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Chip-chip from budding yeast cells with Sir3

ABSTRACT: Chromatin immunoprecipitation of Sir3 applied with tilling array chip ( ChIP on chip of Sir3) analysis demonstrated that Changes of conventional and dynamical Genome-wide localization of Sir3 in Saccharomyces cerevisiae during different growth stages

ORGANISM(S): Saccharomyces cerevisiae

PROVIDER: GSE39437 | GEO | 2013/07/01

SECONDARY ACCESSION(S): PRJNA170878

REPOSITORIES: GEO

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Chip-chip from budding yeast cells with Sir3

Project description:Chromatin immunoprecipitation of Sir3 applied with tilling array chip ( ChIP on chip of Sir3) analysis demonstrated that Changes of conventional and dynamical Genome-wide localization of Sir3 in Saccharomyces cerevisiae during different growth stages comparison the genome-wide localization of Sir3 of logarithmic phase younger cells vs of stationary phase older cells

2013-07-01 | E-GEOD-39437 | biostudies-arrayexpress

Chip-chip of Sir3 and of Sir2, and ChAP-chip of AAR from budding yeast cells

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Project description:Chromatin immunoprecipitation of Set3 complex applied with tilling array chip ( ChIP on chip of either Set3-TAP or Snt1-TAP) analysis demonstrated that the genome-wide localization of Set3 complex in Saccharomyces cerevisiae

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Chip-chip of Snt1, of PolII, and of H3K4me2 from budding yeast cells

Project description:Chromatin immunoprecipitation of Snt1, of PolII, and of H3K4me2, respectively, applied with tilling array chip (ChIP on chip of Snt1, of PolII, and of H3K4me2, respectively) analysis demonstrated that a compared genomic occupancy of Snt1, of PolII, and of H3K4me2 in Saccharomyces cerevisiae wild type cells compared anong those in Hst1 deleted, Hos2 deleted and Hst2 & Hos2 double deleted cells

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Chip-chip of Set3, of PolII, and of H3K4me2 from budding yeast cells

Project description:Chromatin immunoprecipitation of Set3, of PolII, and of H3K4me2, respectively, applied with tilling array chip (ChIP on chip of Set3, of PolII, and of H3K4me2, respectively) analysis demonstrated that a compared genomic occupancy of Set3, of PolII, and of H3K4me2 in Saccharomyces cerevisiae wild type cells compared anong those in Hst1 deleted, Hos2 deleted and Hst2 & Hos2 double deleted cells

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The budding yeast heterochromatic protein Sir3 modulates genome-wide gene expression through transient direct contacts with euchromatin (ChIP-Seq)

Project description:The SIR complex (Silent Information Regulator) is the building block of heterochromatic structures that silence underlying genes. It is well established that the silenced state is epigenetically inherited but it is not known how the SIR complex is maintained through cell divisions in optimal or variable growth conditions. The biological function of heterochromatin located in subtelomeric regions is also unclear since heterochromatin coverage appears to be limited to a few kbps near chromosome ends and the expression of subtelomeric genes is only marginally affected in the absence of the SIR complex. We use a three-pronged approach to address these questions. First, Nanopore-MetID, an in vivo foot printing technique similar to DamID that uses nanopore sequencing technology, identified over a thousand new transient contacts between Sir3 and euchromatic genes that are not detectable by ChIP-seq and revealed a previously undocumented low-density mode of Sir3 binding to subtelomeric regions that extends 15kbps downstream of subtelomeric SIR nucleation sites. Second, our measurements of genome-wide Sir3 exchange rates after exit from starvation show that heterochromatin is a highly dynamic structure in optimal growth conditions. Third, “spike-in” RNA-seq time course experiments in the same conditions reveal that Sir3 modulates global mRNA levels in correlation with fluctuations in nutrient availability. We now propose that subtelomeric regions serve as Sir3 hubs from which Sir3 is brought over to distal sites down the chromosome arm where it transiently contacts euchromatic genes in its path. We hypothesize that contacts between Sir3 and actively transcribed genes facilitate the removal of stalled transcription complexes and allow for optimal genome-wide transcription, which gives wt cells a competitive advantage over sir3Δ cells when nutrients are limited.

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Budding yeast Wapl controls sister chromatid cohesion maintenance and the chromosome condensation status [BrdU-ChIP].

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