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Complete Genome Sequence of Human Oral Saccharibacterium “ Candidatus Nanosynbacter sp. HMT352” Strain KC1

Citation
Cross et al. (2022). Microbiology Resource Announcements 11 (2)
Names
Ca. Nanosynbacter
Abstract
“Cand. Nanosynbacter sp. HMT352” strain KC1 is an ectoparasitic saccharibacterium/TM7 that was co-isolated from a human saliva sample with its obligate bacterial host, Schaalia odontolytica . The genome of strain KC1 enables studies of the mechanisms and evolution of interspecies interactions and, for oral species, studies of their potential roles in health and disease.

Genome Sequence of a New “ Candidatus ” Phylum “Dependentiae” Isolate from Chiba, Japan

Citation
Takemura (2022). Microbiology Resource Announcements 11 (2)
Names
“Babelota”
Abstract
Little is known about the bacterial phylum “ Candidatus Dependentiae,” because only three isolates have been reported. Here, I report the isolation and genome sequencing of a new member of this phylum, strain Noda2021. This is the fourth strain isolated from the phylum “ Candidatus Dependentiae.”

Microbial population changes and metabolic shift of candidatus accumulibacter under low temperature and limiting polyphosphate

Citation
Zheng et al. (2022). Water Science and Technology 85 (4)
Names
Abstract
Abstract This study explored the microbial population dynamics of Accumulibacter (Acc) at low temperature and metabolic shift to limiting polyphosphate (Poly-P) in enhanced biological phosphorus removal (EBPR) system. The Accumulibacter-enriched EBPR systems, fed with acetate (HAc) and propionate (HPr) at 10 ± 1 °C respectively, were operated for 60 days in two identical SBR reactors (SBR-1 and SBR-2). The phosphorus removal performance in two systems was stable at 10 ± 1 °C, whil

Bacterial filamentation as a mechanism for cell-to-cell spread within an animal host

Citation
Tran et al. (2022). Nature Communications 13 (1)
Names
“Bordetella atropi”
Abstract
AbstractIntracellular pathogens are challenged with limited space and resources while replicating in a single host cell. Mechanisms for direct invasion of neighboring host cells have been discovered in cell culture, but we lack an understanding of how bacteria directly spread between host cells in vivo. Here, we describe the discovery of intracellular bacteria that use filamentation for spreading between the intestinal epithelial cells of a natural host, the rhabditid nematode Oscheius tipulae.