Found 404 results
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Biotic and abiotic determinants of the formation of ant mosaics in primary {Neotropical} rainforests. Ecological Entomology. 44:560–570.
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2019. Biotic and abiotic determinants of the formation of ant mosaics in primary {Neotropical} rainforests. Ecological Entomology. 44:560–570.
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2019. Biotic soil-plant interaction processes explain most of hysteretic soil {CO2} efflux response to temperature in cross-factorial mesocosm experiment. Scientific Reports. 10:905.
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2020. Bottom-up and top-down control of dispersal across major organismal groups. Nature Ecology and Evolution. 2:1859–1863.
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2018. Bottom-up and top-down control of dispersal across major organismal groups. Nature Ecology and Evolution. 2:1859–1863.
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2018. Bottom-up effects of lake sediment on pelagic food-web compartments: a mesocosm study. Freshwater Biology. 59:1695–1709.
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2014. Can light-saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Can light-saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Can light-saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Can light-saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Can light‐saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Can light‐saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Can light‐saturated photosynthesis in lowland tropical forests be estimated by one light level? Biotropica. 52:1183–1193.
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2020. Canopy {Area} of {Large} {Trees} {Explains} {Aboveground} {Biomass} {Variations} across {Nine} {Neotropical} {Forest} {Landscapes}. Biogeosciences Discussions. :1–38.
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2018. Canopy {Area} of {Large} {Trees} {Explains} {Aboveground} {Biomass} {Variations} across {Nine} {Neotropical} {Forest} {Landscapes}. Biogeosciences Discussions. :1–38.
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2019. Climate and {Atmosphere} {Simulator} for {Experiments} on {Ecological} {Systems} in {Changing} {Environments}. Environmental Science & Technology. 48:8744–8753.
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2014. Climate controls over the net carbon uptake period and amplitude of net ecosystem production in temperate and boreal ecosystems. Agricultural and Forest Meteorology. 243:9–18.
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2017. Climate, soil resources and microbial activity shape the distributions of mountain plants based on their functional traits. Ecography. 43:1550–1559.
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2020. Climate warming reduces gut microbiota diversity in a vertebrate ectotherm. Nature Ecology & Evolution. 1:0161.
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2020. A {Comparative} {Assessment} of the {Performance} of {Individual} {Tree} {Crowns} {Delineation} {Algorithms} from {ALS} {Data} in {Tropical} {Forests}. Remote Sensing. 11:1086.
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2019. Comparing three types of dietary samples for prey {DNA} decay in an insect generalist predator. Molecular Ecology Resources. 18:966–973.
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