Functional Ecology, ISSN 0269-8463, 01/2019, Volume 33, Issue 1, pp. 13 - 30
1.Theoretical models pertaining to feedbacks between ecological and evolutionary processes are prevalent in multiple biological fields. An integrative overview...
feedback | eco‐evolutionary dynamics | ecology | demography | rapid evolution | modelling | theory | eco-evolutionary dynamics | PHENOTYPIC PLASTICITY | CHARACTER DISPLACEMENT | ECOSYSTEM ECOLOGY | PREDATOR-PREY INTERACTIONS | NICHE CONSTRUCTION | PLANT-SOIL FEEDBACKS | ADAPTIVE DYNAMICS | POPULATION-DYNAMICS | ECOLOGICAL DYNAMICS | Demographics | Ecosystems | Dispersal | Biological evolution | Crosstalk | Spatial discrimination | Evolution | Ecology | Models
feedback | eco‐evolutionary dynamics | ecology | demography | rapid evolution | modelling | theory | eco-evolutionary dynamics | PHENOTYPIC PLASTICITY | CHARACTER DISPLACEMENT | ECOSYSTEM ECOLOGY | PREDATOR-PREY INTERACTIONS | NICHE CONSTRUCTION | PLANT-SOIL FEEDBACKS | ADAPTIVE DYNAMICS | POPULATION-DYNAMICS | ECOLOGICAL DYNAMICS | Demographics | Ecosystems | Dispersal | Biological evolution | Crosstalk | Spatial discrimination | Evolution | Ecology | Models
Journal Article
2.
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Negative plant-soil feedback predicts tree-species relative abundance in a tropical forest
Nature, ISSN 0028-0836, 08/2010, Volume 466, Issue 7307, pp. 752 - 755
The accumulation of species-specific enemies around adults is hypothesized to maintain plant diversity by limiting the recruitment of conspecific seedlings...
RECRUITMENT | COEXISTENCE | COMMUNITY | DENSITY-DEPENDENCE | MULTIDISCIPLINARY SCIENCES | GROWTH | LOCAL NEIGHBORHOOD | SEEDLING MORTALITY | MAINTAIN DIVERSITY | SPATIAL-PATTERNS | PATHOGENS | Species Specificity | Soil Microbiology | Vertebrates - physiology | Soil - analysis | Biomass | Trees - growth & development | Biodiversity | Seedlings - growth & development | Food Chain | Feedback, Physiological | Trees - parasitology | Animals | Trees - classification | Tropical Climate | Models, Biological | Computer Simulation | Panama | Population Density | Trees - microbiology | Insecta - physiology | Plant-soil relationships | Research | Observations | Tropics | Biological diversity | Trees | Demography | Flowers & plants | Experiments
RECRUITMENT | COEXISTENCE | COMMUNITY | DENSITY-DEPENDENCE | MULTIDISCIPLINARY SCIENCES | GROWTH | LOCAL NEIGHBORHOOD | SEEDLING MORTALITY | MAINTAIN DIVERSITY | SPATIAL-PATTERNS | PATHOGENS | Species Specificity | Soil Microbiology | Vertebrates - physiology | Soil - analysis | Biomass | Trees - growth & development | Biodiversity | Seedlings - growth & development | Food Chain | Feedback, Physiological | Trees - parasitology | Animals | Trees - classification | Tropical Climate | Models, Biological | Computer Simulation | Panama | Population Density | Trees - microbiology | Insecta - physiology | Plant-soil relationships | Research | Observations | Tropics | Biological diversity | Trees | Demography | Flowers & plants | Experiments
Journal Article
Ecology, ISSN 0012-9658, 2/2016, Volume 97, Issue 2, pp. 294 - 301
Research in savannas has focused on tree–grass interactions, whereas tree species coexistence received little attention. A leading hypothesis to explain tree...
Reports | diversity | tree abundance | plant–soil (belowground) interactions | soil biota | Janzen‐Connell effects | coexistence | Tanzania | East Africa | Janzen-connell effects | Plant-soil (belowground) interactions | Positive feedbacks | Diversity | Negative feedbacks | Coexistence | Tree abundance | Soil biota | SURVIVORSHIP | SEEDLING GROWTH | ISLANDS | positive feedbacks | GRASS INTERACTIONS | plant-soil (belowground) interactions | COMMUNITIES | MYCORRHIZAL FUNGI | negative feedbacks | Janzen-Connell effects | NUTRIENTS | ECOLOGY | VEGETATION | Plant Shoots - growth & development | Seeds | Trees - physiology | Ecosystem | Soil - chemistry | Botanical research | Plant-soil relationships | Research | Savannas
Reports | diversity | tree abundance | plant–soil (belowground) interactions | soil biota | Janzen‐Connell effects | coexistence | Tanzania | East Africa | Janzen-connell effects | Plant-soil (belowground) interactions | Positive feedbacks | Diversity | Negative feedbacks | Coexistence | Tree abundance | Soil biota | SURVIVORSHIP | SEEDLING GROWTH | ISLANDS | positive feedbacks | GRASS INTERACTIONS | plant-soil (belowground) interactions | COMMUNITIES | MYCORRHIZAL FUNGI | negative feedbacks | Janzen-Connell effects | NUTRIENTS | ECOLOGY | VEGETATION | Plant Shoots - growth & development | Seeds | Trees - physiology | Ecosystem | Soil - chemistry | Botanical research | Plant-soil relationships | Research | Savannas
Journal Article
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Plant-soil feedback and the maintenance of diversity in Mediterranean-climate shrublands
Science, ISSN 0036-8075, 01/2017, Volume 355, Issue 6321, pp. 173 - 176
Soil biota influence plant performance through plant-soil feedback, but it is unclear whether the strength of such feedback depends on plant traits and whether...
BIODIVERSITY | PHOSPHORUS | WESTERN-AUSTRALIA | MULTIDISCIPLINARY SCIENCES | RAIN-FOREST | MECHANISMS | SUCCESSION | SPECIES DIVERSITY | COMMUNITIES | PATHOGENS | Climate | Feedback, Physiological | Plant Development | Biota - physiology | Soil | Mediterranean Region | Australia | Shrubs | Environmental aspects | Plant-soil relationships | Observations | Biological diversity | Plants (botany) | Populations | Seeds | Biota | Plants | Soil-water-plant relationships | Positive feedback | Biodiversity | Survival | Fungi | Negative feedback | Plant diversity | Plant growth | Feedback | Nutrients | Strategy | Bacteria | Herbivores | Flowers & plants | Plants (organisms) | Maintenance
BIODIVERSITY | PHOSPHORUS | WESTERN-AUSTRALIA | MULTIDISCIPLINARY SCIENCES | RAIN-FOREST | MECHANISMS | SUCCESSION | SPECIES DIVERSITY | COMMUNITIES | PATHOGENS | Climate | Feedback, Physiological | Plant Development | Biota - physiology | Soil | Mediterranean Region | Australia | Shrubs | Environmental aspects | Plant-soil relationships | Observations | Biological diversity | Plants (botany) | Populations | Seeds | Biota | Plants | Soil-water-plant relationships | Positive feedback | Biodiversity | Survival | Fungi | Negative feedback | Plant diversity | Plant growth | Feedback | Nutrients | Strategy | Bacteria | Herbivores | Flowers & plants | Plants (organisms) | Maintenance
Journal Article
Functional Ecology, ISSN 0269-8463, 2016, Volume 30, Issue 7, pp. 1109 - 1121
It is increasingly acknowledged that plant–soil feedbacks may play an important role in driving the composition of plant communities and functioning of...
invasive plants | carbon and nutrient cycling | range expansion | land use | plant–soil feedback triangle | community composition | biodiversity loss | climate change | LITTER DECOMPOSITION | POSITIVE FEEDBACKS | CLIMATE-CHANGE | CONSERVATION TILLAGE | plant-soil feedback triangle | RESOURCE AVAILABILITY | HOME-FIELD ADVANTAGE | MICROBIAL COMMUNITIES | FUNGAL COMMUNITIES | PRECIPITATION CHANGE | ECOLOGY | DRYING-REWETTING FREQUENCY | Ecosystem components | Global temperature changes | Chemical properties | Precipitation (Meteorology) | Droughts | Ecosystems | Feedback | Herbivores
invasive plants | carbon and nutrient cycling | range expansion | land use | plant–soil feedback triangle | community composition | biodiversity loss | climate change | LITTER DECOMPOSITION | POSITIVE FEEDBACKS | CLIMATE-CHANGE | CONSERVATION TILLAGE | plant-soil feedback triangle | RESOURCE AVAILABILITY | HOME-FIELD ADVANTAGE | MICROBIAL COMMUNITIES | FUNGAL COMMUNITIES | PRECIPITATION CHANGE | ECOLOGY | DRYING-REWETTING FREQUENCY | Ecosystem components | Global temperature changes | Chemical properties | Precipitation (Meteorology) | Droughts | Ecosystems | Feedback | Herbivores
Journal Article
Ecology, ISSN 0012-9658, 11/2010, Volume 91, Issue 11, pp. 3261 - 3273
Modeling studies have shown that nitrogen (N) strongly regulates ecosystem responses and feedback to climate warming. However, it remains unclear what...
carbon storage | C:N ratio | nitrogen use efficiency | soil carbon | warming | biofuel harvest | land use change | climate change | Climate change | Terrestrial ecosystems | Soil heating | Ecosystems | Global warming | Climate models | Prairie soils | Plants | Biofuels | Soil ecology | Warming | Nitrogen use efficiency | Carbon storage | Land use change | Biofuel harvest | Soil carbon | TALLGRASS PRAIRIE | LITTER DECOMPOSITION | TERRESTRIAL ECOSYSTEMS | USE EFFICIENCY | RESPONSES | CYCLE FEEDBACKS | BIOMASS | DYNAMICS | ECOLOGY | PLANT-GROWTH | VEGETATION | Carbon - metabolism | Global Warming | Nitrogen - metabolism | Plants - metabolism | Plant Roots | Time Factors | Ecosystem | Soil - chemistry | Soils | Nitrogen content | Plant-soil relationships | Fixation | Research | Nitrogen
carbon storage | C:N ratio | nitrogen use efficiency | soil carbon | warming | biofuel harvest | land use change | climate change | Climate change | Terrestrial ecosystems | Soil heating | Ecosystems | Global warming | Climate models | Prairie soils | Plants | Biofuels | Soil ecology | Warming | Nitrogen use efficiency | Carbon storage | Land use change | Biofuel harvest | Soil carbon | TALLGRASS PRAIRIE | LITTER DECOMPOSITION | TERRESTRIAL ECOSYSTEMS | USE EFFICIENCY | RESPONSES | CYCLE FEEDBACKS | BIOMASS | DYNAMICS | ECOLOGY | PLANT-GROWTH | VEGETATION | Carbon - metabolism | Global Warming | Nitrogen - metabolism | Plants - metabolism | Plant Roots | Time Factors | Ecosystem | Soil - chemistry | Soils | Nitrogen content | Plant-soil relationships | Fixation | Research | Nitrogen
Journal Article
Ecological Monographs, ISSN 0012-9615, 5/2007, Volume 77, Issue 2, pp. 147 - 162
Plant—soil feedback affects performance and competitive ability of individual plants. However, the importance of plant—soil feedback in historical contigency...
Synecology | Soil microorganisms | Biomass production | Soil fungi | Plant communities | Soil composition | Plants | Species | Soil ecology | Inoculum | historical contingency | ex-arable land | secondary succession | microorganisms | denaturing gradient gel electrophoresis | plant–soil feedback | competition | biotic legacy | community assembly | DGGE | Competition | Microorganisms | Historical contingency | Plant-soil feedback | Denaturing gradient gel electrophoresis | Community assembly | Secondary succession | Biotic legacy | Ex-arable land | FOOD-WEB | FUNGAL PATHOGENS | SPECIES COEXISTENCE | SUCCESSION | GRADIENT GEL-ELECTROPHORESIS | BORNE PATHOGENS | ECOLOGY | DIVERSITY | plant-soil feedback | NEGATIVE FEEDBACK | POPULATION-DYNAMICS | 16S RIBOSOMAL-RNA | Soil microbiology | Plant-soil relationships | Research | borne pathogens | succession | diversity | population-dynamics | food-web | 16s ribosomal-rna | gradient gel-electrophoresis | fungal pathogens | negative feedback | species coexistence
Synecology | Soil microorganisms | Biomass production | Soil fungi | Plant communities | Soil composition | Plants | Species | Soil ecology | Inoculum | historical contingency | ex-arable land | secondary succession | microorganisms | denaturing gradient gel electrophoresis | plant–soil feedback | competition | biotic legacy | community assembly | DGGE | Competition | Microorganisms | Historical contingency | Plant-soil feedback | Denaturing gradient gel electrophoresis | Community assembly | Secondary succession | Biotic legacy | Ex-arable land | FOOD-WEB | FUNGAL PATHOGENS | SPECIES COEXISTENCE | SUCCESSION | GRADIENT GEL-ELECTROPHORESIS | BORNE PATHOGENS | ECOLOGY | DIVERSITY | plant-soil feedback | NEGATIVE FEEDBACK | POPULATION-DYNAMICS | 16S RIBOSOMAL-RNA | Soil microbiology | Plant-soil relationships | Research | borne pathogens | succession | diversity | population-dynamics | food-web | 16s ribosomal-rna | gradient gel-electrophoresis | fungal pathogens | negative feedback | species coexistence
Journal Article
Journal of Ecology, ISSN 0022-0477, 3/2013, Volume 101, Issue 2, pp. 265 - 276
1. Plant-soil feedbacks is becoming an important concept for explaining vegetation dynamics, the invasiveness of introduced exotic species in new habitats and...
Trucks | Negative feedback | Synecology | Ecosystems | Plant ecology | Ecology | Plants | Special Feature — Essay Review | Species | Soil ecology | Forest soils | succession | biodiversity‐ecosystem functioning | historical contingency | invasiveness | priority effect | plant–soil (below‐ground) interactions | abundance | mycorrhizal fungi | density dependence | rarity | Rarity | Succession | Priority effect | Mycorrhizal fungi | Invasiveness | Plant-soil (below-ground) interactions | Historical contingency | Abundance | Biodiversity-ecosystem functioning | Density dependence | RESTORATION ECOLOGY | LITTER DECOMPOSITION | SPECIES COEXISTENCE | ECOSYSTEM PROCESSES | PLANT SCIENCES | plant-soil (below-ground) interactions | biodiversity-ecosystem functioning | HOME-FIELD ADVANTAGE | MICROBIAL COMMUNITIES | INVASIVE PLANT | DENSITY-DEPENDENCE | ECOLOGY | NATURAL VEGETATION | SERPENTINE GRASSLAND | Analysis | Vegetation dynamics | Climatic changes | Skogsvetenskap | Forest Science
Trucks | Negative feedback | Synecology | Ecosystems | Plant ecology | Ecology | Plants | Special Feature — Essay Review | Species | Soil ecology | Forest soils | succession | biodiversity‐ecosystem functioning | historical contingency | invasiveness | priority effect | plant–soil (below‐ground) interactions | abundance | mycorrhizal fungi | density dependence | rarity | Rarity | Succession | Priority effect | Mycorrhizal fungi | Invasiveness | Plant-soil (below-ground) interactions | Historical contingency | Abundance | Biodiversity-ecosystem functioning | Density dependence | RESTORATION ECOLOGY | LITTER DECOMPOSITION | SPECIES COEXISTENCE | ECOSYSTEM PROCESSES | PLANT SCIENCES | plant-soil (below-ground) interactions | biodiversity-ecosystem functioning | HOME-FIELD ADVANTAGE | MICROBIAL COMMUNITIES | INVASIVE PLANT | DENSITY-DEPENDENCE | ECOLOGY | NATURAL VEGETATION | SERPENTINE GRASSLAND | Analysis | Vegetation dynamics | Climatic changes | Skogsvetenskap | Forest Science
Journal Article