作者
Emily Graham,Antônio Pedro Camargo,Ruonan Wu,Russell Y. Neches,Matt Nolan,David Páez-Espino,Nikos C. Kyrpides,Janet Jansson,Jason McDermott,Kirsten Hofmockel,Jeffrey L. Blanchard,Xiao‐Jun Allen Liu,Jorge L. M. Rodrigues,Zachary B. Freedman,Petr Baldrián,Martina Štursová,Kristen M. DeAngelis,Sungeun Lee,Filipa Godoy‐Vitorino,Yun Kit Yeoh,Hinsby Cadillo‐Quiroz,Susannah G. Tringe,Archana Chauhan,Don A. Cowan,Marc W. Van Goethem,Tanja Woyke,Nicholas C. Dove,Konstantinos T. Konstantinidis,Thomas Juenger,Stephen C. Hart,David D. Myrold,T. C. Onstott,Brendan J. M. Bohannan,Marty R. Schmer,Nathan A. Palmer,Klaus Nüsslein,Thulani P. Makhalanyane,Katherine A. Dynarski,Neslihan Taş,Graeme W. Nicol,Christina Hazard,Erin D. Scully,Kunal Jain,Datta Madamwar,Andrew Bissett,Philippe Constant,Rafael S. Oliveira,Cristina Takacs‐Vesbach,Melissa A. Cregger,Alyssa A. Carrell,Dawn M. Klingeman,Nicole Pietrasiak
摘要
Historically neglected by microbial ecologists, soil viruses are now thought to be critical to global biogeochemical cycles. However, our understanding of their global distribution, activities and interactions with the soil microbiome remains limited. Here we present the Global Soil Virus Atlas, a comprehensive dataset compiled from 2,953 previously sequenced soil metagenomes and composed of 616,935 uncultivated viral genomes and 38,508 unique viral operational taxonomic units. Rarefaction curves from the Global Soil Virus Atlas indicate that most soil viral diversity remains unexplored, further underscored by high spatial turnover and low rates of shared viral operational taxonomic units across samples. By examining genes associated with biogeochemical functions, we also demonstrate the viral potential to impact soil carbon and nutrient cycling. This study represents an extensive characterization of soil viral diversity and provides a foundation for developing testable hypotheses regarding the role of the virosphere in the soil microbiome and global biogeochemistry.