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Dietzia cinnamea

ABSTRACT: Soil bacterium

PROVIDER: PRJNA59611 | ENA |

REPOSITORIES: ENA

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			Action	DRS
		Other
	SRR8265662_1.fastq.gz	Fastqsanger.gz
	SRR8265662_2.fastq.gz	Fastqsanger.gz

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First isolation of Dietzia cinnamea from a dog bite wound in an adult patient.

Project description:We report the first case of deep-wound colonization by Dietzia cinnamea in a patient who had been bitten by a dog.

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Dietzia cinnamea strain:55

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Dietzia cinnamea NBRC 102147

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Insight from the draft genome of Dietzia cinnamea P4 reveals mechanisms of survival in complex tropical soil habitats and biotechnology potential.

Project description:The draft genome of Dietzia cinnamea strain P4 was determined using pyrosequencing. In total, 428 supercontigs were obtained and analyzed. We here describe and interpret the main features of the draft genome. The genome contained a total of 3,555,295 bp, arranged in a single replicon with an average G+C percentage of 70.9%. It revealed the presence of complete pathways for basically all central metabolic routes. Also present were complete sets of genes for the glyoxalate and reductive carboxylate cycles. Autotrophic growth was suggested to occur by the presence of genes for aerobic CO oxidation, formate/formaldehyde oxidation, the reverse tricarboxylic acid cycle and the 3-hydropropionate cycle for CO(2) fixation. Secondary metabolism was evidenced by the presence of genes for the biosynthesis of terpene compounds, frenolicin, nanaomycin and avilamycin A antibiotics. Furthermore, a probable role in azinomycin B synthesis, an important product with antitumor activity, was indicated. The complete alk operon for the degradation of n-alkanes was found to be present, as were clusters of genes for biphenyl ring dihydroxylation. This study brings new insights in the genetics and physiology of D. cinnamea P4, which is useful in biotechnology and bioremediation.

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Dietzia cinnamea P4 strain:P4

Project description:Dietzia cinnamea P4 genome sequencing

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Project description:In this study, we analyze the role of Lsr2 as a transcription factor in M. smegmatis, a saprophytic bacterium whose natural habitat (soil and water) substantially differs from that of the obligatory mycobacterial pathogens. In summary, the combined RNA-seq and ChIP-seq data revealed that Lsr2 controls gene expression either directly by binding their promoter regions or indirectly through DNA loop formation.

2021-04-22 | GSE164708 | GEO

Transcription profiling of Sinorhizobium meliloti after exposure to elevated concentrations of the heavy metals cadmium and zinc to analyze stress responses

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Heavy metal resistance in Cupriavidus metallidurans CH34 is governed by an intricate transcriptional network

Project description:Background: The high number of heavy metal resistance genes in the soil bacterium Cupriavidus metallidurans CH34 makes it an interesting model organism to study microbial responses to heavy metals. Results: In this study the transcriptional response of this bacterium was measured after challenging it to a wide range of sub-lethal concentrations of various essential or toxic metals. Considering the global transcriptional responses for each challenge as well as by identifying the overlap in upregulated genes between different metal responses, the sixteen metals could be clustered in three different groups. Additionally, next to the assessment of the transcriptional response of already known metal resistance genes, new metal response gene clusters were identified. The majority of the metal response loci showed similar expression profiles when cells were exposed to different metals, suggesting complex cross-talk at transcriptional level between the different metal responses. The highly redundant nature of these metal resistant regions – illustrated by the large number of paralogous genes – combined with the phylogenetic distribution of these metal response regions within evolutionary related and other metal resistant bacteria, provides important insights on the recent evolution of this naturally soil dwelling bacterium towards a highly metal-resistant strain found in harsh and anthropogenic environments. Conclusions: The metal-resistant soil bacterium Cupriavidus metallidurans CH34 displays myriads of gene expression patterns when exposed to a wide range of heavy metals at non-lethal concentrations. The interplay between the different gene expression clusters points towards a complex cross-regulated regulatory network governing heavy metal resistance in C. metallidurans CH34. Keywords: Cupriavidus metallidurans CH34, transcriptional regulation, heavy metal resistance

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