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Nutrient addition dramatically accelerates microbial community succession
Joseph E. Knelman
, Steven K. Schmidt
, Ryan C. Lynch
, John L. Darcy
, Sarah C. Castle
, Cory C. Cleveland
, Diana R. Nemergut
Research output
:
Contribution to journal
›
Article
›
peer-review
92
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Scopus citations
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Keyphrases
Soil Microbial Community
100%
Late-successional
100%
Nutrient Addition
100%
Old Soils
100%
Microbial Succession
100%
Edaphic Properties
100%
Microbial Community Succession
100%
Microorganisms
50%
Phosphorus P
50%
Peru
50%
P Fertilization
50%
Soil Properties
50%
Fertilizer
50%
Fertilization
50%
Three-year-olds
50%
Successional Communities
50%
Fertilized Soil
50%
Plot Experiment
50%
Resource Availability
50%
Community Composition
50%
Causal Mechanisms
50%
Soil Development
50%
Soil Microbial Community Composition
50%
Soil Bacterial Community Structure
50%
Ecological Mechanism
50%
Edaphic Factors
50%
Full-factorial
50%
85-year-old
50%
Bacterial Diversity
50%
Community Succession
50%
Nutrient Co-limitation
50%
Succession Rate
50%
Plant Succession
50%
Primary Succession
50%
Glacier Foreland
50%
Microbial Community Development
50%
NP Fertilizers
50%
Soil Microbial
50%
Change in Structure
50%
Unvegetated
50%
Agricultural and Biological Sciences
Bacterial Communities
100%
Microbial Community
100%
Soil Microbial Community
66%
Edaphic Factors
33%
Soil Property
33%
Microorganism
33%
Primary Succession
33%
Peru
33%
Earth and Planetary Sciences
Soil Bacterial Community
66%