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E.coli Infected Bladder Samples (PBS, WT and all mutants)

ABSTRACT: Study of host response in mice to uropathogenic E. coli (UPEC) infection and the contribution of deletion of the Cnf and HlyA1 toxins to the host response. Mice were infected with UPEC in the bladder for 24 hrs and RNA was isolated from whole bladder to analyze on Agilent whole mouse 2-channel arrays against normal untreated mouse bladder RNA. Biological replicates were analyzed for each condition. Infection: genotype of E. coli CP9 (UPEC) strain

ORGANISM(S): Mus musculus

PROVIDER: GSE37953 | GEO | 2013/05/14

SECONDARY ACCESSION(S): PRJNA166923

REPOSITORIES: GEO

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E.coli Infected Bladder Samples (PBS, WT and all mutants)

Project description:Study of host response in mice to uropathogenic E. coli (UPEC) infection and the contribution of deletion of the Cnf and HlyA1 toxins to the host response. Mice were infected with UPEC in the bladder for 24 hrs and RNA was isolated from whole bladder to analyze on Agilent whole mouse 2-channel arrays against normal untreated mouse bladder RNA. Biological replicates were analyzed for each condition. Infection: genotype of E. coli CP9 (UPEC) strain strain_or_line_design

2013-05-14 | E-GEOD-37953 | biostudies-arrayexpress

E.coli Infected Bladder Samples (PBS, WT and 2 mutants)

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E.coli Infected Bladder Samples (PBS, WT and 2 mutants)

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Proteomes of uropathogenic Escherichia coli growing in human urine and in J82 urinary bladder cell.

Project description:Uropathogenic Escherichia coli (UPEC) are the most common cause of urinary tract infection (UTI). UPEC normally reside in the intestine, and during establishment of UTI, it undergoes metabolic adaptations, first to urine and then upon tissue invasion to the bladder cell interior. In order to understand these adaptations, we used quantitative proteomic profiling to characterize protein expression of UPEC strain UTI89 growing in human urine and when inside J82 bladder cells. In order to facilitate detection of UPEC proteins over the excess amount of eukaryotic proteins in bladder cells, we developed a method where proteins from UTI89 grown in MOPS and urine was spiked-in to enhance detection of bacterial proteins. More than 2000 E. coli proteins were detected. During growth in urine, proteins associated with iron acquisition and several amino acid uptake and biosynthesis systems, in particular arginine metabolism, were significantly upregulated. During growth in J82 cells, proteins related to iron uptake and arginine metabolisms were upregulated together with proteins involved in sulphur compound turnover. Results suggested that UPEC experience a richer environment in bladder cells compared to urine. There was no direct correlation between upregulated proteins and proteins reported to be essential for infections, showing that upregulation during growth does not signify that the proteins are essential for growth under a condition.

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Gardnerella vaginalis activates host responses necessary for Escherichia coli recurrent UTI from bladder reservoirs

Project description:Recurrent urinary tract infections (rUTI) are a costly clinical problem affecting millions of women worldwide each year. The majority of rUTI cases are caused by uropathogenic Escherichia coli (UPEC). Data from humans and mouse models indicate that some instances of rUTI are caused by UPEC emerging from latent reservoirs in the bladder. Some studies have reported that women with vaginal dysbiosis, typically characterized by high levels of Gardnerella vaginalis and other anaerobes, are at increased risk of UTI. Multiple studies have detected G. vaginalis in urine collected by transurethral catheterization (to limit vaginal contamination), suggesting that some women experience routine urinary tract exposures. We recently reported that inoculation of G. vaginalis into the bladder triggers rUTI from UPEC bladder reservoirs in a mouse model. Here we performed whole bladder RNAseq to identify host pathways involved in G. vaginalis-induced rUTI. We identified multiple host pathways differentially expressed following G. vaginalis exposure. At the gene and transcript level, we identified upregulation of the orphan nuclear receptor Nur77 (aka Nr4a1) and Nur77-regulated genes. Pilot data from Nur77 knockout mice suggests that Nur77 is necessary for G. vaganalis exposure to trigger rUTI.

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Genome-wide maping the chromatin status of 5637 cells following infection with Uropathogenic E.coli

Project description:We report the application of H3 Lysine9 acetylation (H3K9ac) immunoprecipitation coupled next generation sequencing (ChIP-seq) in human bladder epithelial cells 5637 following treatment with Urophathogenic Escherichia coli strain 536 (UPEC) or the mutant with deletion of both α-hemolysin (hlyA) genes in the UPEC 536 strain (hlyA double mutant = UPEC 536 HDM) or UPEC supplemented with acetate. We found dramatic depletion of H3K9ac peaks was observed in UPEC infected cells, which was partially rescued by supplementation of acetate. In contrast, H3K9ac peaks of untreated cells are comparable with HDM treated cells. A total 21834 merged peak regions were identified in untreated control, whilst UPEC infection significantly decreased the signal across the merged peak regions, which was rescued partially by adding acetate. Deacetylation and its rescue by addition of acetate were observed in a global manner and affected the vast majority of H3K9ac sites throughout the genome. This observation holds true for different classes of cis-regulatory elements. Analysis of average binding across all human transcriptional start sites analysis further revealed that UPEC treatment also decrease H3K9ac signals at promoter regions, and can be rescue by supplementation of acetate. Moreover H3K9ac signal is also correlated with gene expression pattern. This study established that UPEC infection could epigenetically manipulate the host cell gene expression.

2021-12-31 | GSE132597 | GEO

DNA-seq of differentially induced promoter regions in E. coli UTI89 strain grown in either J82 bladder epithelial cells, urine, DMEM or LB medium.

Project description:The method DFI-seq was developed to enable identification of differentially expressed genes in uropathogenic E. coli strain UTI89 during growth in human urine and in bladder epithelial cells. By utilising this new method, the aim was to identify novel virulence genes in UTI89. DFI-seq is a combination of differential fluorescence induction (DFI) with next-generation sequencing. DFI-seq was compared to DFI by analysing gene expression of UPEC in human urine and thereby confirming that DFI-seq gives a better overview of gene expression. DFI-seq was hereafter used to look at gene expression in UTI89 while infecting bladder epithelial cells. We demonstrate the usefulness of DFI-seq for identification of genes required for optimal growth of UPEC in human urine, as well as potential virulence genes upregulated during infection of bladder epithelial cells. DFI-seq holds potential for the study of bacterial gene expression in live-animal infection systems.

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Development of gene expression signatures for murine bladder: Control vs. UTI89

Project description:Antimicrobial peptides (AMPs) serve key proposed roles in defending the urinary tract against invading uropathogens, but individual AMPs bearing greatest responsibility for these functions remain largely unknown. We identified RegIIIγ as the most transcriptionally upregulated AMP in bladder transcriptomes following uropathogenic Escherichia coli (UPEC) infection. We confirmed induction of RegIIIγ mRNA during cystitis and pyelonephritis by quantitative RT-PCR. Immunoblotting demonstrates increased bladder and urinary RegIIIγ protein levels following UPEC infection. Immunostaining localizes RegIIIγ protein to urothelial cells of infected bladders and kidneys. Human patients with cystitis and pyelonephritis exhibit increased urine levels of the orthologous HIP/PAP protein. Recombinant RegIIIγ protein does not demonstrate bactericidal activity toward UPEC in vitro, but does kill Staphylococcus saprophyticus in a dose-dependent manner. RegIIIγ knockout and control urinary tracts contain comparable bacterial burden following experimental inoculation of UPEC as well as Gram-positive uropathogens. Thus, while RegIIIγ and HIP/PAP expression occurs in human and murine UTI, their specific functions in the urinary tract remain uncertain.

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