The leguminous trees Vachellia seyal (Del.) and Prosopis juliflora (Swartz) DC and their association with rhizobial strains from the root-influence zone of the grass Sporobolus robustus Kunth

This study focused on the genetic, symbiotic and phenotypic diversity of a collection of 12 Vachellia seyal and Prosopis juliflora rhizobial strains that were isolated from soils influenced by the roots of the grass Sporobolus robustus . Phylogenetic trees were constructed based on data from the 16S...

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Veröffentlicht in:Symbiosis (Philadelphia, Pa.) Pa.), 2021-05, Vol.84 (1), p.61-69
Hauptverfasser: Fall, Fatoumata, Le Roux, Christine, Bâ, Amadou Mustapha, Fall, Dioumacor, Bakhoum, Niokhor, Faye, Mathieu Ndigue, Sadio, Oumar, Diouf, Diegane
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container_title Symbiosis (Philadelphia, Pa.)
container_volume 84
creator Fall, Fatoumata
Le Roux, Christine
Bâ, Amadou Mustapha
Fall, Dioumacor
Bakhoum, Niokhor
Faye, Mathieu Ndigue
Sadio, Oumar
Diouf, Diegane
description This study focused on the genetic, symbiotic and phenotypic diversity of a collection of 12 Vachellia seyal and Prosopis juliflora rhizobial strains that were isolated from soils influenced by the roots of the grass Sporobolus robustus . Phylogenetic trees were constructed based on data from the 16S rRNA gene, from a multi-locus sequence analysis (MLSA) of the housekeeping genes recA , atpD , glnA and gyrB , as well as from the symbiotic genes nodA , nodC and nifH . Most of the mesorhizobial strains were clustered with the M. plurifarium type strain ORS 1032 T and the 16S rRNA gene was as discriminatory as the other housekeeping genes. The Ensifer collection was closely related to E. alkalisoli YIC 4027 T and E. fredii LMG 6217 T using 16S rRNA and MLSA. Amplification of the Rhizobium collection was only observed with the 16S rRNA gene, where the strains were clustered with Rhizobium sp. 1B, Rhizobium sp. SEMIA 6411, Rhizobium sp. AS1-101a and Rhizobium sp. ORS 3441. The phylogeny of the nifH gene from Mesorhizobium and Ensifer strains were similar to those of nodulation genes ( nodA and nodC ). The nodA - nodC and nifH gene phylogenies were not consistent with those of 16S rRNA and the housekeeping genes. Ensifer genospecies tolerated high salinity better than the other genotypes after testing on a salt content gradient up to 49‰. We conclude that the rhizosphere of Sporobolus tussocks harbors a rhizobial microbiota, which could be capable of helping V. seyal and P. juliflora to grow better in saline soils.
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Ensifer genospecies tolerated high salinity better than the other genotypes after testing on a salt content gradient up to 49‰. We conclude that the rhizosphere of Sporobolus tussocks harbors a rhizobial microbiota, which could be capable of helping V. seyal and P. juliflora to grow better in saline soils.</abstract><cop>Dordrecht</cop><pub>Springer Netherlands</pub><doi>10.1007/s13199-021-00763-7</doi><tpages>9</tpages><orcidid>https://orcid.org/0000-0002-8533-7010</orcidid></addata></record>
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subjects Biomedical and Life Sciences
Developmental Biology
Ecology
Evolutionary Biology
Genes
Genetic diversity
Genotypes
Life Sciences
Microbiology
Microbiota
NifH gene
Nodulation
Phylogeny
Plant Sciences
Prosopis juliflora
RecA protein
Rhizosphere
rRNA 16S
Saline soils
Sequence analysis
Sporobolus
Strains (organisms)
Vachellia seyal
title The leguminous trees Vachellia seyal (Del.) and Prosopis juliflora (Swartz) DC and their association with rhizobial strains from the root-influence zone of the grass Sporobolus robustus Kunth
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