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The reduced genome of Candidatus Kinetoplastibacterium sorsogonicusi, the endosymbiont of Kentomonas sorsogonicus (Trypanosomatidae): loss of the haem-synthesis pathway

Citation
Silva et al. (2018). Parasitology 145 (10)
Names
Ca. Kinetoplastibacterium Ca. Kinetoplastibacterium sorsogonicusi
Abstract
AbstractTrypanosomatids of the genera Angomonas and Strigomonas (subfamily Strigomonadinae) have long been known to contain intracellular beta-proteobacteria, which provide them with many important nutrients such as haem, essential amino acids and vitamins. Recently, Kentomonas sorsogonicus, a divergent member of Strigomonadinae, has been described. Herein, we characterize the genome of its endosymbiont, Candidatus Kinetoplastibacterium sorsogonicusi. This genome is completely syntenic with thos

Draft Genome Sequences of New Genomospecies “ Candidatus Pectobacterium maceratum” Strains, Which Cause Soft Rot in Plants

Citation
Shirshikov et al. (2018). Genome Announcements 6 (15)
Names
Ca. Pectobacterium maceratum
Abstract
ABSTRACT Investigation of collections of phytopathogenic bacteria has revealed some strains distinct from known Pectobacterium spp. We report here the draft genome sequences of five such strains, isolated during the period of 1947 to 2012. Based on comparative genomics, we propose a new candidate genomospecies of the genus Pectobacterium , “ Candidatus Pectobacterium maceratum.”

The crystal structure of the malic enzyme fromCandidatusPhytoplasma reveals the minimal structural determinants for a malic enzyme

Citation
Alvarez et al. (2018). Acta Crystallographica Section D Structural Biology 74 (4)
Names
Ca. Phytoplasma
Abstract
Phytoplasmas are wall-less phytopathogenic bacteria that produce devastating effects in a wide variety of plants. Reductive evolution has shaped their genome, with the loss of many genes, limiting their metabolic capacities. Owing to the high concentration of C4compounds in plants, and the presence of malic enzyme (ME) in all phytoplasma genomes so far sequenced, the oxidative decarboxylation of L-malate might represent an adaptation to generate energy. Aster yellows witches'-broom (CandidatusPh