張新厚，1985年3月生，男，理學博士，南京師範大學教授。
基本介紹
- 中文名：張新厚
- 國籍：中國
- 民族：漢
- 出生地：山東泰安
- 畢業院校：中國科學院
- 學位/學歷：博士
- 職業：教師
- 專業方向：生物地化循環
- 任職院校：南京師範大學
個人經歷,研究方向,學術成果,
個人經歷
教育背景
2016.01-2016.06，澳大利亞西澳大學（University of Western Australia），植物科學，訪問學者
2012.09-2015.06，中國科學院東北地理與農業生態研究所，環境科學，博士學位
2007.09-2010.06，中國科學院瀋陽套用生態研究所，生態學，碩士學位
2003.09-2007.07，山東師範大學，生物技術，學士學位
研究經歷
2018.11-至今，南京師範大學，環境學院，教授
2017.11-2018.11，中國科學院東北地理與農業生態研究所，高級工程師
2012.12-2017.11，中國科學院東北地理與農業生態研究所，工程師
2010.07-2012.12，中國科學院東北地理與農業生態研究所，助理工程師
研究方向
1. 濕地生態系統碳循環與養分周轉
2. 富營養化水體生態修復
3. 植物種間關係
4. 生態化學計量
學術成果
承擔（參與）的主要科研項目
1.國家自然科學基金面上項目（42371051）：灌木擴張對北方草本濕地中土壤礦物結合有機碳的影響及機制，主持，2024.01-2027.12
2. 國家自然科學基金面上項目（41671091）：三江平原草本沼澤中灌木擴張對植物凋落物分解的影響及其機制，主持，2017.01-2020.12
3. 國家自然科學基金青年基金（31100357）: 三江平原沼澤濕地植物立枯分解研究，主持，2012.01-2014.12
4. 江西馬頭山國家級自然保護區苔蘚植物多樣性調查，主持，2024.01-2025.11
5. 江西馬頭山國家級自然保護區碳儲量服務功能的時空變化特徵，主持，2023.01-2024.12
6. 複合種植模式下秸稈組合還田的產業發展潛力評估及技術最佳化，主持，2023.03-2026.05
7. 水體污染控制與治理科技重大專項（2017ZX07203-003）：高藻脅迫下梅梁灣周邊河道水環境深度改善和良性生態系統構建技術與工程示範，參與，2017.01-2020.12
參編專著
《碳氮穩定同位素示蹤原理與套用》，科學出版社，2022年出版，參編“第五章碳穩定同位素示蹤技術在土壤碳循環研究中的套用”。
《陸地生態系統生物觀測指標與規範》，中國環境出版集團，2019年出版，參編“第七章 沼澤生態系統生物觀測指標與規範”。
《東北地區重大生態工程生態成效評估》，科學出版社，2020年出版，參編“第四章 三江平原濕地保護工程生態成效科學評估”。
主要論文（*通訊作者）
1) DongKai, Li Xue, Zhang Q, Wang Jidong, Zhang Xinhou*. 2025. How macro- and mesofaunacontribute to decomposition of single- and mixed-species litter assemblages ina shrub-encroached wetland? Plant and soil.
2) Zhang Xinhou, Xiao Wen, Song Changchun, Zhang Jinbo, Liu Xueyan,Mao Rong. Nutrient responses of vascular plants to N2-fixing tree Alnus hirsuta encroachment in a borealpeatland. Oecologia,2024, 206: 1–10.
3) GaZhuoma, Jiang Shuangshuang, Han Jiangang, Wang Guoxiang, Zhang Xinhou*.Biodegradation of mixed litter-derived dissolved organic matter with varyingevenness in a temperate freshwater wetland. Oecologia, 2024, 205: 487–496.
4) ChenWei, Chen Weixiang, Dong Kai, Guo Qingchun, Wang Guoxiang, Han Jiangang, ZhangXinhou*. Iron-bound organic carbon distribution in freshwater wetlands withvarying vegetation and hydrological regime. Wetlands, 2024, 44: 71.
5) ChenWeixiang, Zhang Weiting, Qiu Ying, Shu Zihao, Liu Jin-e*, Zhang Xinhou*,Waqas Khan, Song Ge. How does exotic Spartinaalterniflora affect the contribution of iron-bound organic carbon to soilorganic carbon in salt marshes? Scienceof the Total Environment, 2024, 926: 171605.
6) Zhang Xinhou, Chen Wei, Chen Weixiang, Wang Xianwei, Mao Rong. Mossremoval facilitates decomposition and net nitrogen loss of monospecific andmixed-species litter in a boreal peatland. Biogeochemistry, 2024, 167: 121–133.
7) GuoQingchun, Gao Yuxuan, Song Chao, Zhang Xinhou*, Wang Guoxiang*.Morphological and transcriptomic responses/acclimations of erect-type submergedmacrophyte Hydrilla verticillata bothat low-light exposure and light recovery phases. Ecology and Evolution, 2023, 13: e10583.
8) RenZhaojie, Jiang Wei*, Han Jiangang, Zhang Xinhou*. Standing litterdecomposition and the role of dew and solar radiation in a freshwater wetland. Wetlands, 2023, 43: 76.
9) JiangShuangshuang, Xiao Wen, Sun Jingjie, Wang Hao, Han Jiangang, Zhang Xinhou*.Degradation and temperature sensitivity of litter-derived dissolved organicmatter (DOM) in a temperate freshwater wetland, Plant and Soil, 2023, 489: 697–709.
10) Zhang Xinhou, Zhang Yuanhang, Jiang Shuangshuang, SongChangchun, Zhang Jinbo, Mao Rong. Dominant species and evenness levelco-regulate litter mixture decomposition in a boreal peatland. Plant and Soil, 2022, 474: 423–436.
11) GaoYuxuan, Wang Lei, Hu Xiaoqing, Zhang Zhuolun, Liu Baogui, Zhang Xinhou*,Wang Guoxiang. Rapid adaptive responses of rosette-type macrophyte Vallisneria natans juveniles to varyingwater depths: The role of leaf trait plasticity. Ecology and Evolution, 2021, 11: 14268–14281.
12) Zhang Xinhou, Jiang Shuangshuang, Jiang Wei, Tan Wenwen, MaoRong. Shrub encroachment balances soil organic carbon pool by increasing carbonrecalcitrance in a temperate herbaceous wetland. Plant and Soil, 2021. 464: 347–357.
13) Zhang Xinhou, Jiang Wei, Jiang Shuangshuang, Tan Wenwen, Mao Rong. Differential responses of litter decompositionin the air and on the soil surface to shrub encroachment in agraminoid-dominated temperate wetland. Plantand Soil, 2021, 462: 477–488.
14) Wang Yiping, Jiang Wei, Cheng Yi, Li Dujun, Zhang Zhuolun, Zhang Xinhou*,Guoxiang Wang*. Vertical patterns of leaf physiology and biofilmcharacteristics for submerged macrophytes in a shallow subtropical lake. Marine andFreshwater Research, 2021, 72: 1233–1242.
15) Wang L, Gao YX, Jiang W, Chen JX, Chen YS, Zhang XH*, Wang GX*.Microplastics with cadmium inhibit the growth of Vallisneria natans (Lour.) Hara rather than reduce cadmium toxicity.Chemosphere, 2021, 266: 128979.
16) Hou CC, Li YC, Huang YW, Zhu HL, Ma JM, Yu F, Zhang XH*. Reclamationsubstantially increases soil organic and inorganic carbon stock in riparianfloodplains. Journalof Soils and Sediments, 2021, 21: 957–966.
17) Wang Lei, Wang Xuan, Han Xiaohui, Gao Yuxuan, Liu Baogui, ZhangXinhou*, Wang Guoxiang*. Potamogetoncrispus responses to varying water depth in morphologicalplasticity and physiological traits. Environmental Science and PollutionResearch, 2021, 28: 4253–4261.
18) Zhang Xinhou, Wang Lei, Jiang Wei, Mao Rong. Functional identity and functional diversity co-regulate litter mixturedecomposition and nitrogen release in boreal riparian forest ponds. Biogeochemistry, 2020, 151: 99–111.
19) Zhang Xinhou, Wang Yiping, Jiang Wei, Mao Rong. Effect of expanded shrub litter ondecomposition of graminoid litter in a temperate freshwater marsh. Plant and Soil, 2020, 451: 409–418.
20) Zhang XH, Shan LP, Tan WW, Mao R. Effect of woody plant expansion ondecomposition of fine root mixtures in a grass-dominated temperate wetland. Wetlands Ecologyand Management, 2020, 28: 191–197.
21) Hou CC, Li YC, Ma JM, Zhang XH*. Early-stagedecomposition of maize litter at different positions in a semi-arid cropland. Archives ofAgronomy and Soil Science, 2020, 66: 819–829.
22) Zhang XH, Wang XW, Finnegan PM, Tan WW, Mao R. Effects of litter mixtures onaerobic decomposition rate and its temperature sensitivity in a borealpeatland. Geoderma, 2019, 354: 113890.
23) Mao R, Zhang XH*, Song CC, Wang XW, FinneganP. Plant functional group controls litter decomposition rate and itstemperature sensitivity: An incubation experiment on litters from a borealpeatland in northeast China. Scienceof the Total Environment, 2018, 626: 678–683.
24) Zhang XH, Mao R, Song CC, Liu Y, Ren ZJ. Is Moss Stoichiometry Influenced byMicrotopography in a Boreal Peatland of Northeast China? ChineseGeographical Science, 2018, 28(6): 1038–1047.
25) Zhang XH, Sun XX, Mao R. Effects of litter evenness, nitrogen enrichmentand temperature on short-term litter decomposition in freshwater marshes ofNortheast China. Wetlands, 2017, 37: 145–152.
26) Zhang XH, Mao R, Song C, Song Y, Finnegan P. Nitrogen addition in a freshwatermarsh alters the quality of senesced leaves, promoting decay rates and changingnutrient dynamics during the standing-dead phase. Plant and Soil, 2017, 417: 511–521.
27) ZhangXH, Song CC, Mao R, Song, YY,Meng HN. Comparing differences in early-stage decay of macrophyteshoots between in the air and on the sediment surface in a temperate freshwatermarsh. EcologicalEngineering,2015, 81: 14–18.
28) ZhangXH,Song CC, Mao R, Yang GS, Tao BX, Shi FX, Zhu XY, Hou AX. Litter mass loss andnutrient dynamics of four emergent macrophytes during aerial decomposition infreshwater marshes of the Sanjiang Plain, Northeast China. Plant and Soil, 2014, 385: 139–147.
29) ZhangXH, MaoR, Gong C, Qiao TH, Song CC. CO2 evolution from standing litter ofthe emergent macrophyte Deyeuxia angustifolia in the Sanjiang Plain,Northeast China. EcologicalEngineering,2014, 64: 55–59.
30) ZhangXH, MaoR, Gong C, Yang GS, Lu YZ. Effects of hydrology and competition on plant growthin a freshwater marsh of northeast China. Journal of Freshwater Ecology, 2014, 29(1): 117–127.
31) 張新厚. 2024. “蓋婭假說”融入高校生態文明通識教育的探索. 南京師範大學學報(自然科學版)
32) 張新厚, 陳贇, 沈楠, 王國祥. 2023. 研究生畢業前“復盤”指導低年級生的教學模式探索. 中文科技期刊資料庫（全文版）教育科學, (7): 113–116.
33) 蔣偉, 王昊, 尕著瑪, 許志敏, 張新厚*. 2023. 洪澤湖濕地植物群落優勢種和均勻度變化對植物殘體分解的影響. 生態學雜誌, 42(10): 2336–2344.
34) 張新厚, 譚穩穩, 張加雙, 宋長春. 2018. 磷添加對三江平原濕地小葉章立枯質量和分解的影響. 生態環境學報, 27(2): 209–215.
35) 張新厚*, 宮超. 濕地挺水植物凋落物立枯分解研究進展. 生態環境學報, 2013, 22(4): 712–717.張新厚, 范志平, 孫學凱, 胡亞林, 曾德慧, 王瓊. 2009. 半乾旱區土地利用方式變化對生態系統碳儲量的影響. 生態學雜誌, 28(12): 2424–2430.
