Cropland-to-Miscanthus conversion alters soil bacterial and archaeal communities influencing N-cycle in Northern China

Cropland-to-Miscanthus conversion alters soil bacterial and archaeal communities influencing N-cycle in Northern China

Miscanthus spp. are increasingly cultivated in cropland worldwide due to their bioenergy potential and multiple ecological services. Effects of long-term cropland-to-Miscanthus conversion without N fertilizer on soil microbiome and N cycling largely remain unknown. We aimed to explore the effects of...

Full description

Bibliographic Details
Main Authors: Fan, R. (Author), Fan, X. (Author), Guo, Q. (Author), Hou, X. (Author), Hou, Y. (Author), Li, C. (Author), Li, X. (Author), Shi, R. (Author), Song, J. (Author), Wang, C. (Author), Wu, J. (Author), Yue, Y. (Author), Zhang, W. (Author), Zhao, C. (Author)
Format: Article
Language:English
Published: John Wiley and Sons Inc 2021
Subjects:
16S rRNA sequencing
abundance
Aggregates
agricultural land
Ammonia
Ammonia monooxygenase
Archaea
Available phosphorus
Available potassiums
Bacteria (microorganisms)
bacterium
Beijing [China]
Bioenergy potential
China
community dynamics
cropland
Ecological services
ecosystem service
functional genes
gene
Genes
Magnesium compounds
Microaggregates
Miscanthus
N cycling
Nickel compounds
nitrogen cycle
polymerase chain reaction
Polymerase chain reaction
Quantitative polymerase chain reaction
RNA
Soil bacterial community
soil microbiome
soil microorganism
soil property
Soils
Online Access:View Fulltext in Publisher

Internet

View Fulltext in Publisher

Similar Items