Wildfires may increase soil emissions of trace nitrogen (N) gases like nitric oxide (NO) and
nitrous oxide (N2O) by changing soil physicochemical conditions and altering microbial …

Microbial communities are not the easiest to manipulate experimentally in natural
ecosystems. However, leaf litter—topmost layer of surface soil—is uniquely suitable to …

Soil microbial communities are ubiquitous and essential for the functioning of the soil
system. The use of fire is a common practice in rotational shifting cultivation (RSC) to clear …

Peatland fires induced changes in electron transfer properties and relevant electroactive
structures of peat soil organic matter (PSOM) remain ambiguous, impeding comprehension …

Lodgepole pine forests are under threat due to wildfires of increasing severity and frequency
coupled with tree mortality from insect outbreaks. Soil microbial communities, which drive …

Global wildfire activity has increased since the 1970s and is projected to intensify throughout
the 21st century. Wildfires change the composition and biodegradability of soil organic …

Given increased wildfire activity, there is growing interest in understanding the drivers of
microbial succession after fire. Dispersal may be especially important to post-fire succession …

Disturbances cause rapid changes to forests, with different disturbance types and severities
creating unique ecosystem trajectories that can impact the underlying soil microbiome. Pile …

Mediterranean forest ecosystems will be increasingly affected by hotter drought and more
frequent and severe wildfire events in the future. However, little is known about the longer …

Forests are increasingly threatened by climate change and the Anthropocene seems to have
favored the emergence and adaptation of pathogens. Robust monitoring methods are …