Increasing global temperatures are predicted to stimulate soil microbial respiration. The direct and indirect impacts of warming on soil microbes, nevertheless, remain unclear. This is particularly true for understudied subsoil microbes. Here, we show that 4.5 years of whole-profile soil warming in a temperate mixed forest results in altered microbial community composition and metabolism in surface soils, partly due to carbon limitation. However, microbial communities in the subsoil responded differently to warming than in the surface. Throughout the soil profile-but to a greater extent in the subsoil-physiologic and genomic measurements show that phylogenetically different microbes could utilize complex organic compounds, dampening the eff...
The central objective of the proposed work was to develop a genomic approach (nucleic acid-based) th...
Rising global temperatures may increase the rates of soil organic matter decomposition by heterotrop...
As earth\u27s climate continues to warm, it is important to understand how the capacity of terrestri...
The microbial community composition in subsoils remains understudied, and it is largely unknown whet...
AbstractSoil microbial communities mediate the decomposition of soil organic matter (SOM). The amoun...
Soils will warm in near synchrony with the air over the whole profiles following global climate chan...
Soil microbes play an important role in terrestrial carbon (C) cycling, but their functional respons...
Soil stores more carbon (C) than plants and atmosphere combined and it is vulnerable to increased mi...
Soil microbes are major drivers of soil carbon cycling, yet we lack an understanding of how climate ...
Soil microbes play an important role in terrestrial carbon (C) cycling, but their functional respons...
In the short-term heterotrophic soil respiration is strongly and positively related to temperature. ...
Microbes are responsible for cycling carbon (C) through soils, and predicted changes in soil C stock...
The central objective of the proposed work was to develop a genomic approach (nucleic acid-based) th...
Rising global temperatures may increase the rates of soil organic matter decomposition by heterotrop...
As earth\u27s climate continues to warm, it is important to understand how the capacity of terrestri...
The microbial community composition in subsoils remains understudied, and it is largely unknown whet...
AbstractSoil microbial communities mediate the decomposition of soil organic matter (SOM). The amoun...
Soils will warm in near synchrony with the air over the whole profiles following global climate chan...
Soil microbes play an important role in terrestrial carbon (C) cycling, but their functional respons...
Soil stores more carbon (C) than plants and atmosphere combined and it is vulnerable to increased mi...
Soil microbes are major drivers of soil carbon cycling, yet we lack an understanding of how climate ...
Soil microbes play an important role in terrestrial carbon (C) cycling, but their functional respons...
In the short-term heterotrophic soil respiration is strongly and positively related to temperature. ...
Microbes are responsible for cycling carbon (C) through soils, and predicted changes in soil C stock...
The central objective of the proposed work was to develop a genomic approach (nucleic acid-based) th...
Rising global temperatures may increase the rates of soil organic matter decomposition by heterotrop...
As earth\u27s climate continues to warm, it is important to understand how the capacity of terrestri...