BCRC Strain Collection Catalog & Shopping Cart

  Home / BCRC Content / 17587 / 

Return

  Research Article

The information shown in this page was generated using the cross-referenced linkage within public domain database between their strains and BCRC related strains. Usually the information provided from public domain databases varies with different confidences and errors, BCRC provides the related information here at best effort, but BCRC doesn't take the responsibility about the correctness of the information provided here.

1. Chen  WM, de Faria  SM, Straliotto  R, Pitard  RM, Simões-Araùjo  JL, Chou  JH, Chou  YJ, Barrios  E, Prescott  AR, Elliott  GN, Sprent  JI, Young  JP, James  EK,     ( 2005 )

Proof that Burkholderia strains form effective symbioses with legumes: a study of novel Mimosa-nodulating strains from South America.

Applied and environmental microbiology 71 (11)
PMID : 16269788  :   DOI  :   10.1128/AEM.71.11.7461-7471.2005     PMC  :   PMC1287612    
Abstract >>
Twenty Mimosa-nodulating bacterial strains from Brazil and Venezuela, together with eight reference Mimosa-nodulating rhizobial strains and two other beta-rhizobial strains, were examined by amplified rRNA gene restriction analysis. They fell into 16 patterns and formed a single cluster together with the known beta-rhizobia, Burkholderia caribensis, Burkholderia phymatum, and Burkholderia tuberum. The 16S rRNA gene sequences of 15 of the 20 strains were determined, and all were shown to belong to the genus Burkholderia; four distinct clusters could be discerned, with strains isolated from the same host species usually clustering very closely. Five of the strains (MAP3-5, Br3407, Br3454, Br3461, and Br3469) were selected for further studies of the symbiosis-related genes nodA, the NodD-dependent regulatory consensus sequences (nod box), and nifH. The nodA and nifH sequences were very close to each other and to those of B. phymatum STM815, B. caribensis TJ182, and Cupriavidus taiwanensis LMG19424 but were relatively distant from those of B. tuberum STM678. In addition to nodulating their original hosts, all five strains could also nodulate other Mimosa spp., and all produced nodules on Mimosa pudica that had nitrogenase (acetylene reduction) activities and structures typical of effective N2-fixing symbioses. Finally, both wild-type and green fluorescent protein-expressing transconjugant strains of Br3461 and MAP3-5 produced N2-fixing nodules on their original hosts, Mimosa bimucronata (Br3461) and Mimosa pigra (MAP3-5), and hence this confirms strongly that Burkholderia strains can form effective symbioses with legumes.
KeywordMeSH Terms
Nitrogen Fixation
Symbiosis
2. Dall'Agnol  RF, Bournaud  C, de Faria  SM, Béna  G, Moulin  L, Hungria  M,     ( 2017 )

Genetic diversity of symbiotic Paraburkholderia species isolated from nodules of Mimosa pudica (L.) and Phaseolus vulgaris (L.) grown in soils of the Brazilian Atlantic Forest (Mata Atl?ntica).

FEMS microbiology ecology 93 (4)
PMID : 28334155  :   DOI  :   10.1093/femsec/fix027    
Abstract >>
Some species of the genus Paraburkholderia that are able to nodulate and fix nitrogen in symbiosis with legumes are called �]-rhizobia and represent a group of ecological and biotechnological importance. We used Mimosa pudica and Phaseolus vulgaris to trap 427 rhizobial isolates from rhizospheric soil of Mimoseae trees in the Brazilian Atlantic Forest. Eighty-four representative strains were selected according to the 16S rRNA haplotypes and taxonomically characterized using a concatenated 16S rRNA-recA phylogeny. Most strains were assembled in the genus Paraburkholderia, including Paraburkholderia sabiae and Pa. nodosa. Mesorhizobium (�\-rhizobia) and Cupriavidus (�]-rhizobia) were also isolated, but in smaller proportions. Multilocus sequence analysis and BOX-PCR analyses indicated that six clusters of Paraburkholderia represent potential new species. In the phylogenetic analysis of the nodC gene, the majority of the strains were positioned in the same groups as in the 16S rRNA-recA tree, indicative of stability and vertical inheritance, but we also identified horizontal transfer of nodC in Pa. sabiae. All �\- and �]-rhizobial species were trapped by both legumes, although preferences of the host plants for specific rhizobial species have been observed.
KeywordMeSH Terms
beta-rhizobia
biological nitrogen fixation
diazotrophic bacteria
nodulation
phylogeny
beta-rhizobia
biological nitrogen fixation
diazotrophic bacteria
nodulation
phylogeny
beta-rhizobia
biological nitrogen fixation
diazotrophic bacteria
nodulation
phylogeny
beta-rhizobia
biological nitrogen fixation
diazotrophic bacteria
nodulation
phylogeny
Forests
Genetic Variation
Phylogeny
3. Bournaud  C, de Faria  SM, dos Santos  JM, Tisseyre  P, Silva  M, Chaintreuil  C, Gross  E, James  EK, Prin  Y, Moulin  L,     ( 2013 )

Burkholderia species are the most common and preferred nodulating symbionts of the Piptadenia group (tribe Mimoseae).

PloS one 8 (5)
PMID : 23691052  :   DOI  :   10.1371/journal.pone.0063478     PMC  :   PMC3655174    
Abstract >>
Burkholderia legume symbionts (also called �\-rhizobia) are ancient in origin and are the main nitrogen-fixing symbionts of species belonging to the large genus Mimosa in Brazil. We investigated the extent of the affinity between Burkholderia and species in the tribe Mimoseae by studying symbionts of the genera Piptadenia (P.), Parapiptadenia (Pp.), Pseudopiptadenia (Ps.), Pityrocarpa (Py.), Anadenanthera (A.) and Microlobius (Mi.), all of which are native to Brazil and are phylogenetically close to Mimosa, and which together with Mimosa comprise the "Piptadenia group". We characterized 196 strains sampled from 18 species from 17 locations in Brazil using two neutral markers and two symbiotic genes in order to assess their species affiliations and the evolution of their symbiosis genes. We found that Burkholderia are common and highly diversified symbionts of species in the Piptadenia group, comprising nine Burkholderia species, of which three are new ones and one was never reported as symbiotic (B. phenoliruptrix). However, �\-rhizobia were also detected and were occasionally dominant on a few species. A strong sampling site effect on the rhizobial nature of symbionts was detected, with the symbiont pattern of the same legume species changing drastically from location to location, even switching from �] to �\-rhizobia. Coinoculation assays showed a strong affinity of all the Piptadenia group species towards Burkholderia genotypes, with the exception of Mi. foetidus. Phylogenetic analyses of neutral and symbiotic markers showed that symbiosis genes in Burkholderia from the Piptadenia group have evolved mainly through vertical transfer, but also by horizontal transfer in two species.
KeywordMeSH Terms
Symbiosis

331, Shih-Pin Rd., Hsinchu 30062, Taiwan

Phone: +886-3-5223191

E-mail: bcrcweb@firdi.org.tw

web maintainance: +886-3-5223191 ext 593

Copyright © 2018.BCRC All rights reserved.The duplication or use of information and data such as texts or images or any linkage the website at the "bcrc.firdi.org.tw" is only permitted with the indication of the source or with prior approval by the BCRC(Bioresource Collection and Research Center).