Nature Communications (Sep 2020)

Gene-informed decomposition model predicts lower soil carbon loss due to persistent microbial adaptation to warming

  • Xue Guo,
  • Qun Gao,
  • Mengting Yuan,
  • Gangsheng Wang,
  • Xishu Zhou,
  • Jiajie Feng,
  • Zhou Shi,
  • Lauren Hale,
  • Linwei Wu,
  • Aifen Zhou,
  • Renmao Tian,
  • Feifei Liu,
  • Bo Wu,
  • Lijun Chen,
  • Chang Gyo Jung,
  • Shuli Niu,
  • Dejun Li,
  • Xia Xu,
  • Lifen Jiang,
  • Arthur Escalas,
  • Liyou Wu,
  • Zhili He,
  • Joy D. Van Nostrand,
  • Daliang Ning,
  • Xueduan Liu,
  • Yunfeng Yang,
  • Edward. A. G. Schuur,
  • Konstantinos T. Konstantinidis,
  • James R. Cole,
  • C. Ryan Penton,
  • Yiqi Luo,
  • James M. Tiedje,
  • Jizhong Zhou

DOI
https://doi.org/10.1038/s41467-020-18706-z
Journal volume & issue
Vol. 11, no. 1
pp. 1 – 12

Abstract

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Mechanisms and consequences of the acclimation of soil respiration to warming are unclear. Here, the authors combine soil respiration, metagenomics, and functional gene results from a 7-year grassland warming experiment to a microbial-enzyme decomposition model, showing functional gene information to lower uncertainty and improve fit.