Noah W. Sokol, Eric Slessarev, Gianna L. Marschmann, Alexa Nicolas, Steven J. Blazewicz, Eoin L. Brodie, Mary K. Firestone, Megan M. Foley, Rachel Hestrin, Bruce A. Hungate, Benjamin J. Koch, Bram W. Stone, Matthew B. Sullivan, Olivier Zablocki, LLNL Soil Microbiome Consortium, Jennifer Pett-Ridge
{"title":"土壤微生物群的生与死:生态过程如何影响生物地球化学","authors":"Noah W. Sokol, Eric Slessarev, Gianna L. Marschmann, Alexa Nicolas, Steven J. Blazewicz, Eoin L. Brodie, Mary K. Firestone, Megan M. Foley, Rachel Hestrin, Bruce A. Hungate, Benjamin J. Koch, Bram W. Stone, Matthew B. Sullivan, Olivier Zablocki, LLNL Soil Microbiome Consortium, Jennifer Pett-Ridge","doi":"10.1038/s41579-022-00695-z","DOIUrl":null,"url":null,"abstract":"Soil microorganisms shape global element cycles in life and death. Living soil microorganisms are a major engine of terrestrial biogeochemistry, driving the turnover of soil organic matter — Earth’s largest terrestrial carbon pool and the primary source of plant nutrients. Their metabolic functions are influenced by ecological interactions with other soil microbial populations, soil fauna and plants, and the surrounding soil environment. Remnants of dead microbial cells serve as fuel for these biogeochemical engines because their chemical constituents persist as soil organic matter. This non-living microbial biomass accretes over time in soil, forming one of the largest pools of organic matter on the planet. In this Review, we discuss how the biogeochemical cycling of organic matter depends on both living and dead soil microorganisms, their functional traits, and their interactions with the soil matrix and other organisms. With recent omics advances, many of the traits that frame microbial population dynamics and their ecophysiological adaptations can be deciphered directly from assembled genomes or patterns of gene or protein expression. Thus, it is now possible to leverage a trait-based understanding of microbial life and death within improved biogeochemical models and to better predict ecosystem functioning under new climate regimes. Soil microorganisms shape global element cycles in life and death. In this Review, Sokol and colleagues explore how the biogeochemical cycling of organic matter depends on both living and dead soil microorganisms, their functional traits, and their interactions with the soil matrix and other organisms. They also discuss incorporating microbial life and death into trait-based models that predict soil biogeochemical dynamics.","PeriodicalId":18838,"journal":{"name":"Nature Reviews Microbiology","volume":"20 7","pages":"415-430"},"PeriodicalIF":69.2000,"publicationDate":"2022-02-28","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"195","resultStr":"{\"title\":\"Life and death in the soil microbiome: how ecological processes influence biogeochemistry\",\"authors\":\"Noah W. Sokol, Eric Slessarev, Gianna L. Marschmann, Alexa Nicolas, Steven J. Blazewicz, Eoin L. Brodie, Mary K. Firestone, Megan M. Foley, Rachel Hestrin, Bruce A. Hungate, Benjamin J. Koch, Bram W. Stone, Matthew B. 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In this Review, we discuss how the biogeochemical cycling of organic matter depends on both living and dead soil microorganisms, their functional traits, and their interactions with the soil matrix and other organisms. With recent omics advances, many of the traits that frame microbial population dynamics and their ecophysiological adaptations can be deciphered directly from assembled genomes or patterns of gene or protein expression. Thus, it is now possible to leverage a trait-based understanding of microbial life and death within improved biogeochemical models and to better predict ecosystem functioning under new climate regimes. Soil microorganisms shape global element cycles in life and death. In this Review, Sokol and colleagues explore how the biogeochemical cycling of organic matter depends on both living and dead soil microorganisms, their functional traits, and their interactions with the soil matrix and other organisms. 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Life and death in the soil microbiome: how ecological processes influence biogeochemistry
Soil microorganisms shape global element cycles in life and death. Living soil microorganisms are a major engine of terrestrial biogeochemistry, driving the turnover of soil organic matter — Earth’s largest terrestrial carbon pool and the primary source of plant nutrients. Their metabolic functions are influenced by ecological interactions with other soil microbial populations, soil fauna and plants, and the surrounding soil environment. Remnants of dead microbial cells serve as fuel for these biogeochemical engines because their chemical constituents persist as soil organic matter. This non-living microbial biomass accretes over time in soil, forming one of the largest pools of organic matter on the planet. In this Review, we discuss how the biogeochemical cycling of organic matter depends on both living and dead soil microorganisms, their functional traits, and their interactions with the soil matrix and other organisms. With recent omics advances, many of the traits that frame microbial population dynamics and their ecophysiological adaptations can be deciphered directly from assembled genomes or patterns of gene or protein expression. Thus, it is now possible to leverage a trait-based understanding of microbial life and death within improved biogeochemical models and to better predict ecosystem functioning under new climate regimes. Soil microorganisms shape global element cycles in life and death. In this Review, Sokol and colleagues explore how the biogeochemical cycling of organic matter depends on both living and dead soil microorganisms, their functional traits, and their interactions with the soil matrix and other organisms. They also discuss incorporating microbial life and death into trait-based models that predict soil biogeochemical dynamics.
期刊介绍:
At Nature Reviews Microbiology, our goal is to become the leading source of reviews and commentaries for the scientific community we cater to. We are dedicated to publishing articles that are not only authoritative but also easily accessible, supplementing them with clear and concise figures, tables, and other visual aids. Our objective is to offer an unparalleled service to authors, referees, and readers, and we continuously strive to maximize the usefulness and impact of each article we publish. With a focus on Reviews, Perspectives, and Comments spanning the entire field of microbiology, our wide scope ensures that the work we feature reaches the widest possible audience.