. Nutrient removal under different harvesting scenarios for larch plantations in northeast China: Implications for nutrient conservation and management. Forest Ecology and Management, 400, 150-158.
[22]Yan T, Lü XT, Yang K, Zhu JJ*. 2016. Leaf nutrient dynamics and nutrient resorption: a comparison between larch plantations and adjacent secondary forests in Northeast China. Journal of Plant Ecology, 9, 165-173.
[23]Yan ZJ, Chen C, Liu Y, Li YJ, Liu HY, Wang H, Yan T, Jing X, Ren S, Zi HB, Shi Y, Wang T, He JS*. 2026. Quantifying the trade-off between spring phenology and lethal frost risk: a meta-analysis. Nature Communications, https://doi.org/10.1038/s41467-026-70187-8.
[24]Ding GG, Zeng WJ, Yan T, Sun LJ, Chen WL, Lu MZ, Ma ZQ*. 2025. Root-mycorrhizal foraging strategies shift with forest age more than with nitrogen manipulation. Ecological Monographs, 95, e70039.
[25]Chen HZ, Zhang B, Potapov A, Hong PB, Meng B, Yan T, Yang Q, Wang SP*. 2025. Long-term nitrogen addition enhances the energy fluxes of soil macro-food webs in young but not mature forest plantations. Soil Ecology Letters, 7, 250338.
[26]Lu CY, van Groenigen KJ, Gillespie MAK, Hollister RD, Post E, Cooper EJ, Welker JM, Huang YX, Min XT, Chen JH, Jónsdóttir IS, Mauritz M, Cannone N, Natali SM, Schuur E, Molau U, Yan T, Wang H, He JS, Liu HY*. 2024. Diminishing warming effects on plant phenology over time. New Phytologist, https://doi.org/10.1111/nph.20019.
[27]Ding GG, Zeng WJ, Sun LJ, Chen FS, Lyu Y, Xu J, Yan T, Wang HM, Ma ZQ*. 2024. Root acquisitive traits mirror the functional modules of root-associated fungi. Soil Biology and Biochemistry, 190, 109317.
[28]Wang X, Zi HB, Wang JB, Guo XW, Zhang ZH, Yan T, Wang Q*, He JS*. 2023. Grazing-induced changes in soil microclimate and aboveground biomass modulate freeze–thaw processes in a Tibetan alpine meadow. Agriculture, Ecosystems, and Environment, 357, 108659.
[29]Lu CY, Zhang JJ, Min XT, Chen JH, Huang YX, Zhao HF, Yan T, Liu X, Wang H, Liu HY*. 2023. Contrasting responses of early- and late-season plant phenophases to altered precipitation. Oikos, https://onlinelibrary.wiley.com/doi/full/10.1111/oik.09829.
[30]Yang L, Wang JS, Geng Y, Niu SL, Tian DS, Yan T, Liu WG, Pan JX, Zhao XH, Zhang CY. 2022. Heavy thinning reduces soil organic carbon: Evidence from a 9-year thinning experiment in a pine plantation. Catena, https://doi.org/10.1016/j.catena.2021.106013.
[31]Yang L, Niu SL, Tian DS, Zhang CY, Liu WG, Yu Z, Yan T, Yang W, Zhao XH*, Wang JS*. 2022. A global synthesis reveals increases in soil greenhouse gas emissions under forest thinning. Science of the Total Environment, 804, 150225.
[32]Wang K*, Wang, G, Song LN, Zhang RS, Yan T, Li YH. 2021. Linkages between nutrient resorption and ecological stoichiometry and homeostasis along a chronosequence of Mongolian pine plantations. Frontiers in Plant Science, https://doi.org/10.3389/fpls.2021.692683.
[33]Wang K*, Zhang RS, Song LN, Yan T, Na EH. 2021. Comparison of C:N:P stoichiometry in the plant–litter–soil system between poplar and elm plantations in the Horqin Sandy Land, China. Frontiers in Plant Science, https://doi.org/10.3389/fpls.2021.655517.
[34]Wang JS*, Defrenne C, McCormack LM, Yang L, Tian DS, Luo YQ, Hou EQ, Yan T, Li ZL, Bu WS, Chen Y, Niu SL*. 2021. Fine-root functional trait responses to experimental warming: a global meta-analysis. New Phytologist, 230, 1856-1867.
[35]Wang JS, Song B, Ma FF, Tian DS, Li Y, Yan T, Quan Q, Zhang FY, Li ZL, Wang BX, Gao Q, Chen WN, Niu SL*. 2019. Nitrogen addition reduces soil respiration but increases the relative contribution of heterotrophic component in an alpine meadow. Functional Ecology, 33, 2239-2253.
[36]Song HH, Yan T, Zeng DH*. 2019. Establishment of mixed plantations of Pinus sylvestris var. mongolica and Populus x xiaozhuanica may not be appropriate: evidence from litter decomposition. Journal of Plant Ecology, 12, 857-870.
[37]Wang J, Yan QL*, Lu DL, Diao MM, Yan T, Sun YR, Yu LZ, Zhu JJ. 2019. Effects of microhabitat on rodent-mediated seed dispersal in monocultures with thinning treatment. Agricultural and Forest Meteorology, 275, 91-99.
[38]Song J, Liu Z, Zhang Y, Yan T, Shen ZH, Piao SL*. 2019. Effects of wildfire on soil respiration and its heterotrophic and autotrophic components in a montane coniferous forest. Journal of Plant Ecology, 12, 336-345.
[39]Piao SL*, Huang MT, Liu Z, Wang XH, Ciais P, Canadell J, Wang K, Bastos A, Friedlingstein P, Houghton R, Le Quéré C, Liu YW, Myneni RB, Peng SS, Pongratz J, Sitch S, Yan T, Wang YL, Zhu ZC, Wu DH, Wang T. 2018. Lower land use emissions increased net land carbon sink during the slow warming period. Nature Geoscience, 11, 739-743.
[40]Zhu ZC, Piao SL*, Yan T, Ciais P, Bastos A, Zhang XZ, Wang ZQ. 2018. The Accelerating land carbon sink of the 2000s may not be driven predominantly by the warming hiatus. Geophysical Research Letters, 45, 1402-1409.
[41]Wang J, Yan QL*, Yan T, Song Y, Sun YR, Zhu JJ. 2017. Rodent-mediated seed dispersal of Juglans mandshurica regulated by gap size and within-gap position in larch plantations: Implication for converting pure larch plantations into larch-walnut mixed forests. Forest Ecology and Management, 404, 205-213.
[42]Li XF, Wen YJ, Zhang JX, Liu LM*, Jin L, Yan T, Wang Y. 2017. The effect of low-temperature event on the survival and growth of Juglans mandshurica seedlings within forest gaps. Journal of Forestry Research, 29, 943-951.
[43]曲恬甜, 閆濤*, 張文, 曾輝. 2019. 落葉松人工林草本植物群落特征和生物量對氮添加的響應. 北京大學學報, 55, 587-596.
[44]閆濤, 朱教君*, 楊凱, 于立忠. 2014. 遼東山區(qū)落葉松人工林地上生物量和養(yǎng)分元素分配格局. 應用生態(tài)學報, 25, 2772-2778.
[45]閆濤, 楊凱, 朱教君*. 2014. 遼東山區(qū)主要樹種葉片氮、磷、鉀再吸收. 生態(tài)學雜志, 33, 2005-2011.
[46]申奧, 朱教君*, 閆濤, 盧德亮, 楊凱. 2018. 遼東山區(qū)主要闊葉樹種葉片養(yǎng)分含量和再吸收對落葉時間的影響. 植物生態(tài)學報, 42, 573-584.
[47]張文, 閆濤, 常文靜*, 曾輝. 2018. 氮添加對不同林齡華北落葉松葉片氮重吸收過程的影響. 生態(tài)學雜志, 37, 3525-3532.
[48]叢俊霞, 鄭曉*, 朱教君, 宋立寧, 高西寧, 李秀芬, 閆濤. 2017. 沙地樟子松天然林地上碳儲量估算及其空間分布特征. 生態(tài)學雜志, 11, 2997-3007.
[49]王靜, 徐爽, 閆濤, 馬維娟, 閆巧玲*. 2017. 土壤養(yǎng)分對遼東山區(qū)主要闊葉樹種幼苗生長的影響. 生態(tài)學雜志, 36, 3148-3159.
[50]宋立寧, 朱教君*, 李明財, 閆濤, 張金鑫. 2012. 不同降水條件下科爾沁沙地南緣疏林草地樟子松針葉δ13C和葉性狀特征. 應用生態(tài)學報, 23, 1435-1440.
