•2017: Researcher INRAE, Department Forest, Grassland and Freshwater Ecology, Bordeaux-France.
•2015-2016: Postdoctoral position, Department of Forest Ecology and Management, Swedish University of Agricultural Sciences (SLU), Umeå-Sweden. How are plant species and functional group effects on ecosystem properties mediated by environmental context.
•2013-2014: Postdoctoral position, Department of Environment and Agronomy, INRAE, Reims-France. Functional role of microbial communities during litter decomposition across contrasting land use.
•2009-2012: PhD thesis, Centre d’Ecologie Fonctionnelle et Evolutive, CNRS, Montpellier-France. Silver medal 2014 “Young Researcher” from the French Academy of Agriculture, Alimentation & Environment. Influence of litter quality on microbial functioning in tropical rainforest
Research and skills
The microbial “black box” of soil remains largely unknown despite the central role that microorganisms play in the recycling of organic matter and the mineralization of nutrients. In particular, my research aims to evaluate the role of soil functional diversity in the coupling between carbon, nitrogen and phosphorus cycles. During my research, four main axes have been identified as factors that may influence the functionality of soil microbial communities: the effects of the diversity and quality of resources of mineral or organic origin (Axis 1); habitat characteristics, particularly different soil types, land use, and changes in conditions from the green leaf to the soil (Axis 2); biotic interactions, especially interactions with plants and fauna (Axis 3); and finally global changes, including climate alterations, species invasions, or pollution at different spatial scales (Axis 4). In turn, modifications in the functionality of soil microbial communities can alter numerous biogeochemical processes, which themselves underpin the multifunctionality of terrestrial ecosystems.
HDR (Habilitation to Supervise Research), FANIN, 2026 – Functional Microbial Ecology: The Role of Microbial Communities in Organic Matter Mineralization and Its Consequences for Biogeochemical Cycles (337 pages, Download here in french).
Ongoing Projects
•Biodiversa MixForChange Project - Mixed Forest plantations for climate Change mitigation and adaptation
The Biodiversa MixForChange project aims to understand how mixed-species forest plantations can contribute to climate change mitigation and adaptation. Building on the international TreeDivNet network, which brings together numerous experimental sites worldwide, the project investigates how tree diversity, species identity, and forest management practices influence carbon sequestration and forest resilience to climate change, with the goal of providing science-based recommendations for plantation management. Within this project, my research focuses primarily on the effects of tree diversity and drought on litter decomposition and soil carbon dynamics. These studies aim to improve our understanding of the ecological mechanisms regulating carbon storage and decomposition in forest ecosystems, and to identify the conditions that promote greater forest resilience to climate-related disturbances.
•Maia Project (Nouvelle-Aquitaine Region) – Agroecological Scaling and Intensification of Agri-food Systems in Nouvelle-Aquitaine
The MAIA regional project aims to rethink agricultural production systems to address environmental challenges in Nouvelle-Aquitaine. It investigates the potential of nature-based solutions, which rely on biodiversity and ecosystem services, to reduce pesticide use, maintain soil fertility, and enhance the resilience of agricultural systems to climate change while generating socio-economic benefits. Within this project, my research focuses on soil fertility and soil multifunctionality. Our approach combines biogeochemical analyses of soil functioning with mathematical and modelling tools to better understand the underlying processes and evaluate the role of agricultural, viticultural, and vegetable production practices across Nouvelle-Aquitaine in maintaining soil functions. The objective is to identify the practices that best preserve soil quality and ecosystem services. These studies contribute to the development of more sustainable production systems, balancing agronomic performance, biodiversity conservation, and adaptation to climate change.
•CARTON Project (French National Research Agency, ANR) – CARbon, Associated Functional Traits, and their OptimizatioN
The ANR CARTON project aims to improve our understanding of how tree species influence carbon storage in forest soils, a key process for climate change mitigation. Its objective is to identify the functional traits of plants that promote the accumulation and stabilization of soil organic carbon, in order to determine which tree species can combine rapid growth with long-term carbon storage. Within this project, my research focuses on the relationships between tree functional traits and the catabolic capacities of microbial communities in forest soils ranging from northern Sweden to southern Italy. To achieve this, we combine plant trait data, environmental variables, and soil carbon measurements to develop and test statistical models identifying the traits that most strongly influence microbial functioning and carbon sequestration according to tree species identity. By integrating plant traits, microbial functions, and environmental gradients, this work provides new insights into the mechanisms linking aboveground vegetation to belowground ecosystem processes. These studies will improve predictions of carbon storage in forest ecosystems and support forest management strategies aimed at mitigating climate change.
•DYNAVATAR Project (EC2CO) - Dynamics of Soil and Phyllosphere Microbial Communities During Forest Litter Decomposition on Biomimetic Substrates
The DYNAVATAR project investigates the role of microbial communities in forest litter decomposition, with a particular focus on the interactions between microorganisms inhabiting leaf surfaces (phyllosphere) and those living in the soil. The project relies on an innovative approach using artificial biomimetic substrates, allowing experiments to be standardized while controlling the microbial communities under study. By combining chemical, molecular, and modelling approaches, it aims to identify the microbial functions involved in organic matter decomposition and to understand how interactions between microbiomes shape decomposition dynamics. The project also seeks to determine how microbial community succession influences organic matter recycling and carbon cycling in forest ecosystems. The results will improve predictions of soil carbon dynamics and provide new insights into the role of microbiomes in ecosystem functioning (Figure adapted from Fanin et al., 2022, New Phytologist).
Past Projects
•Projet VR (Swedish Research Council) - Context-dependency of biodiversity effects.
Funded by the Swedish Research Council (VR) and conducted in collaboration with the Swedish University of Agricultural Sciences (SLU) in Uppsala and Umeå, and CSIRO in Glen Osmond (Australia), this project investigated how environmental context influences the effects of biodiversity on ecosystem processes. We used a gradient of 30 boreal islands, each representing an independent ecosystem and collectively forming a chronosequence spanning more than 5,000 years. Different plant species (e.g. bilberry and lingonberry) and functional groups (e.g. mosses, trees, and shrubs) were experimentally removed for over 20 years to simulate biodiversity loss on each island. The objective was to identify the mechanisms through which plant diversity shapes soil biodiversity, and in turn, to understand how biodiversity loss affects ecosystem multifunctionality across contrasting environmental conditions.
•Dipticc Project (French National Research Agency, ANR) – DIversity and Productivity of Forests Impacted by Climate Change
Conducted in collaboration with Bordeaux Sciences Agro, BIOGECO (Bordeaux), EEF (Nancy), and CEFE (Montpellier), the ANR Dipticc project aimed to assess whether forest biodiversity can mitigate the impacts of climate change. The project relied on two complementary experimental systems: the ORPHEE experiment, where more than 25,000 trees representing five native species were planted in all possible species combinations, and the BIOPROFOR network, consisting of six natural forest sites distributed along elevational gradients in the French Alps. The main objective was to test whether mixed-species stands are more resistant and resilient to drought than monocultures. My research focused on soil functioning, particularly the interactions between tree roots, mycorrhizal fungi, and nutrient availability, to better understand how belowground processes contribute to forest resilience under climate change.
•Projet TeaTime4Science - Can drinking tea help us understand climate change?
The TeaTime4Science project is a large-scale citizen science initiative designed to investigate the environmental factors controlling organic matter decomposition, a key process regulating nutrient cycling and carbon storage in terrestrial ecosystems. The project involves burying standardized green and rooibos tea bags and retrieving them three months later to measure decomposition rates using a globally standardized protocol. In partnership with the French National Forest Office (ONF) and the RENECOFOR forest monitoring network, more than 1200 tea bags were deployed across over 100 forest sites throughout France, spanning a wide range of climatic, edaphic, and forest conditions. By combining decomposition measurements with detailed soil physicochemical properties, vegetation characteristics, and climatic data, the project aims to identify the main environmental drivers regulating decomposition processes. The resulting dataset also contributes to an international database, providing valuable information to improve predictions of how climate change may alter organic matter decomposition, nutrient cycling, and carbon dynamics in forest ecosystems at regional and global scales.
University of Bordeaux (Master degrees): Functional ecology, soil ecology, forest ecology.
Reviewer > 30 journals, associate editor in Frontiers in Forests & Global Change, section Forest soils.
Publications
[75] Li B., Fu M., Jin G., Song F., Liu Z., Fanin N. (2026). Balancing deterministic and stochastic assembly during needle aging shapes phyllosphere microbial community complexity and stability. Environmental Microbiome. https://doi.org/10.1016/j.fecs.2026.100483
[73] Jensen J., Blondeel H., MacLaren C., Ahmed I. U., Augusto L., Baeten L., Bakker M. R., Bauhus J., Baum C., Beyer F., Brancalion P., Bönisch E., Castro Sánchez-Bermejo P., Dietrich P., Eisenhauer N., Fanin N., Felton A., Ferlian O., Fransson P., Fritsch E., Glynn C., Godbold D. L., Guillemot J., Haider S., Hajek P., Jactel H., Mereu S., Meredieu C., Muys B., Nordh N.-E., Ponette Q., Rewald B., Robin A., Saito D., Sandén H., Scherer-Lorenzen M., Serrano-León H., Steinparzer M., Verheyen K., Werner R., Yi H., Weih M. (2026). Tree species diversity drives above-ground carbon sequestration through light-related trait shifts. Functional Ecology, 20 p., https://dx.doi.org/10.1111/1365-2435.70320, https://hal.inrae.fr/hal-05597760
[72] Liu P., Zhou J., Moorhead D. L., Mallavarapu M., Margenot A. J., Mori T., Wang X., Fanin N., Ochoa-Hueso R., Wang D., Jin Z., Liu J., Liang G., Cui Y., Yang Y., Liu J., Li Y., Chen X., Shi X., Chen J. (2026). Effects of incubation temperatures on soil extracellular enzyme activity across different soil pH conditions. Journal of Plant Ecology, 102. https://dx.doi.org/10.1093/jpe/rtag102/8697816, https://hal.inrae.fr/hal-05653349
[70] Cui H., Chen S., Liu Z., Song H., Chen J., Zhang A., Xiao S., Wang Y., Wang J., Li X., An L., Ding H., Fanin N. (2026). Multifunctionality changes with plant functional groups in Antarctica. Ecology, 107 (2), https://dx.doi.org/10.1002/ecy.70279, https://hal.inrae.fr/hal-05612122
[69] Zhou J., Liu S., van Groenigen K. J., Mueller C. W., Ochoa-Hueso R., Fanin N., Ren Z., Zhang Y., Ma Y., Sun S., Hu J., Zhang Y., Yahdjian L., Wanek W., Olesen J. E., Kuzyakov Y., Liu J., Chen J. (2026). Contrasting responses of particulate and mineral-associated organic carbon stocks to grazing exclusion in an alpine meadow. Agriculture, Ecosystems & Environment 400:110227. https://doi.org/10.1016/j.agee.2026.110227, https://hal.inrae.fr/hal-05612060
[68] Bon L., Fanin N., Bakker M. R., Bertrand I., Trichet P., Augusto L. (2026). Seasonal effects of soil microclimate on microbial activities depend on the understory in two forest ecosystems with contrasting water regimes. Geoderma 465, 117672. https://doi.org/10.1016/j.geoderma.2025.117672, https://hal.inrae.fr/hal-05612083
[67] Du L., Bol R., Tu C., Sun X., Luo R., Liu Q., Luo L., Zhan J., Yin C., Zhu B., Pang X., Fanin N. (2026). Micro‑Faunal and Edaphic Controls on Microbial Carbon Cycling Across Primary and Secondary Successional Trajectories. Global Change Biology 31(12), e70642. https://dx.doi.org/10.1111/gcb.70642, https://hal.inrae.fr/hal-05424178
[66] Bourdin A., Augusto L., Joly F.-X., Bres C., Chahine T., Guillemot J., Hajek P., Jactel H., Jensen J., Mereu S., Muys B., Ponette Q., Sandén H., Parker W. C., Paquette A., Messier C., Robin A., Scherer-Lorenzen M., Serrano-León H., Weih M., Castagneyrol B., Bakker M. R., Fanin N. (2026). Context dependency of tree diversity effects on standardized substrates decomposition: Role of tree functional composition, mycorrhizal type and climatic conditions. Journal of Ecology, 113(12), 3700-3716. https://dx.doi.org/10.1111/1365-2745.70189, https://hal.inrae.fr/hal-05358193
[65] Song Z., Zuo X., Wang H., Wang Z., Zhang X., Hu Y., Hao F., Ma X., Fanin N. (2026). Contrasting impacts of grazing and shrub encroachment on microbial resource limitation in arid grasslands. Agriculture, Ecosystems & Environment, 396:110013. https://dx.doi.org/10.1016/j.agee.2025.110013, https://hal.inrae.fr/hal-05358195
[64] Kempel A., Adamidis G., Anadón J. D., Atkinson J., Auge H., Avtzis D., Bachelot B., Bashirzadeh M., Bota J. L., Classen A., Constantinou I., Crawley M., de Bellis T., Dostal P., Ebeling A., Eisenhauer N., Eldridge D. J., Encina G., Estrada C., Everingham S., Fanin N., Feng Y., Gaspar M., Gooriah L., Graff P., Gusmán Montalván E., Gusmán Montalván P., Hartke T. R., Huang L., Jochum M., Kaljund K., Karmiris I., Koorem K., Korell L., Laine A. L., Le Provost G., Lessard J. P., Liu M., Liu X., Liu Y., Llancabure J., Loïez S., Loydi A., Marrero H., Gockel S., Montoya A., Münzbergová Z., Niu Y., Ott D., Oyarzabal M., Panitsa M., Papatheodorou E., Piper F. I., Püssa K., Rand K., Saiz H., Sanders N. J., Schädler M., Scherber C., Semchenko M., Sepp S. K., Shah M. A., Shaheen I., Stein C., Stewart J., Tang Z., Tschan G., van Nouhuys S., Vandegehuchte M. L., Vernon M., V. R. S., Wang J., Xiao Y., Xystrakis F., Yang J., Yang S., Zografou K., Allan E. (2025). The Bug‐Network (BugNet): A global experimental network testing the effects of invertebrate herbivores and fungal pathogens on plant communities and ecosystem function in open ecosystems. Ecology and Evolution, 15 (10), https://dx.doi.org/10.1002/ece3.72111, https://hal.inrae.fr/hal-05325948
[63] van Galen L., Smith G. R., Margenot A. J., Waldrop M. P., Crowther T. W., Peay K. G., Jackson R. B., Yu K., Abrahão A., Ahmed T. A., Alatalo J. M., Anslan S., Anthony M. A., Araujo A. S. F., Ascher-Jenull J., Bach E. M., Bahram M., Baker C. C. M., Baldrian P., Bardgett R. D., Barrios-Garcia M. N., Bastida F., Beggi F., Benning L. G., Bragazza L., Broadbent A. A. D., Cano-Díaz C., Cates A. M., Cerri C. E. P., Cesarz S., Chen B., Classen A. T., Dahl M. B., Delgado-Baquerizo M., Eisenhauer N., Evgrafova S. Y., Fanin N., Fornasier F., Francisco R., Franco A. L. C., Frey S. D., Fritze H., García C., García-Palacios P., Gómez-Brandón M., Gonzalez-Polo M., Gozalo B., Griffiths R., Guerra C., Hallama M., Hiiesalu I., Hossain M. Z., Hu Y., Insam H., Jassey V. E. J., Jiang L., Kandeler E., Kohout P., Kõljalg U., Krashevska V., Li X., Lu J.-Z., Lu X., Luo S., Lutz S., Mackie-Haas K. A., Maestre F. T., Malmivaara-Lämsä M., Mangelsdorf K., Manjarrez M., Marhan S., Martin A., Mason K. E., Mayor J., McCulley R. L., Moora M., Morais P. V., Muñoz-Rojas M., Murugan R., Nottingham A. T., Ochoa V., Ochoa-Hueso R., Oja J., Olsson P. A., Öpik M., Ostle N., Peltoniemi K., Pennanen T., Pescador D. S., Png G. K., Poll C., Põlme S., Potapov A. M., Priemé A., Pritchard W., Puissant J., Rocha S. M. B., Rosinger C., Ruess L., Sayer E. J., Scheu S., Sinsabaugh R. L., Slaughter L. C., Soudzilovskaia N. A., Sousa J. P., Stanish L., Sugiyama S., Tedersoo L., Trivedi P., Vahter T., Voriskova J., Wagner D., Wang C., Wardle D. A., Whitaker J., Yang Y., Zhong Z., Zhu K., Ziolkowski L. A., Zobel M. & van den Hoogen J. (2025). A global database of soil microbial phospholipid fatty acids and enzyme activities. Scientific Data, 12 (1), 1568, https://dx.doi.org/10.1038/s41597-025-05759-2, https://hal.inrae.fr/hal-05293951
[62] Fanin N., Augusto L., Altinalmazis-Kondylis A., Bon L., Bourdin A., Hättenschwiler S., Martin-Blangy S., Maxwell T. L., Meredieu C., Morin X., Plat N., Toïgo M., Jactel H., Bakker M. R. (2025). Soil secrets and tree tales: An in-depth comparison of carbon storage in mixed and pure stands of pine and birch. Forest Ecology and Management, 592, 122827, https://dx.doi.org/10.1016/j.foreco.2025.122827, https://hal.inrae.fr/hal-05111798
[61] Sarneel J., Atkins J. W., Augusto L., Barel J. M., Duddigan S., Fanin N., Hefting M., Lembrechts J. J., Marín C., McDaniel M. D., Montagnani L., Parkhurst T., Petit Bon M., Sofo A., Keuskamp J. A. (2025). The Assumptions of the Tea Bag Index and Their Implications: A Reply to Mori 2025. Ecology Letters, 28 (4), e70117, https://dx.doi.org/10.1111/ele.70117, https://hal.inrae.fr/hal-05074860
[60] Fanin N., Asplund J., Gundale M., Kardol P., Nilsson M., Wardle D. (2025). Effects of boreal ground layer shrubs and bryophytes on the diversity, biomass and composition of lichen communities across contrasting ecosystems. Oikos, https://dx.doi.org/10.1002/oik.11099, https://hal.inrae.fr/hal-05034669
[59] Chen X., Cao J., Sinsabaugh R., Moorhead D., Bardgett R., Fanin N., Nottingham A., Zheng X., Chen J. (2025). Soil extracellular enzymes as drivers of soil carbon storage under nitrogen addition. Biological Reviews, https://dx.doi.org/10.1111/brv.70021, https://hal.inrae.fr/hal-05034707
[54] Sarneel J., Hefting M., Sandén T., van den Hoogen J., Routh D., Adhikari B., Alatalo J. M., Aleksanyan A., Althuizen I. H. J., Alsafran M. H. S. A., Atkins J. W., Augusto L., Aurela M., Azarov A. V., Barrio I. C., Beier C., Bejarano M. D., Benham S. E., Berg B., Bezler N. V., Björnsdóttir K., Bolinder M. A., Carbognani M., Cazzolla Gatti R., Chelli S., Chistotin M. V., Christiansen C. T., Courtois P., Crowther T. W., Dechoum M. S., Djukic I., Duddigan S., Egerton-Warburton L. M., Fanin N., Fantappiè M., Fares S., Fernandes G. W., Filippova N. V., Fliessbach A., Fuentes D., Godoy R., Grünwald T., Guzmán G., Hawes J. E., He Y., Hero J.-M., Hess L. L., Hogendoorn K., Høye T. T., Jans W. W. P., Jónsdóttir I. S., Keller S., Kepfer-Rojas S., Kuz'menko N. N., Larsen K. S., Laudon H., Lembrechts J. J., Li J., Limousin J.-M., Lukin S. M., Marques R., Marín C., McDaniel M. D., Meek Q., Merzlaya G. E., Michelsen A., Montagnani L., Mueller P., Murugan R., Myers-Smith I. H., Nolte S., Ochoa-Hueso R., Okafor B. N., Okorkov V. V., Onipchenko V. G., Orozco M. C., Parkhurst T., Peres C. A., Petit Bon M., Petraglia A., Pingel M., Rebmann C., Scheffers B. R., Schmidt I., Scholes M. C., Sheffer E., Shevtsova L. K., Smith S. W., Sofo A., Stevenson P. R., Strouhalová B., Sundsdal A., Sühs R. B., Tamene G., Thomas H. J. D., Tolunay D., Tomaselli M., Tresch S., Tucker D. L., Ulyshen M. D., Valdecantos A., Vandvik V., Vanguelova E. I., Verheyen K., Wang X., Yahdjian L., Yumashev X. S., Keuskamp J. A. (2024). Reading tea leaves worldwide: Decoupled drivers of initial litter decomposition mass‐loss rate and stabilization. Ecology Letters, 27 (5), https://dx.doi.org/10.1111/ele.14415, https://hal.inrae.fr/hal-04574740
[53] Khalfallah F., Bon L., El Mazlouzi M., Bakker M. R., Fanin N., Bellanger R., Bernier F., de Schrijver A., Ducatillon C., Fotelli M. N., Gateble G., Gundale M. J., Larsson M., Legout A., Mason W. L., Nordin A., Smolander A., Spyroglou G., Vanguelova E. I., Verheyen K., Vesterdal L., Zeller B., Augusto L., Derrien D., Buée M. (2024). “Ectomycorrhizal exploration type” could be a functional trait explaining the spatial distribution of tree symbiotic fungi as a function of forest humus forms. Mycorrhiza, https://dx.doi.org/10.1007/s00572-024-01146-8, https://hal.inrae.fr/hal-04592027
[50] Ouedraogo F., Cornu J.-Y., Fanin N., Janot N., Sourzac M., Parlanti E., Denaix L. (2024). Changes over time in organic matter dynamics and copper solubility in a vineyard soil after incorporation of cover crop residues: Insights from a batch experiment. Chemosphere, 350, 141137, https://dx.doi.org/10.1016/j.chemosphere.2024.141137, https://hal.inrae.fr/hal-04495783
[49] Zhu M., Fanin N., Wang Q., Xu Z., Liang S., Ye J., Lin F., Yuan Z., Mao Z., Wang X., Hao Z. (2024). High functional breadth of microbial communities decreases home-field advantage of litter decomposition. Soil Biology and Biochemistry, 188, 109232, https://dx.doi.org/10.1016/j.soilbio.2023.109232, https://hal.inrae.fr/hal-04503312
[48] Dommanget F., François A., Chauvat M., Forey E., Erktan A., Fanin N., Chesseron C., Albert A. (2023). Renouées asiatiques envahissantes : la restauration de berges par le génie végétal est-elle si bénéfique à la qualité chimique et à la biodiversité du sol? Sciences Eaux & Territoires, (43), 87-93, https://dx.doi.org/10.20870/Revue-SET.2023.43.7627, https://hal.inrae.fr/hal-04281597,
[45] Bourget M., Fanin N., Fromin N., Hättenschwiler S., Roumet C., Shihan A., Huys R., Sauvadet M., Freschet G. (2023). Plant litter chemistry drives long‐lasting changes in the catabolic capacities of soil microbial communities. Functional Ecology, 37, 2014-2028, https://dx.doi.org/10.1111/1365-2435.14379, https://hal.inrae.fr/hal-04122640
[44] Maxwell T., Augusto L., Tian Y., Wanek W., Fanin N. (2023). Water availability is a stronger driver of soil microbial processing of organic nitrogen than tree species composition. European Journal of Soil Science, 74 (1), https://dx.doi.org/10.1111/ejss.13350, https://hal.inrae.fr/hal-04098843
[43] Bon L., Augusto L., Gaudry J., Bakker M., Lambrot C., Milin S., Trichet P., Fanin N. (2023). Effects of fertilisation and understory removal on aboveground and belowground carbon stocks in wet and dry moorlands in south-western France. European Journal of Forest Research, 142 (4), 723-737, https://dx.doi.org/10.1007/s10342-023-01551-2, https://hal.inrae.fr/hal-04160207
[41] Fanin N., Clemmensen K., Lindahl B., Farrell M., Nilsson M., Gundale M., Kardol P., Wardle D. (2022). Ericoid shrubs shape fungal communities and suppress organic matter decomposition in boreal forests. New Phytologist, 1-14, https://dx.doi.org/10.1111/nph.18353, https://hal.inrae.fr/hal-03745377
[40] Maxwell T., Fanin N., Parker W., Bakker M., Belleau A., Meredieu C., Augusto L., Munson A. (2022). Tree species identity drives nutrient use efficiency in young mixed‐species plantations, at both high and low water availability. Functional Ecology, 36 (8), 2069 - 2083, https://dx.doi.org/10.1111/1365-2435.14109, https://hal.inrae.fr/hal-03745508
[39] Bernard L., Basile-Doelsch I., Derrien D., Fanin N., Fontaine S., Guenet B., Karimi B., Maron P. (2022). Le Priming Effect dans le sol: mécanismes, acteurs et conséquences sur les services écosystémiques dans un contexte de changement global. Étude et Gestion des Sols, 29, 239-274, https://hal.inrae.fr/hal-03685054
[37] Bernard L., Basile-Doelsch I., Derrien D., Fanin N., Fontaine S., Guenet B., Karimi B., Marsden C., Maron P. (2022). Advancing the mechanistic understanding of the priming effect on soil organic matter mineralisation. Functional Ecology, 36 (6), 1355-1377, https://dx.doi.org/10.1111/1365-2435.14038, https://hal.inrae.fr/hal-03639598
[36] Fanin N., Mooshammer M., Sauvadet M., Meng C., Alvarez G., Bernard L., Bertrand I., Blagodatskaya E., Bon L., Fontaine S., Niu S., Lashermes G., Maxwell T. L., Weintraub M. N., Wingate L., Moorhead D., Nottingham A. T. (2022). Soil enzymes in response to climate warming: mechanisms and feedbacks. Functional Ecology, https://dx.doi.org/10.1111/1365-2435.14027, https://hal.inrae.fr/hal-03590923
[35] Maillard F., Jusino M., Andrews E., Moran M., Vaziri G., Banik M., Fanin N., Trettin C., Lindner D., Schilling J. (2022). Wood-decay type and fungal guild dominance across a North American log transplant experiment. Fungal Ecology, 59, 101151, https://dx.doi.org/10.1016/j.funeco.2022.101151, https://hal.inrae.fr/hal-03845610
[32] Fanin N., Maxwell T., Altinalmazis‐Kondylis A., Bon L., Meredieu C., Jactel H., Bakker M., Augusto L. (2022). Effects of mixing tree species and water availability on soil organic carbon stocks are depth dependent in a temperate podzol. European Journal of Soil Science, 73 (1), e13133, https://dx.doi.org/10.1111/ejss.13133, https://hal.inrae.fr/hal-03256070
[31] [31] Lembrechts J., van den Hoogen J., Aalto J., Ashcroft M. B., De Frenne P., Kemppinen J., Kopecký M., Luoto M., Maclean I. M. D., Crowther T. W., Bailey J. J., Haesen S., Klinges D. H., Niittynen P., Scheffers B. R., Van Meerbeek K., Aartsma P., Abdalaze O., Abedi M., Aerts R., Ahmadian N., Ahrends A., Alatalo J. M., Alexander J. M., Allonsius C. N., Altman J., Ammann C., Andres C., Andrews C., Ardö J., Arriga N., Arzac A., Aschero V., Assis R. L., Assmann J. J., Bader M. Y., Bahalkeh K., Barančok P., Barrio I. C., Barros A., Barthel M., Basham E. W., Bauters M., Bazzichetto M., Belelli Marchesini L., Bell M. C., Benavides J. C., Benito Alonso J. L., Berauer B. J., Bjerke J. W., Björk R. G., Björkman M. P., Björnsdóttir K., Blonder B., Boeckx P., Boike J., Bokhorst S., Brum B. N. S., Brůna J., Buchmann N., Buysse P., Camargo J. L., Campoe O. C., Candan O., Canessa R., Cannone N., Carbognani M., Carnicer J., Casanova-Katny A., Cesarz S., Chojnicki B., Choler P., Chown S. L., Cifuentes E. F., Čiliak M., Contador T., Convey P., Cooper E. J., Cremonese E., Curasi S. R., Curtis R., Cutini M., Dahlberg C. J., Daskalova G. N., de Pablo M. A., Della Chiesa S., Dengler J., Deronde B., Descombes P., Di Cecco V., Di Musciano M., Dick J., Dimarco R. D., Dolezal J., Dorrepaal E., Dušek J., Eisenhauer N., Eklundh L., Erickson T. E., Erschbamer B., Eugster W., Ewers R. M., Exton D. A., Fanin N., Fazlioglu F., Feigenwinter I., Fenu G., Ferlian O., Fernández Calzado M. R., Fernández-Pascual E., Finckh M., Finger Higgens R., Forte T. G. W., Freeman E. C., Frei E. R., Fuentes-Lillo E., García R. A., García M. B., Géron C., Gharun M., Ghosn D., Gigauri K., Gobin A., Goded I., Goeckede M., Gottschall F., Goulding K., Govaert S., Graae B. J., Greenwood S., Greiser C., Grelle A., Guénard B., Guglielmin M., Guillemot J., Haase P., Haider S., Halbritter A. H., Hamid M., Hammerle A., Hampe A., Haugum S. V., Hederová L., Heinesch B., Helfter C., Hepenstrick D., Herberich M., Herbst M., Hermanutz L., Hik D. S., Hoffrén R., Homeier J., Hörtnagl L., Høye T. T., Hrbacek F., Hylander K., Iwata H., Jackowicz-Korczynski M. A., Jactel H., Järveoja J., Jastrzębowski S., Jentsch A., Jiménez J. J., Jónsdóttir I. S., Jucker T., Jump A. S., Juszczak R., Kanka R., Kašpar V., Kazakis G., Kelly J., Khuroo A. A., Klemedtsson L., Klisz M., Kljun N., Knohl A., Kobler J., Kollár J., Kotowska M. M., Kovács B., Kreyling J., Lamprecht A., Lang S. I., Larson C., Larson K., Laska K., le Maire G., Leihy R. I., Lens L., Liljebladh B., Lohila A., Lorite J., Loubet B., Lynn J., Macek M., Mackenzie R., Magliulo E., Maier R., Malfasi F., Máliš F., Man M., Manca G., Manco A., Manise T., Manolaki P., Marciniak F., Matula R., Mazzolari A. C., Medinets S., Medinets V., Meeussen C., Merinero S., Mesquita R. C. G., Meusburger K., Meysman F. J. R., Michaletz S. T., Milbau A., Moiseev D., Moiseev P., Mondoni A., Monfries R., Montagnani L., Moriana-Armendariz M., Morra di Cella U., Mörsdorf M., Mosedale J. R., Muffler L., Muñoz-Rojas M., Myers J. A., Myers-Smith I. H., Nagy L., Nardino M., Naujokaitis-Lewis I., Newling E., Nicklas L., Niedrist G., Niessner A., Nilsson M. B., Normand S., Nosetto M. D., Nouvellon Y., Nuñez M. A., Ogaya R., Ogée J., Okello J., Olejnik J., Olesen J. E., Opedal Ø. H., Orsenigo S., Palaj A., Pampuch T., Panov A. V., Pärtel M., Pastor A., Pauchard A., Pauli H., Pavelka M., Pearse W. D., Peichl M., Pellissier L., Penczykowski R. M., Penuelas J., Petit Bon M., Petraglia A., Phartyal S. S., Phoenix G. K., Pio C., Pitacco A., Pitteloud C., Plichta R., Porro F., Portillo-Estrada M., Poulenard J., Poyatos R., Prokushkin A. S., Puchalka R., Pușcaș M., Radujković D., Randall K., Ratier Backes A., Remmele S., Remmers W., Renault D., Risch A. C., Rixen C., Robinson S. A., Robroek B. J. M., Rocha A. V., Rossi C., Rossi G., Roupsard O., Rubtsov A. V., Saccone P., Sagot C., Sallo Bravo J., Santos C. C., Sarneel J. M., Scharnweber T., Schmeddes J., Schmidt M., Scholten T., Schuchardt M., Schwartz N., Scott T., Seeber J., Segalin de Andrade A. C., Seipel T., Semenchuk P., Senior R. A., Serra-Diaz J. M., Sewerniak P., Shekhar A., Sidenko N. V., Siebicke L., Siegwart Collier L., Simpson E., Siqueira D. P., Sitková Z., Six J., Smiljanic M., Smith S. W., Smith-Tripp S., Somers B., Sørensen M. V., Souza J. J. L. L., Souza B. I., Souza Dias A., Spasojevic M. J., Speed J. D. M., Spicher F., Stanisci A., Steinbauer K., Steinbrecher R., Steinwandter M., Stemkovski M., Stephan J. G., Stiegler C., Stoll S., Svátek M., Svoboda M., Tagesson T., Tanentzap A. J., Tanneberger F., Theurillat J.-P., Thomas H. J. D., Thomas A. D., Tielbörger K., Tomaselli M., Treier U. A., Trouillier M., Turtureanu P. D., Tutton R., Tyystjärvi V. A., Ueyama M., Ujházy K., Ujházyová M., Uogintas D., Urban A. V., Urban J., Urbaniak M., Ursu T.-M., Vaccari F. P., Van de Vondel S., van den Brink L., Van Geel M., Vandvik V., Vangansbeke P., Varlagin A., Veen G. F., Veenendaal E., Venn S. E., Verbeeck H., Verbrugggen E., Verheijen F. G. A., Villar L., Vitale L., Vittoz P., Vives-Ingla M., von Oppen J., Walz J., Wang R., Wang Y., Way R. G., Wedegärtner R. E. M., Weigel R., Wild J., Wilkinson M., Wilmking M., Wingate L., Winkler M., Wipf S., Wohlfahrt G., Xenakis G., Yang Y., Yu Z., Yu K., Zellweger F., Zhang J., Zhang Z., Zhao P., Ziemblińska K., Zimmermann R., Zong S., Zyryanov V. I., Nijs I., Lenoir J. (2022). Global maps of soil temperature. Global Change Biology, 28 (9), 3110-3144, https://dx.doi.org/10.1111/gcb.16060, https://hal.inrae.fr/hal-03518443
[30] Altinalmazis-Kondylis A., Muessig K., Meredieu C., Jactel H., Augusto L., Fanin N., Bakker M. (2020). Effect of tree mixtures and water availability on belowground complementarity of fine roots of birch and pine planted on sandy podzol. Plant and Soil, 457, 437-455, https://dx.doi.org/10.1007/s11104-020-04741-8, https://hal.inrae.fr/hal-03093791
[29] Spitzer C., Wardle D., Lindahl B., Sundqvist M., Gundale M., Fanin N., Kardol P. (2021). Root traits and soil micro‐organisms as drivers of plant-soil feedbacks within the sub‐arctic tundra meadow. Journal of Ecology, 1-13, https://dx.doi.org/10.1111/1365-2745.13814, https://hal.inrae.fr/hal-03464328
[28] Lin D., Yang G., Dou P., Qian S., Zhao L., Yang Y., Fanin N. (2020). Microplastics negatively affect soil fauna but stimulate microbial activity: insights from a field-based microplastic addition experiment. Proceedings of the Royal Society B: Biological Sciences, 287 (1934), 1-9, https://dx.doi.org/10.1098/rspb.2020.1268, https://hal.inrae.fr/hal-03173558
[27] Fanin N., Bezaud S., Sarneel J., Cecchini S., Nicolas M., Augusto L. (2020). Relative Importance of Climate, Soil and Plant Functional Traits During the Early Decomposition Stage of Standardized Litter. Ecosystems, 23 (5), 1004-1018, https://dx.doi.org/10.1007/s10021-019-00452-z, https://hal.inrae.fr/hal-04642793
[25] Maxwell T., Augusto L., Bon L., Courbineau A., Altinalmazis-Kondylis A., Milin S., Bakker M., Jactel H., Fanin N. (2020). Effect of a tree mixture and water availability on soil nutrients and extracellular enzyme activities along the soil profile in an experimental forest. Soil Biology and Biochemistry, 148, 1-11, https://dx.doi.org/10.1016/j.soilbio.2020.107864, https://hal.inrae.fr/hal-02947095
[24] Lin D., Dou P., Yang G., Qian S., Wang H., Zhao L., Yang Y., Mi X., Ma K., Fanin N. (2020). Home‐field advantage of litter decomposition differs between leaves and fine roots. New Phytologist, 227 (4), 995-1000, https://dx.doi.org/10.1111/nph.16517, https://hal.inrae.fr/hal-03345983
[23] Graham E. B., Averill C., Bond-Lamberty B., Knelman J. E., Krause S., Peralta A. L., Shade A., Smith A. P., Cheng S. J., Fanin N., Freund C., Garcia P. E., Gibbons S. M., Van Goethem M. W., Ben Guebila M., Kemppinen J., Nowicki R. J., Pausas J. G., Reed S. P., Rocca J., Sengupta A., Sihi D., Simonin M., Słowiński M., Spawn S. A., Sutherland I., Tonkin J. D., Wisnoski N. I., Zipper S. C., Contributor Consortium (2021-03-03). Toward a generalizable framework of disturbance ecology through crowdsourced science. Frontiers in Ecology and Evolution, 9, https://dx.doi.org/10.3389/fevo.2021.588940, https://hal.inrae.fr/hal-03220658
[22] Lin D., Yang S., Dou P., Wang H., Wang F., Qian S., Yang G., Zhao L., Yang Y., Fanin N. (2020). A plant economics spectrum of litter decomposition among coexisting fern species in a sub-tropical forest. Annals of Botany, 125 (1), 1-11, https://dx.doi.org/10.1093/aob/mcz166, https://hal.inrae.fr/hal-02620344
[21] Wardle D., Gundale M., Kardol P., Nilsson M., Fanin N. (2020). Impact of plant functional group and species removals on soil and plant nitrogen and phosphorus across a retrogressive chronosequence. Journal of Ecology, 108 (2), 561-573, https://dx.doi.org/10.1111/1365-2745.13283, https://hal.inrae.fr/hal-02527321
[20] Lin D., Wang F., Fanin N., Pang M., Dou P., Wang H., Qian S., Zhao L., Yang Y., Mi X., Ma K. (2019). Soil fauna promote litter decomposition but do not alter the relationship between leaf economics spectrum and litter decomposability. Soil Biology and Biochemistry, 136, 1-8, https://dx.doi.org/10.1016/j.soilbio.2019.107519, https://hal.inrae.fr/hal-02171446
[17] Fanin N., Kardol P., Farrell M., Kempel A., Ciobanu M., Nilsson M., Gundale M. J., Wardle D. A. (2019). Effects of plant functional group removal on structure and function of soil communities across contrasting ecosystems. Ecology Letters, 22 (7), 1095-1103, https://dx.doi.org/10.1111/ele.13266, https://hal.inrae.fr/hal-02629183
[15] Fanin N., Kardol P., Farrell M., Nilsson M.-C., Gundale M. J., Wardle D. A. (2019). The ratio of Gram-positive to Gram-negative bacterial PLFA markers as an indicator of carbon availability in organic soils. Soil Biology and Biochemistry, 128, 111-114, https://dx.doi.org/10.1016/j.soilbio.2018.10.010, https://hal.inrae.fr/hal-02624611
[13] Fanin N., Gundale M. J., Farrell M., Ciobanu M., Baldock J. A., Nilsson M.-C., Kardol P., Wardle D. A. (2018). Consistent effects of biodiversity loss on multifunctionality across contrasting ecosystems. Nature Ecology & Evolution, 2 (2), 269-278, https://dx.doi.org/10.1038/s41559-017-0415-0, https://hal.inrae.fr/hal-02621923
[11] Schneider A. R., Gommeaux M., Duclercq J., Fanin N., Conreux A., Alahmad A., Lacoux J., Roger D., Spicher F., Ponthieu M., Cancès B., Morvan X., Marin B. (2017). Response of bacterial communities to Pb smelter pollution in contrasting soils. Science of the Total Environment, 605-606, 436-444, https://dx.doi.org/10.1016/j.scitotenv.2017.06.159, https://hal.inrae.fr/hal-01604416
[9] Sauvadet M., Chauvat M., Fanin N., Coulibaly S., Bertrand I. (2016). Comparing the effects of litter quantity and quality on soil biota structure and functioning: Application to a cultivated soil in Northern France. Applied Soil Ecology, 107, 261-271, https://dx.doi.org/10.1016/j.apsoil.2016.06.010, https://hal.inrae.fr/hal-02633738
[5] Fanin N., Hättenschwiler S., Schimann H., Fromin N. (2015). Interactive effects of C, N and P fertilization on soil microbial community structure and function in an Amazonian rain forest. Functional Ecology, 29 (1), 140-150, https://dx.doi.org/10.1111/1365-2435.12329, https://hal.inrae.fr/hal-02127024
[3] Fanin N., Fromin N., Buatois B., Hättenschwiler S. (2013). An experimental test of the hypothesis of non-homeostatic consumer stoichiometry in a plant litter-microbe system. Ecology Letters, 16 (6), 764-772, https://dx.doi.org/10.1111/ele.12108, https://hal.inrae.fr/hal-01604136
[2] Fanin N., Barantal S., Fromin N., Schimann H., Schevin P., Hättenschwiler S. (2012). Distinct microbial limitations in litter and underlying soil revealed by carbon and nutrient fertilization in a tropical rainforest. PLoS ONE, 7 (12), 1-11, https://dx.doi.org/10.1371/journal.pone.0049990, https://hal.inrae.fr/hal-01601804
By browsing our site you accept the installation and use cookies on your computer.
Know more
About cookies
What is a "cookie"?
A "cookie" is a piece of information, usually small and identified by a name, which may be sent to your browser by a website you are visiting. Your web browser will store it for a period of time, and send it back to the web server each time you log on again.
Different types of cookies are placed on the sites:
Cookies strictly necessary for the proper functioning of the site
Cookies deposited by third party sites to improve the interactivity of the site, to collect statistics
Cookies strictly necessary for the site to function
These cookies allow the main services of the site to function optimally. You can technically block them using your browser settings but your experience on the site may be degraded.
Furthermore, you have the possibility of opposing the use of audience measurement tracers strictly necessary for the functioning and current administration of the website in the cookie management window accessible via the link located in the footer of the site.
Technical cookies
Name of the cookie
Purpose
Shelf life
CAS and PHP session cookies
Login credentials, session security
Session
Tarteaucitron
Saving your cookie consent choices
12 months
Audience measurement cookies (AT Internet)
Name of the cookie
Purpose
Shelf life
atid
Trace the visitor's route in order to establish visit statistics.
13 months
atuserid
Store the anonymous ID of the visitor who starts the first time he visits the site
13 months
atidvisitor
Identify the numbers (unique identifiers of a site) seen by the visitor and store the visitor's identifiers.
13 months
About the AT Internet audience measurement tool :
AT Internet's audience measurement tool Analytics is deployed on this site in order to obtain information on visitors' navigation and to improve its use.
The French data protection authority (CNIL) has granted an exemption to AT Internet's Web Analytics cookie. This tool is thus exempt from the collection of the Internet user's consent with regard to the deposit of analytics cookies. However, you can refuse the deposit of these cookies via the cookie management panel.
Good to know:
The data collected are not cross-checked with other processing operations
The deposited cookie is only used to produce anonymous statistics
The cookie does not allow the user's navigation on other sites to be tracked.
Third party cookies to improve the interactivity of the site
This site relies on certain services provided by third parties which allow :
to offer interactive content;
improve usability and facilitate the sharing of content on social networks;
view videos and animated presentations directly on our website;
protect form entries from robots;
monitor the performance of the site.
These third parties will collect and use your browsing data for their own purposes.
How to accept or reject cookies
When you start browsing an eZpublish site, the appearance of the "cookies" banner allows you to accept or refuse all the cookies we use. This banner will be displayed as long as you have not made a choice, even if you are browsing on another page of the site.
You can change your choices at any time by clicking on the "Cookie Management" link.
