Episymbiotic Saccharibacteria suppresses gingival inflammation and bone loss in mice through host bacterial modulation - Chipashvili, Otari; Utter, Daniel R.; Bedree, Joseph K.; Ma, Yansong; Schulte, Fabian; Mascarin, Gabrielle; Alayyoubi, Yasmin; Chouhan, Deepak; Hardt, Markus; Bidlack, Felicitas; Hasturk, Hatice; He, Xuesong; et al. (Cell host & microbe, 2021)
Keywords: Actinobacteria; Actinobacteria - genetics; Actinobacteria - isolation & purification; Actinobacteria - pathogenicity; Actinobacteria - physiology; Actinomyces; Actinomyces - genetics; Actinomyces - isolation & purification; Actinomyces - pathogenicity; Actinomyces - physiology; Alveolar Bone Loss - microbiology; Alveolar Bone Loss - prevention & control; Animals; Bacteria - classification; Bacteria - isolation & purification; Bacteria - pathogenicity; Bacterial Infections - microbiology; Bacterial Infections - prevention & control; Bacterial Physiological Phenomena; bacterial symbiosis; candidate phyla radiation; Collagen - metabolism; Dental Plaque - microbiology; Down-Regulation; Genes, Bacterial; Gingivitis - microbiology; Gingivitis - prevention & control; human microbiome; human oral microbiome; Humans; inflammatory disease; Male; Mice; Mice, Inbred BALB C; Mice, Inbred C57BL; Microbiota; N-Acetylneuraminic Acid - metabolism; periodontitis; Periodontitis - microbiology; Periodontitis - prevention & control; Propionibacteriaceae - genetics; Propionibacteriaceae - isolation & purification; Propionibacteriaceae - pathogenicity; Propionibacteriaceae - physiology; Saccharibacteria; Symbiosis; TM7; Virulence; human microbiome; periodontitis; human oral microbiome; Actinomyces; candidate phyla radiation; inflammatory disease; Actinobacteria; Saccharibacteria; bacterial symbiosis; TM7