Soil cyanobacteria in tropical forests is understudied despite its important role in soil
biochemical process and plant growth. Under a nitrogen (N) deposition background in …

Increased nitrogen (N) deposition endangers the biodiversity and stability of forest
ecosystems, and much of the original phosphorus (P) parent material continues to decrease …

Rapid increase of nitrogen (N) deposition could alter nutrient availability, leading to changes
in soil microbial processes and ecosystem carbon and nutrient cycling. However, the effects …

Elevated nitrogen (N) deposition in humid tropical regions may exacerbate phosphorus (P)
deficiency in forests on highly weathered soils. However, it is not clear how P availability …

Elevated nitrogen (N) deposition may aggravate phosphorus (P) deficiency in forests in the
warm humid regions of China. To our knowledge, the interactive effects of long-term N …

Nutrient addition to forest ecosystems significantly influences belowground microbial
diversity, community structure, and ecosystem functioning. Nitrogen (N) addition in forests is …

Atmospheric nitrogen (N) deposition and phosphorus (P) addition both can change soil
bacterial and fungal community structure with a consequent impact on ecosystem functions …

Increasing nitrogen (N) deposition has aroused large concerns because of its potential
negative effects on forest ecosystems. Although microorganisms play a vital role in …

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 …

Soil microorganisms are key drivers of ecological processes such as nutrient cycling.
However, our understanding of how soil microbes respond to elevated atmospheric nitrogen …