Metagenomic analyses uncover the differential effect of azide treatment on bacterial community structure by enriching a specific Cyanobacteria present in a saline-alkaline environmental sample

Treatment of environmental samples under field conditions may require the application of chemical preservatives, although their use sometimes produces changes in the microbial communities. Sodium azide, a commonly used preservative, is known to differentially affect the growth of bacteria. Applicati...

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Veröffentlicht in:International microbiology 2020-08, Vol.23 (3), p.467-474
Hauptverfasser: Aguirre-Garrido, José Félix, Martínez-Abarca, Francisco, Montiel-Lugo, Daniel, Hernández-Soto, Luis Mario, Ramírez-Saad, Hugo
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container_start_page 467
container_title International microbiology
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creator Aguirre-Garrido, José Félix
Martínez-Abarca, Francisco
Montiel-Lugo, Daniel
Hernández-Soto, Luis Mario
Ramírez-Saad, Hugo
description Treatment of environmental samples under field conditions may require the application of chemical preservatives, although their use sometimes produces changes in the microbial communities. Sodium azide, a commonly used preservative, is known to differentially affect the growth of bacteria. Application of azide and darkness incubation to Isabel soda lake water samples induced changes in the structure of the bacterial community, as assessed by partial 16S rRNA gene pyrosequencing. Untreated water samples (WU) were dominated by gammaproteobacterial sequences accounting for 86%, while in the azide-treated (WA) samples, this group was reduced to 33% abundance, and cyanobacteria-related sequences became dominant with 53%. Shotgun sequencing and genome recruitment analyses pointed to Halomonas campanensis strain LS21 (genome size 4.07 Mbp) and Synechococcus sp. RS9917 (2.58 Mbp) as the higher recruiting genomes from the sequence reads of WA and WU environmental libraries, respectively, covering nearly the complete genomes. Combined treatment of water samples with sodium azide and darkness has proven effective on the selective enrichment of a cyanobacterial group. This approach may allow the complete (or almost-complete) genome sequencing of Cyanobacteria from metagenomic DNA of different origins, and thus increasing the number of the underrepresented cyanobacterial genomes in the databases.
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subjects Applied Microbiology
Bacteria - classification
Bacteria - genetics
Bacteria - isolation & purification
Biomedical and Life Sciences
Combined treatment
Community structure
Cyanobacteria
Cyanobacteria - genetics
Cyanobacteria - isolation & purification
Darkness
DNA sequencing
DNA, Bacterial
Environmental Microbiology
Enzyme Inhibitors - adverse effects
Eukaryotic Microbiology
Genome, Bacterial
Genomes
Lakes - microbiology
Life Sciences
Medical Microbiology
Metagenomics
Metagenomics - methods
Microbial activity
Microbial Ecology
Microbiology
Microbiota - genetics
Microorganisms
Original Article
Preservatives
Recruitment
rRNA 16S
Salinity
Sodium
Sodium azide
Sodium Azide - adverse effects
Sodium azides
Water analysis
Water sampling
title Metagenomic analyses uncover the differential effect of azide treatment on bacterial community structure by enriching a specific Cyanobacteria present in a saline-alkaline environmental sample
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