Land use driven change in soil pH affects microbial carbon cycling processes

Ashish A. Malik*, Jeremy Puissant, Kate M. Buckeridge, Tim Goodall, Nico Jehmlich, Somak Chowdhury, Hyun Soon Gweon, Jodey M. Peyton, Kelly E. Mason, Maaike van Agtmaal, Aimeric Blaud, Ian M. Clark, Jeanette Whitaker, Richard F. Pywell, Nick Ostle, Gerd Gleixner, Robert I. Griffiths

*Corresponding author for this work

Research output: Contribution to journalArticle

25 Citations (Scopus)

Abstract

Soil microorganisms act as gatekeepers for soil–atmosphere carbon exchange by balancing the accumulation and release of soil organic matter. However, poor understanding of the mechanisms responsible hinders the development of effective land management strategies to enhance soil carbon storage. Here we empirically test the link between microbial ecophysiological traits and topsoil carbon content across geographically distributed soils and land use contrasts. We discovered distinct pH controls on microbial mechanisms of carbon accumulation. Land use intensification in low-pH soils that increased the pH above a threshold (~6.2) leads to carbon loss through increased decomposition, following alleviation of acid retardation of microbial growth. However, loss of carbon with intensification in near-neutral pH soils was linked to decreased microbial biomass and reduced growth efficiency that was, in turn, related to trade-offs with stress alleviation and resource acquisition. Thus, less-intensive management practices in near-neutral pH soils have more potential for carbon storage through increased microbial growth efficiency, whereas in acidic soils, microbial growth is a bigger constraint on decomposition rates.

Original languageEnglish
Article number3591
JournalNature Communications
Volume9
DOIs
Publication statusPublished - 4 Sep 2018

Fingerprint

land use
Land use
soils
Soil
Carbon
Soils
cycles
carbon
Growth
land management
Decomposition
decomposition
Practice Management
microorganisms
biomass
Microorganisms
Biomass
Biological materials
acquisition
resources

Keywords

  • carbon cycle
  • ecosystem ecology
  • microbial ecology
  • soil microbiology

ASJC Scopus subject areas

  • Chemistry(all)
  • Biochemistry, Genetics and Molecular Biology(all)
  • Physics and Astronomy(all)

Cite this

Malik, A. A., Puissant, J., Buckeridge, K. M., Goodall, T., Jehmlich, N., Chowdhury, S., ... Griffiths, R. I. (2018). Land use driven change in soil pH affects microbial carbon cycling processes. Nature Communications, 9, [3591]. https://doi.org/10.1038/s41467-018-05980-1

Land use driven change in soil pH affects microbial carbon cycling processes. / Malik, Ashish A.; Puissant, Jeremy; Buckeridge, Kate M.; Goodall, Tim; Jehmlich, Nico; Chowdhury, Somak; Gweon, Hyun Soon; Peyton, Jodey M.; Mason, Kelly E.; van Agtmaal, Maaike; Blaud, Aimeric; Clark, Ian M.; Whitaker, Jeanette; Pywell, Richard F.; Ostle, Nick; Gleixner, Gerd; Griffiths, Robert I.

In: Nature Communications, Vol. 9, 3591, 04.09.2018.

Research output: Contribution to journalArticle

Malik, AA, Puissant, J, Buckeridge, KM, Goodall, T, Jehmlich, N, Chowdhury, S, Gweon, HS, Peyton, JM, Mason, KE, van Agtmaal, M, Blaud, A, Clark, IM, Whitaker, J, Pywell, RF, Ostle, N, Gleixner, G & Griffiths, RI 2018, 'Land use driven change in soil pH affects microbial carbon cycling processes', Nature Communications, vol. 9, 3591. https://doi.org/10.1038/s41467-018-05980-1
Malik, Ashish A. ; Puissant, Jeremy ; Buckeridge, Kate M. ; Goodall, Tim ; Jehmlich, Nico ; Chowdhury, Somak ; Gweon, Hyun Soon ; Peyton, Jodey M. ; Mason, Kelly E. ; van Agtmaal, Maaike ; Blaud, Aimeric ; Clark, Ian M. ; Whitaker, Jeanette ; Pywell, Richard F. ; Ostle, Nick ; Gleixner, Gerd ; Griffiths, Robert I. / Land use driven change in soil pH affects microbial carbon cycling processes. In: Nature Communications. 2018 ; Vol. 9.
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abstract = "Soil microorganisms act as gatekeepers for soil–atmosphere carbon exchange by balancing the accumulation and release of soil organic matter. However, poor understanding of the mechanisms responsible hinders the development of effective land management strategies to enhance soil carbon storage. Here we empirically test the link between microbial ecophysiological traits and topsoil carbon content across geographically distributed soils and land use contrasts. We discovered distinct pH controls on microbial mechanisms of carbon accumulation. Land use intensification in low-pH soils that increased the pH above a threshold (~6.2) leads to carbon loss through increased decomposition, following alleviation of acid retardation of microbial growth. However, loss of carbon with intensification in near-neutral pH soils was linked to decreased microbial biomass and reduced growth efficiency that was, in turn, related to trade-offs with stress alleviation and resource acquisition. Thus, less-intensive management practices in near-neutral pH soils have more potential for carbon storage through increased microbial growth efficiency, whereas in acidic soils, microbial growth is a bigger constraint on decomposition rates.",
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AU - Peyton, Jodey M.

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N2 - Soil microorganisms act as gatekeepers for soil–atmosphere carbon exchange by balancing the accumulation and release of soil organic matter. However, poor understanding of the mechanisms responsible hinders the development of effective land management strategies to enhance soil carbon storage. Here we empirically test the link between microbial ecophysiological traits and topsoil carbon content across geographically distributed soils and land use contrasts. We discovered distinct pH controls on microbial mechanisms of carbon accumulation. Land use intensification in low-pH soils that increased the pH above a threshold (~6.2) leads to carbon loss through increased decomposition, following alleviation of acid retardation of microbial growth. However, loss of carbon with intensification in near-neutral pH soils was linked to decreased microbial biomass and reduced growth efficiency that was, in turn, related to trade-offs with stress alleviation and resource acquisition. Thus, less-intensive management practices in near-neutral pH soils have more potential for carbon storage through increased microbial growth efficiency, whereas in acidic soils, microbial growth is a bigger constraint on decomposition rates.

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