N. Eisenhauer

The paper examines how tree species diversity and mycorrhizal associations affect nutrient dynamics in forest ecosystems, finding that mycorrhizal strategies mediate diversity effects on nutrient storage.

This study links soil health to primary productivity across Europe's woodlands, grasslands, and croplands, showing higher soil health in woodlands and positive associations with productivity in croplands and grasslands.

The paper shows that increasing tree species spatial heterogeneity in forests improves litter decomposition and nitrogen cycling by 45%.

This study shows that higher tree species diversity enhances forest temperature buffering across multiple time scales, mediated by canopy density and structural diversity.

This study quantifies how nutrient addition affects ecological stability facets in grasslands, finding reduced resistance in species richness and community composition but not biomass.

The paper shows that tree species diversity increases productivity by enhancing structural complexity in temperate forests, regardless of mycorrhizal type.

This study examines how recurrent summer droughts affect soil fungal communities in grasslands with varying plant diversity and composition, finding no buffering effect of diversity and highlighting the role of plant functional groups.

This study shows plant diversity stabilizes soil temperature by increasing organic carbon and leaf area index, with effects strengthening over time and under extreme conditions.

The paper assesses body size changes across six taxon groups and finds that decreases in body size are paired with stable assemblage biomass due to compensatory abundance increases.

This study shows sustainable land management improves ecological and economic multifunctionality in agroecosystems, even under future climate conditions.

The paper examines how changes in biodiversity affect plant volatile organic compound emissions and secondary organic aerosol formation, finding reduced BVOCs with higher biodiversity but mixed BSOA results.

This study maps the global distribution of antibiotic resistance genes in soils and identifies key environmental drivers influencing their prevalence.

The paper examines how climatic and edaphic factors influence body mass-abundance scaling in soil animal communities across four countries.

The paper examines how tree diversity affects productivity in a temperate forest, finding that mycorrhizal types (AM and EM) influence biodiversity-ecosystem functioning relationships differently.

This study finds mixed-species planted forests store more aboveground carbon than monocultures, with higher carbon stocks in more diverse mixtures.

The paper introduces a global collaborative network to standardize soil animal community monitoring and food web analysis across diverse ecosystems.

This study shows invasive earthworms reduce aboveground arthropod abundance, biomass, and species richness in a Canadian forest, with cascading effects across trophic levels.

The paper investigates how plant and soil history affect plant responses to global change by testing offspring from different diversity communities under various environmental conditions.

The paper examines how tree diversity and mycorrhizal type affect arbuscular (AMF) and ectomycorrhizal fungal (EMF) communities in a tree experiment.

The paper shows that plant communities with a history of co-occurrence are more stable and recover better from flooding than naive communities, even at low diversity.

The paper assesses the availability and reusability of 16S rRNA gene amplicon sequencing data from microbiology journals, finding that only 34% of datasets are potentially reusable.

The paper shows that biodiversity loss from stressors reduces litter decomposition, but nutrient enrichment does not, based on a meta-analysis of 660 observations.

The paper evaluates how community assembly affects ecosystem productivity using two approaches and applies them to experimental data, finding resource competition and facilitation by nitrogen fixing plants as likely explanations.

This study examines how tree diversity and environmental factors influence soil microbial functions across global experiments, finding that abiotic factors like soil water content are more significant than tree diversity in the short term.

This study shows climate change and intensive land use reduce soil animal biomass through different pathways: climate change reduces body size, while land use decreases population size.

This study shows that plant traits poorly predict long-term ecosystem functioning, with only moderate explanatory power across years.

The paper identifies significant gaps in soil biodiversity and ecosystem function data across global studies and provides research priorities to address these gaps.

This paper compares biodiversity experiments to real-world plant communities and finds that experimental results are robust to the inclusion of unrealistic communities.

The paper predicts global patterns of earthworm diversity, abundance, and biomass using a dataset from 7000 sites, finding climate drives these patterns but with differences from aboveground taxa.

The paper investigates how plant diversity affects primary productivity through soil feedbacks, finding that both plant-plant and plant-soil interactions mediate these effects, influenced by soil history and abiotic/biotic pathways.