GR cistromes reprogramming by High Fat Diet [ChIP-seq: GR day/night]
Ontology highlight
ABSTRACT:
ORGANISM(S): Mus musculus
PROVIDER: GSE108689 | GEO | 2019/10/22
REPOSITORIES: GEO
Similar Datasets
Project description:We mapped the genome-wide binding profiles of GR throughout the day/night cycle (ZT0-ZT4-ZT8-ZT12-ZT16-ZT20) by using ChIP-Seq in livers from control mice and mice fed High Fat Diet (HFD) for 12 weeks
2019-10-22 | GSE108688 | GEO
Project description:Liver metabolism in mice lacking Bmal1 in adipocytes. Comparison between WT and KO revealed no differentially expressed genes at ZT12 and ZT16, and only revealed one gene at ZT8 and ZT20. In contrast many genes were differential at ZT0 and ZT4. With ZT4 having substantially more than ZT0.
2020-06-01 | GSE115264 | GEO
Project description:To study the diurnal transcriptome (RNA-seq) expressed by the monocot model plant B. distachyon under submergence stress, we analyzed two different ecotypes (Bd21, submergence sensitive; Bd21-3, submergence tolerant) at 5 different time points (dawn, ZT0; midday, ZT8; dusk, ZT16; middnight ZT20, end of night, ZT24).
2022-10-15 | GSE215159 | GEO
Project description:Plants are extremely sensitive to and can re-output rhythm by light signals during photoperiod cues. The circadian transcriptome and epigenetically modified rice genome exhibited distinct circadian behavioural outputs under three light signals during the photoperiod.By comparing and analysing the output circadian genes under different light signals, we detected that constant light (LL) shortens the day-night cycle, while constant night (DD) suppresses the oscillation amplitude. The circadian changing lncRNAs at the genome-wide level that were temporally correlated with oscillating genes at proximal loci and accompanied by synchronised circadian oscillations of H3K9ac modifications. We used the Assay for Transposase Accessible Chromatin with sequencing (ATAC-seq) to profile the open chromatin regions and transcription factor (TF) footprints in rice at six time points (ZT0, ZT4, ZT8, ZT12, ZT16, and ZT20). The regulation of circadian gene expression occurs, not through temporal regulation of chromatin opening but through time-dependent binding of transcription factors in cis-regulatory elements. We mapped the 4D genome architecture of rice by employing BL-Hi-C, to capture oscillating chromatin interactions at ZT8 and ZT20. Circadian genes within the same peak phases of expression were preferentially coordinated transcription with non-circadian genes. Circadian genes at the ZT8 circadian phase tended to be enriched in ZT8-speific spatial clusters to orchestrate gene expression. Our findings contribute significantly to a more comprehensive understanding of the molecular interactions within the oscillator, and with clock-controlled pathways in rice.
2022-09-15 | GSE213226 | GEO
Project description:Plants are extremely sensitive to and can re-output rhythm by light signals during photoperiod cues. The circadian transcriptome and epigenetically modified rice genome exhibited distinct circadian behavioural outputs under three light signals during the photoperiod.By comparing and analysing the output circadian genes under different light signals, we detected that constant light (LL) shortens the day-night cycle, while constant night (DD) suppresses the oscillation amplitude. The circadian changing lncRNAs at the genome-wide level that were temporally correlated with oscillating genes at proximal loci and accompanied by synchronised circadian oscillations of H3K9ac modifications. We used the Assay for Transposase Accessible Chromatin with sequencing (ATAC-seq) to profile the open chromatin regions and transcription factor (TF) footprints in rice at six time points (ZT0, ZT4, ZT8, ZT12, ZT16, and ZT20). The regulation of circadian gene expression occurs, not through temporal regulation of chromatin opening but through time-dependent binding of transcription factors in cis-regulatory elements. We mapped the 4D genome architecture of rice by employing BL-Hi-C, to capture oscillating chromatin interactions at ZT8 and ZT20. Circadian genes within the same peak phases of expression were preferentially coordinated transcription with non-circadian genes. Circadian genes at the ZT8 circadian phase tended to be enriched in ZT8-speific spatial clusters to orchestrate gene expression. Our findings contribute significantly to a more comprehensive understanding of the molecular interactions within the oscillator, and with clock-controlled pathways in rice.
2022-09-15 | GSE213093 | GEO
Project description:Plants are extremely sensitive to and can re-output rhythm by light signals during photoperiod cues. The circadian transcriptome and epigenetically modified rice genome exhibited distinct circadian behavioural outputs under three light signals during the photoperiod.By comparing and analysing the output circadian genes under different light signals, we detected that constant light (LL) shortens the day-night cycle, while constant night (DD) suppresses the oscillation amplitude. The circadian changing lncRNAs at the genome-wide level that were temporally correlated with oscillating genes at proximal loci and accompanied by synchronised circadian oscillations of H3K9ac modifications. We used the Assay for Transposase Accessible Chromatin with sequencing (ATAC-seq) to profile the open chromatin regions and transcription factor (TF) footprints in rice at six time points (ZT0, ZT4, ZT8, ZT12, ZT16, and ZT20). The regulation of circadian gene expression occurs, not through temporal regulation of chromatin opening but through time-dependent binding of transcription factors in cis-regulatory elements. We mapped the 4D genome architecture of rice by employing BL-Hi-C, to capture oscillating chromatin interactions at ZT8 and ZT20. Circadian genes within the same peak phases of expression were preferentially coordinated transcription with non-circadian genes. Circadian genes at the ZT8 circadian phase tended to be enriched in ZT8-speific spatial clusters to orchestrate gene expression. Our findings contribute significantly to a more comprehensive understanding of the molecular interactions within the oscillator, and with clock-controlled pathways in rice.
2022-09-15 | GSE213090 | GEO
Project description:Plants are extremely sensitive to and can re-output rhythm by light signals during photoperiod cues. The circadian transcriptome and epigenetically modified rice genome exhibited distinct circadian behavioural outputs under three light signals during the photoperiod.By comparing and analysing the output circadian genes under different light signals, we detected that constant light (LL) shortens the day-night cycle, while constant night (DD) suppresses the oscillation amplitude. The circadian changing lncRNAs at the genome-wide level that were temporally correlated with oscillating genes at proximal loci and accompanied by synchronised circadian oscillations of H3K9ac modifications. We used the Assay for Transposase Accessible Chromatin with sequencing (ATAC-seq) to profile the open chromatin regions and transcription factor (TF) footprints in rice at six time points (ZT0, ZT4, ZT8, ZT12, ZT16, and ZT20). The regulation of circadian gene expression occurs, not through temporal regulation of chromatin opening but through time-dependent binding of transcription factors in cis-regulatory elements. We mapped the 4D genome architecture of rice by employing BL-Hi-C, to capture oscillating chromatin interactions at ZT8 and ZT20. Circadian genes within the same peak phases of expression were preferentially coordinated transcription with non-circadian genes. Circadian genes at the ZT8 circadian phase tended to be enriched in ZT8-speific spatial clusters to orchestrate gene expression. Our findings contribute significantly to a more comprehensive understanding of the molecular interactions within the oscillator, and with clock-controlled pathways in rice.
2022-09-15 | GSE213089 | GEO
Project description:We assayed the TOM2 microarray with target RNAs extracted from ZT0 (presumptive dawn), ZT8 (eight hours after dawn), ZT16 (presumptive dusk) and ZT20 (four hours after dusk), in Light/Dark (LD) conditions . The experimental design compared three time points to ZT0 used as a common reference: ZT8 vs. ZT0, ZT16 vs. ZT0 and ZT20 vs. ZT0. Sampling time is expressed as hours after dawn (Zeitgeber Time - ZT)
2009-04-02 | E-MEXP-1456 | biostudies-arrayexpress
Project description:To assess the consequences of IR deletion on gene expression using microarray and its contribution of IR to the control of nocturnal and diurnal liver activity, we analyzed liver gene expression during the day (ZT8), at day-night transition (ZT12) and at night (ZT16).
2023-01-01 | GSE165154 | GEO
Project description:The goal of the experiment was to perform a large scale study of circadian regulation of gene expression in maize. To identify maize genes with expression regulated by the circadian clock, transcript levels in the aerial tissues of young maize seedlings were determined by transcriptional profiling with the Affymetrix GeneChip Maize Genome Array. Maize inbred B73 seedlings were grown inside Conviron growth chamber. B73 seedlings were grown for 7 days under 12 h light:12 h dark (LD) photocycles, 26° C temperature and 70% humidity. At the 8th day, seedlings were transferred to continuous light (LL) and were allowed to entrain completely for 24 h prior to tissue harvest following which tissue was harvested every 4 hours under LL conditions for a period of 48h. Therefore, for the circadian LL time course 12 time points were collected as follows (also defined as factors in the treatment section): ZT0 - 8:00 am/ subjective dawn/ Day1 ZT4 - 12:00 pm/ subjective mid-day/ Day1 ZT8 - 4:00 pm/ subjective late-day/ Day1 ZT12 - 8:00 pm/ subjective dusk/ Day1 ZT16 - 12:00 am/ subjective mid-night/ Day1 ZT20 - 4:00 am/ subjective pre-dawn/ Day1 ZT24- 8:00 am/ subjective dawn/ Day2 ZT28 - 12:00 pm/ subjective mid-day/ Day2 ZT32 - 4:00 pm/ subjective late-day/ Day2 ZT36 - 8:00 pm/ subjective dusk/ Day2 ZT40 - 12:00 am/ subjective mid-night/ Day2 ZT44 - 4:00 am/ subjective pre-dawn/ Day2 Tissue comprised of aerial portion of the seedlings (corresponding to tissue from the prop roots and up) for RNA isolation. Total RNA was isolated from the entire aerial portion of 7 day-old seedlings (corresponding to tissue from the prop roots and up) by Trizol extraction followed by Qiagen RNeasy columns and treatment with RNase-free DNase I (Qiagen; qiagen.com). RNA was isolated from 3 independent biological replicates was pooled. cRNA was generated from pooled total RNA from 3 biological replicates with the GeneChip One-Cycle Target Labeling kit according to the manufacturer’s recommendations (Affymetrix, affymetrix.com). The University of California, Berkeley Functional Genomics Laboratory hybridized samples to Affymetrix GeneChip Maize Genome Arrays and scanned the washed arrays as suggested by manufacturer. Probe sets called “Not Present” or “Marginal” on one or more microarrays were removed from the downstream analysis, as is common practice with circadian studies. Raw hybridization intensities were normalized across all twelve arrays using RMA express in Perfect Match mode. ****[PLEXdb(http://www.plexdb.org) has submitted this series at GEO on behalf of the original contributor, Frank G. Harmon. The equivalent experiment is ZM28 at PLEXdb.] Continuous Light: ZT0(1-replications); Continuous Light: ZT4(1-replications); Continuous Light: ZT8(1-replications); Continuous Light: ZT12(1-replications); Continuous Light: ZT16(1-replications); Continuous Light: ZT20(1-replications); Continuous Light: ZT24(1-replications); Continuous Light: ZT28(1-replications); Continuous Light: ZT32(1-replications); Continuous Light: ZT36(1-replications); Continuous Light: ZT40(1-replications); Continuous Light: ZT44(1-replications)
2011-08-30 | E-GEOD-31763 | biostudies-arrayexpress