In Appalachian ecosystems, forest disturbance has long-term effects on microbially driven
biogeochemical processes such as nitrogen (N) cycling. However, little is known regarding …

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 …

The increasing rate of atmospheric nitrogen (N) deposition seriously affects the structure and
function of ecosystems. Although soil microorganisms play a crucial role in ecosystem …

Atmospheric nitrogen (N) deposition and changing precipitation regimes greatly affect the
structure and functions of terrestrial ecosystems. However, their impacts on the diversity and …

Growing pressure from climate change and agricultural land use is destabilizing soil
microbial community interactions. Yet little is known about microbial community resistance …

Soil bacteria play core roles in mediating the functional linkage between above-and
belowground components during forest restoration. However, the pattern and mechanism …

Patterns in the network structure of microbial communities may give indications of their
degree of interaction and interdependence, and their resilience to environmental …

While afforestation mitigates climate concerns, the impact of afforestation on ecological
assembly processes and multiple soil functions (multifunctionality) in afforested areas …

Soil microbes are major drivers of soil carbon cycling, yet we lack an understanding of how
climate warming will affect microbial communities. Three ongoing field studies at the …

Soil microbial community's responses to climate warming alter the global carbon cycle. In
temperate ecosystems, soil microbial communities function along seasonal cycles. However …