In the Anthropocene, in which we now live, climate change is impacting most life on Earth.
Microorganisms support the existence of all higher trophic life forms. To understand how …

Microorganisms are critical in terrestrial carbon cycling because their growth, activity and
interactions with the environment largely control the fate of recent plant carbon inputs as well …

Study of life history strategies may help predict the performance of microorganisms in nature
by organizing the complexity of microbial communities into groups of organisms with similar …

Soil microorganisms, by actively participating in the decomposition and transformation of
organic matter through diverse metabolic pathways, play a pivotal role in carbon cycling …

Microorganisms are physiologically diverse, possessing disparate genomic features and
mechanisms for adaptation (functional traits), which reflect on their associated life strategies …

Amendment of soil with biochar induces a shift in microbial community structure and
promotes faster mineralization of soil organic carbon (SOC), thus offsetting C sequestration …

Microbial growth and respiration are at the core of the soil carbon (C) cycle, as these
microbial physiological performances ultimately determine the fate of soil C. Microbial C use …

Microbial elements use efficiencies are the important parameters in regulating soil carbon
(C) and nitrogen (N) mineralization processes. Microbial C use efficiency (CUE) describes …

Nutrient amendment diminished bacterial functional diversity, consolidating carbon flow
through fewer bacterial taxa. Here, we show strong differences in the bacterial taxa …

Microorganisms drive soil carbon mineralization and changes in their activity with increased
temperature could feedback to climate change. Variation in microbial biodiversity and the …