Literature DB >> 33517907

Toothbrush microbiomes feature a meeting ground for human oral and environmental microbiota.

Ryan A Blaustein1,2, Lisa-Marie Michelitsch3, Adam J Glawe4, Hansung Lee4, Stefanie Huttelmaier4, Nancy Hellgeth4, Sarah Ben Maamar4, Erica M Hartmann4.   

Abstract

BACKGROUND: While indoor microbiomes impact our health and well-being, much remains unknown about taxonomic and functional transitions that occur in human-derived microbial communities once they are transferred away from human hosts. Toothbrushes are a model to investigate the potential response of oral-derived microbiota to conditions of the built environment. Here, we characterize metagenomes of toothbrushes from 34 subjects to define the toothbrush microbiome and resistome and possible influential factors.
RESULTS: Toothbrush microbiomes often comprised a dominant subset of human oral taxa and less abundant or site-specific environmental strains. Although toothbrushes contained lower taxonomic diversity than oral-associated counterparts (determined by comparison with the Human Microbiome Project), they had relatively broader antimicrobial resistance gene (ARG) profiles. Toothbrush resistomes were enriched with a variety of ARGs, notably those conferring multidrug efflux and putative resistance to triclosan, which were primarily attributable to versatile environmental taxa. Toothbrush microbial communities and resistomes correlated with a variety of factors linked to personal health, dental hygiene, and bathroom features.
CONCLUSIONS: Selective pressures in the built environment may shape the dynamic mixture of human (primarily oral-associated) and environmental microbiota that encounter each other on toothbrushes. Harboring a microbial diversity and resistome distinct from human-associated counterparts suggests toothbrushes could potentially serve as a reservoir that may enable the transfer of ARGs. Video abstract.

Entities:  

Keywords:  Antimicrobial resistance; Built environment; Metagenomics; Oral microbiome; Toothbrush

Mesh:

Substances:

Year:  2021        PMID: 33517907      PMCID: PMC7849112          DOI: 10.1186/s40168-020-00983-x

Source DB:  PubMed          Journal:  Microbiome        ISSN: 2049-2618            Impact factor:   14.650


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