Anthropogenic activities have severely altered biogeochemical cycles with far-reaching
consequences for biodiversity and ecosystem functioning. The use of artificial fertilizers …

Understanding the underlying mechanisms driving responses of belowground communities
to increasing soil fertility will facilitate predictions of ecosystem responses to anthropogenic …

Aim Plants and their associated microbes influence nutrient cycling in terrestrial ecosystems,
yet we have a limited understanding of how soil acidity mediates the process. Here, we …

Deciduous forests may respond differently from coniferous forests to the anthropogenic
deposition of nitrogen (N). Since fungi, especially ectomycorrhizal (EM) fungi, are known to …

Nitrogen availability often restricts primary productivity in terrestrial ecosystems. Arbuscular
mycorrhizal fungi are ubiquitous symbionts of terrestrial plants and can improve plant …

Legumes can increase nitrogen (N) input to soil via N 2 fixation, and arbuscular mycorrhizal
fungi (AMF) can colonize legumes, which further promotes the acquisition of nutrients such …

Tree–fungal symbioses are increasingly recognized to affect soil nitrogen (N)
transformations, yet the role of free-living soil microbes in the process is largely unclear. Soil …

Plant nutrient‐acquisition strategies drive soil processes and vegetation performance, but
their effect on the soil microbiome remains poorly understood. This knowledge is important …

Microbial communities play a pivotal role in soil nutrient cycling, which is affected by
nitrogen loading on soil fungi and particularly mycorrhizal fungi. In this experiment, we …

Aim Our aim was to quantify the extent to which nutrient pollution explains arbuscular
mycorrhizal fungal community richness and composition. Location Europe. Time period …