Published on 01 January 2024

<b>Data for 'Soil microbial gene abundance rather than diversity and network complexity predominantly determines soil multifunctionality i</b><b>n Tibetan alpine grasslands along a precipitation gradient'</b>

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Pan, Junxiao;Li, Yang;Zhang, Ruiyang;Tian, Dashuan;Wang, Peiyan;Song, Lei;Quan, Quan;Chen, Chen;Niu, Shuli;Zhang, Xinyu

Description

Soil microbes play a vital role in maintaining soil multifunctionality (SMF) that relates to carbon (C), nitrogen (N), and phosphorus (P) cycles and is severely threatened by climate change. However, how different microbial attributes such as microbial gene abundance, diversity, and network complexity affect soil multifunctionality is poorly understood. In this manuscript, we stressed the effects of diverse bacterial and fungal properties on soil multifunctionality including C sequestration and decomposition, nutrient mineralization and cycling, and microbial acquisition of C, N, and P resources along a natural precipitation gradient in Tibetan alpine grasslands. Our work is pivotal for understanding the roles of soil microbial communities in modulating soil multifunctionality under precipitation changes.

Citations (0)

Mentions (0)

Metrics

Dataset Index

0.3

FAIR Score

13%

Citations

0

Mentions

0

Metrics Over Time

Publication Details

Assigned Domain

Subfield

Ecology

Field

Environmental Science

Domain

Physical Sciences

Confidence Score

65%

Source

Scholar Data Model

Keywords

Microbial ecologyClimate change processes

Normalization Factors

FT

13.46

CTw

1.00

MTw

1.00