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Genome of Herbaspirillum seropedicae strain SmR1, a specialized diazotrophic endophyte of tropical grasses.

Authors :
Pedrosa FO
Monteiro RA
Wassem R
Cruz LM
Ayub RA
Colauto NB
Fernandez MA
Fungaro MH
Grisard EC
Hungria M
Madeira HM
Nodari RO
Osaku CA
Petzl-Erler ML
Terenzi H
Vieira LG
Steffens MB
Weiss VA
Pereira LF
Almeida MI
Alves LR
Marin A
Araujo LM
Balsanelli E
Baura VA
Chubatsu LS
Faoro H
Favetti A
Friedermann G
Glienke C
Karp S
Kava-Cordeiro V
Raittz RT
Ramos HJ
Ribeiro EM
Rigo LU
Rocha SN
Schwab S
Silva AG
Souza EM
Tadra-Sfeir MZ
Torres RA
Dabul AN
Soares MA
Gasques LS
Gimenes CC
Valle JS
Ciferri RR
Correa LC
Murace NK
Pamphile JA
Patussi EV
Prioli AJ
Prioli SM
Rocha CL
Arantes OM
Furlaneto MC
Godoy LP
Oliveira CE
Satori D
Vilas-Boas LA
Watanabe MA
Dambros BP
Guerra MP
Mathioni SM
Santos KL
Steindel M
Vernal J
Barcellos FG
Campo RJ
Chueire LM
Nicolás MF
Pereira-Ferrari L
Silva JL
Gioppo NM
Margarido VP
Menck-Soares MA
Pinto FG
Simão Rde C
Takahashi EK
Yates MG
Souza EM
Source :
PLoS genetics [PLoS Genet] 2011 May; Vol. 7 (5), pp. e1002064. Date of Electronic Publication: 2011 May 12.
Publication Year :
2011

Abstract

The molecular mechanisms of plant recognition, colonization, and nutrient exchange between diazotrophic endophytes and plants are scarcely known. Herbaspirillum seropedicae is an endophytic bacterium capable of colonizing intercellular spaces of grasses such as rice and sugar cane. The genome of H. seropedicae strain SmR1 was sequenced and annotated by The Paraná State Genome Programme--GENOPAR. The genome is composed of a circular chromosome of 5,513,887 bp and contains a total of 4,804 genes. The genome sequence revealed that H. seropedicae is a highly versatile microorganism with capacity to metabolize a wide range of carbon and nitrogen sources and with possession of four distinct terminal oxidases. The genome contains a multitude of protein secretion systems, including type I, type II, type III, type V, and type VI secretion systems, and type IV pili, suggesting a high potential to interact with host plants. H. seropedicae is able to synthesize indole acetic acid as reflected by the four IAA biosynthetic pathways present. A gene coding for ACC deaminase, which may be involved in modulating the associated plant ethylene-signaling pathway, is also present. Genes for hemagglutinins/hemolysins/adhesins were found and may play a role in plant cell surface adhesion. These features may endow H. seropedicae with the ability to establish an endophytic life-style in a large number of plant species.<br />Competing Interests: The authors have declared that no competing interests exist.

Details

Language :
English
ISSN :
1553-7404
Volume :
7
Issue :
5
Database :
MEDLINE
Journal :
PLoS genetics
Publication Type :
Academic Journal
Accession number :
21589895
Full Text :
https://doi.org/10.1371/journal.pgen.1002064