The continuous upsurge in soil nitrogen (N) enrichment has had strong impacts on the
structure and function of ecosystems. Elucidating how plant ectomycorrhizal fungi (EMF) …

Nitrogen (N) deposition has marked effects on the structure and function of global forest
ecosystems. Many forest tree species rely upon a symbiotic association with ectomycorrhizal …

Soil fungi play critical roles in ecosystem processes and are sensitive to global changes.
Elevated atmospheric nitrogen (N) deposition has been well documented to impact on …

Nitrogen addition affects plant–arbuscular mycorrhizal fungi (AMF) association greatly.
However, although the direct effect of nitrogen addition on AMF colonization has received …

Nitrogen (N) deposition resulting from anthropogenic activities poses threats to ecosystem
stability by reducing plant and microbial diversity. However, the role of soil microbes …

Rapid economic development and accelerated urbanization in China has resulted in
widespread atmospheric nitrogen (N) deposition. One consequence of N deposition is the …

Atmospheric nitrogen (N) deposition is predicted to increase, especially in the subtropics.
However, the responses of soil microorganisms to long-term N addition at the molecular …

Elevated nitrogen (N) deposition may stimulate a plant's dependency on arbuscular
mycorrhizal (AM) fungi in phosphorus (P)-deficient subtropical forests. However, the …

Anthropogenic nitrogen (N) deposition is known to profoundly alter the dynamics of mycelial
traits of ectomycorrhizal (ECM) fungi in forest ecosystems. The site-specific change in …

Ectomycorrhizal fungi (EcMF) are involved in soil nutrient cycling in forest ecosystems.
These fungi can promote the uptake of nutrients (eg, nitrogen (N) and phosphorus (P)) and …