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The dependence of (a) plant mass and soil abundance of (b) soil fungi, (c) soil gram-positive bacteria and (d) gram-negative bacteria on soil Cd concentrations and plant species in the conditioning phase.

The dependence of (a) plant mass and soil abundance of (b) soil fungi, (c) soil gram-positive bacteria and (d) gram-negative bacteria on soil Cd concentrations and plant species in the conditioning phase.

Increasing #HeavyMetalCadmium concentrations positively influenced the #Plant_soilFeedback (PSF) of #PhytolaccaAmericana while exacerbating the negative PSF of Phytolacca acinosa.

#PlantInvasion | #SoilBiota | #SoilSecondaryMetabolites

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Ya Wang et al. explored the effects of nutrient and #Density on #Plant–soilFeedbacks of co-occurring invasive and native plants.

#ClonalInvader | #NutrientAddition | #PlantInvasion | #SoilBiota

doi.org/10.1093/jpe/...

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Effects of nutrient and density on plant-soil feedbacks of co-occurring invasive and native plants Abstract. Invasive plants often generate more positive plant-soil feedbacks (PSFs) than natives. The direction and strength of PSFs have been affected by r

【🎉Latest accepted article】
Effects of nutrient and #Density on #Plant-soilFeedbacks of co-occurring invasive and native plants

#ClonalInvader | #NutrientAddition | #PlantInvasion | #SoilBiota

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Soil nematode abundance (a), biomass (b), carbon footprint (c), NCR (d), diversity index (e), genus richness (f) and trophic group percentage (g) at three sites in the field survey experiment.

Soil nematode abundance (a), biomass (b), carbon footprint (c), NCR (d), diversity index (e), genus richness (f) and trophic group percentage (g) at three sites in the field survey experiment.

Soil nematode abundance (a), biomass (b), carbon footprint (c), NCR (d), diversity index (e), genus richness (f) and trophic group percentage (g) along a drought gradient in the microcosm experiment.

Soil nematode abundance (a), biomass (b), carbon footprint (c), NCR (d), diversity index (e), genus richness (f) and trophic group percentage (g) along a drought gradient in the microcosm experiment.

【EDITOR'S CHOICE】
Drought shifts soil nematode trophic groups and mediates the heterotrophic respiration

#SoilBiota | #FungalEnergyChannel | #BacterialEnergyChannel | #CarbonFootprint | #AridGrassland

doi.org/10.1093/jpe/...

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Response of soil biota to agricultural management practices: A systematic quantitative meta-data-analysis and method selection framework Soil organisms are vital to soil health, however, their inclusion in monitoring frameworks remains limited. Yet, it is well-known that agricultural ma…

How do agricultural practices impact soil organisms? 🌱 A recent #BENCHMARKS study found that sustainable practices support soil health, and developed a new scoring system for selecting biological indicators.

Access it here: tinyurl.com/3hbmpmdy
#SoilHealth #BENCHMARKS #SoilBiota

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The exotic (letters with gray background) and native plant species used for this study and the phylogenetic relationships between these species and the crop Z. mays.

The exotic (letters with gray background) and native plant species used for this study and the phylogenetic relationships between these species and the crop Z. mays.

Chunqiang Wei et al. found that #Plant species of higher #IntrinsicGrowthAbility suffered greater negative #Soil effects, plant traits such as intrinsic growth ability, other than #PhylogeneticRelatedness, could be reliable #Predictors for plant responses to #SoilBiota.
doi.org/10.1093/jpe/...

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Figure 2 in Ross et al. (2025): "Photographs of the main groups of Antarctic soil fauna: a. oribatid mites Halozetes antarcticus and Oppia loxolineata (source: GMR), b. springtail Cryptopygus cisantarcticus (source: GMR), c. nematode Scottnema Lindsayae (source: Barcode of Life Data System (BOLD), uncredited), d. rotifer Macrotrachela jankoi (source: Iakovenko Reference Iakovenko, Smykla, Convey, Kašparová, Kozeretska and Trokhymets2015; NERC Open Access Research Archive (NORA), http://nora.nerc.ac.uk/) and e. tardigrade Hypsibius exemplaris (source: Jönsson Reference Jönsson2019)."

Figure 2 in Ross et al. (2025): "Photographs of the main groups of Antarctic soil fauna: a. oribatid mites Halozetes antarcticus and Oppia loxolineata (source: GMR), b. springtail Cryptopygus cisantarcticus (source: GMR), c. nematode Scottnema Lindsayae (source: Barcode of Life Data System (BOLD), uncredited), d. rotifer Macrotrachela jankoi (source: Iakovenko Reference Iakovenko, Smykla, Convey, Kašparová, Kozeretska and Trokhymets2015; NERC Open Access Research Archive (NORA), http://nora.nerc.ac.uk/) and e. tardigrade Hypsibius exemplaris (source: Jönsson Reference Jönsson2019)."

New publication: #Phylogeography of Antarctic #soil invertebrate fauna reveals ancient origins, repeated colonization and recent #evolution. #biodiversity #populationgenetics #soilbiota #moleculartaxonomy
doi.org/10.1017/S095...

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New NIOO publication: Communities of #nematodes, #bacteria and #fungi differ among #soils of different wild #cabbage populations, by @wimvanderputten and others. #rhizosphere #soilbiota #belowground #communityecology
https://doi.org/10.1016/j.ejsobi.2023.103512

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New NIOO publication: Inter- and intraspecific plant-soil feedbacks of #grassspecies, by @paola__rallo @e_hannula @kjfverhoeven @wimvanderputten and others. #rhizosphere #soilbiota
https://doi.org/10.1007/s11104-023-05893-z

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