Ecology, Evolution, Behavior and Systematics


Publications
589

Reevaluation of the Phylogenetic Diversity and Global Distribution of the Genus “CandidatusAccumulibacter”

Citation
Petriglieri et al. (2022). mSystems 7 (3)
Names
“Accumulibacter” “Accumulibacter adiacens” “Accumulibacter meliphilus” “Accumulibacter propinquus” “Accumulibacter contiguus” “Accumulibacter vicinus” “Accumulibacter cognatus” “Accumulibacter affinis” “Accumulibacter proximus” “Accumulibacter necessarius” “Accumulibacter iunctus” “Accumulibacter similis” “Accumulibacter conexus” “Propionivibrio dominans” “Accumulibacter adjunctus” “Proximibacter danicus” “Proximibacter”
Abstract
“CandidatusAccumulibacter” is the most studied PAO, with a primary role in biological nutrient removal. However, the species-level taxonomy of this lineage is convoluted due to the use of different phylogenetic markers or genome sequencing approaches. Here, we redefined the phylogeny of these organisms, proposing a comprehensive approach which could be used to address the classification of other diverse and uncultivated lineages.

The novel genus, ‘Candidatus Phosphoribacter’, previously identified as Tetrasphaera, is the dominant polyphosphate accumulating lineage in EBPR wastewater treatment plants worldwide

Citation
Singleton et al. (2022). The ISME Journal 16 (6)
Names
“Phosphoribacter hoenirii” “Phosphoribacter freyrii” “Phosphoribacter thorii” Phosphoribacter baldrii Ts Phosphoribacter hodrii “Phosphoribacter tyrii” Ca. Lutibacillus Phosphoribacter
Abstract
Abstract The bacterial genus Tetrasphaera encompasses abundant polyphosphate accumulating organisms (PAOs) that are responsible for enhanced biological phosphorus removal (EBPR) in wastewater treatment plants. Recent analyses of genomes from pure cultures revealed that 16S rRNA genes cannot resolve the lineage, and that Tetrasphaera spp. are from several different genera within the Dermatophilaceae. Here, we examine 14 recently recovered high-quality metagenome-assembled genomes f

Niche differentiation of sulfur-oxidizing bacteria (SUP05) in submarine hydrothermal plumes

Citation
Dede et al. (2022). The ISME Journal 16 (6)
Names
Ca. Thioglobus plumae Ca. Thioglobus vadi Ca. Thioglobus vulcanius
Abstract
AbstractHydrothermal plumes transport reduced chemical species and metals into the open ocean. Despite their considerable spatial scale and impact on biogeochemical cycles, niche differentiation of abundant microbial clades is poorly understood. Here, we analyzed the microbial ecology of two bathy- (Brothers volcano; BrV-cone and northwest caldera; NWC) and a mesopelagic (Macauley volcano; McV) plumes on the Kermadec intra-oceanic arc in the South Pacific Ocean. The microbial community structure

Niche partitioning of the ubiquitous and ecologically relevant NS5 marine group

Citation
Priest et al. (2022). The ISME Journal 16 (6)
Names
“Marisimplicoccus framensis” “Marisimplicoccus” “Marivariicella” “Marivariicella framensis” “Maricapacicella” “Maricapacicella forsetii” “Arcticimaribacter” “Arcticimaribacter forsetii”
Abstract
AbstractNiche concept is a core tenet of ecology that has recently been applied in marine microbial research to describe the partitioning of taxa based either on adaptations to specific conditions across environments or on adaptations to specialised substrates. In this study, we combine spatiotemporal dynamics and predicted substrate utilisation to describe species-level niche partitioning within the NS5 Marine Group. Despite NS5 representing one of the most abundant marine flavobacterial clades

Revision of the ‘Candidatus Phytoplasma’ species description guidelines

Citation
Bertaccini et al. (2022). International Journal of Systematic and Evolutionary Microbiology 72 (4)
Names
Ca. Phytoplasma
Abstract
The genus ‘Candidatus Phytoplasma’ was proposed to accommodate cell wall-less bacteria that are molecularly and biochemically incompletely characterized, and colonize plant phloem and insect vector tissues. This provisional classification is highly relevant due to its application in epidemiological and ecological studies, mainly aimed at keeping the severe phytoplasma plant diseases under control worldwide. Given the increasing discovery of molecular diversity within the genus ‘Ca. Phytoplasma’,

A New Gene Family Diagnostic for Intracellular Biomineralization of Amorphous Ca Carbonates by Cyanobacteria

Citation
Benzerara et al. (2022). Genome Biology and Evolution 14 (3)
Names
“Synechococcus calcipolaris”
Abstract
Abstract Cyanobacteria have massively contributed to carbonate deposition over the geological history. They are traditionally thought to biomineralize CaCO3 extracellularly as an indirect byproduct of photosynthesis. However, the recent discovery of freshwater cyanobacteria-forming intracellular amorphous calcium carbonates (iACC) challenges this view. Despite the geochemical interest of such a biomineralization process, its molecular mechanisms and evolutionary history remain elu