mSystems · 2020 · 234 citations · 76 references
Natural SciencesEcologySoil SciencesMicrobial EcologySoil MicrobiologySoil ScienceEcosystem StoichiometryNitrogen CycleNitrogen CyclingPhosphorus CycleSoil Microbial GeneticsSoil Nutrient CyclingC:n:p StoichiometryGenetic Diversity Of Soil Microbial CommunitiesInorganic Phosphorus CyclingMicrobial Community StoichiometryMicrobial Nutrient CyclingMicrobial Population Genetics In SoilMicrobial Soil EcologySoil Microbial Responses
To be effective in predicting future stability of soil functions in the context of various external disturbances, it is necessary to follow the effects of global change on functionally specialized microbes related to C and nutrient cycling. Our study represents an exploratory effort to couple the stoichiometric drivers to microbial populations related with main C, N, and P cycling and their resistances to global change. The abundance of microbial groups involved in cellulose, starch, and xylan degradation, nitrification, N fixation, denitrification, organic P mineralization, and inorganic P dissolution showed a high stoichiometry dependency. Resistance of these microbial populations to global change could be predicted by soil C:N:P stoichiometry. Our work highlights that stoichiometric balance in soil C and nutrients is instrumental in maintaining the stability and adaptability of ecosystem functions under global change.
76
Leo Breiman · Machine Learning · 2001 · 126.2K citations · Full text
Soil microbiology and biochemistry
Choice Reviews Online · 1989 · 3K citations
Enhanced nitrogen deposition over China
Xuejun Liu, Ying Zhang, Wenxuan Han et al. · Nature · 2013 · 2.6K citations
Microbial diversity drives multifunctionality in terrestrial ecosystems
Manuel Delgado‐Baquerizo, Fernando T. Maestre, Peter B. Reich et al. · Nature Communications · 2016 · 2.5K citations · Full text
Life Sciences, Ecology, Microbiology +17