Cut&Run of freshly isolated quiescent muscle stem cells (MuSCs) for H3K27me3 and Cut&Run of myoblasts for REST/NRSF
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ABSTRACT:
PROVIDER: PRJNA1190948 | ENA |
REPOSITORIES: ENA
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Project description:The maintenance of cell lineage and cell fate are essential for the function of adult stem cells. Despite this, the epigenetic mechanisms that regulate muscle stem cell (MuSC) identity are not well understood. In this study, we performed Cut&Tag of the activating histone marks H3K4me3 and H3K27ac on freshly isolated quiescent MuSCs and found that a large number of genes without transcription still maintained the permissive mark H3K4me3 but lacked the marker of active enhancers, H3K27ac. These genes included those that are essential for non-myogenic lineage determination. We found that many of the genes that were not transcribed but enriched for H3K4me3, were also enriched for the RE-1 binding motif, the motif recognized by the repressive transcription factor REST. Using a genetic mouse model where REST is conditionally knocked out of MuSCs, we further investigated the role of REST in the maintenance of quiescent MuSC cell identity. Investigation of the transcriptome and chromatin accessibility of WT and REST deficient MuSCs determined that the loss of REST results in the gain of expression of key genes of several non-myogenic tissues, particularly neuronal genes. Additionally, the loss of REST led to the dramatic reduction of the MuSC pool and the induction of muscle atrophy. The unstable cell identity caused by the genetic deletion of REST results in the MuSCs undergoing apoptosis and is the main driver of the observed loss of the MuSC pool. Together, the data presented in this study establishes a novel function of the transcription factor REST, where it safeguards the identity and myogenic lineage of MuSCs, through the repression of alternative lineages.
2025-06-24 | GSE282888 | GEO
Project description:The maintenance of cell lineage and cell fate are essential for the function of adult stem cells. Despite this, the epigenetic mechanisms that regulate muscle stem cell (MuSC) identity are not well understood. In this study, we performed Cut&Tag of the activating histone marks H3K4me3 and H3K27ac on freshly isolated quiescent MuSCs and found that a large number of genes without transcription still maintained the permissive mark H3K4me3 but lacked the marker of active enhancers, H3K27ac. These genes included those that are essential for non-myogenic lineage determination. We found that many of the genes that were not transcribed but enriched for H3K4me3, were also enriched for the RE-1 binding motif, the motif recognized by the repressive transcription factor REST. Using a genetic mouse model where REST is conditionally knocked out of MuSCs, we further investigated the role of REST in the maintenance of quiescent MuSC cell identity. Investigation of the transcriptome and chromatin accessibility of WT and REST deficient MuSCs determined that the loss of REST results in the gain of expression of key genes of several non-myogenic tissues, particularly neuronal genes. Additionally, the loss of REST led to the dramatic reduction of the MuSC pool and the induction of muscle atrophy. The unstable cell identity caused by the genetic deletion of REST results in the MuSCs undergoing apoptosis and is the main driver of the observed loss of the MuSC pool. Together, the data presented in this study establishes a novel function of the transcription factor REST, where it safeguards the identity and myogenic lineage of MuSCs, through the repression of alternative lineages.
2024-06-11 | GSE266725 | GEO
Project description:Cut& Tag of quiescent muscle stem cells (MuSCs)
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Project description:H4K20me1/2/3 is dynamically regulated during cell cycle to maintain the genomic stability. Here, we found that depletion of H4K20 di-methyltransferase Suv420h1 in mouse adult MuSCs leads to strong accumulation of H4K20me1 specifically in S phase. In response to it, the transcription activity is increased upon Suv420h1 depletion. To investigate which genomic regions and how the transcription are regulated by Suv420h1 in MuSC, we performed Cut&Run of H4K20me1 and RNA polymerase II Ser2P in control and Suv420h1 inactivated MuSCs.
2022-10-13 | GSE173259 | GEO
Project description:SOX6 CUT&RUN on HUDEP1 over expressing SOX6-Flag. The experiment is done using and anti Flag Ab to assist the genome wide binding profile of SOX6 in HUDEP1 (Human Umbilical cord blood-Derived Erythroid Progenitor-1).
2023-04-07 | E-MTAB-12800 | biostudies-arrayexpress
Project description:We compared transcriptome of real quiescent MuSCs and freshly isolated MuSCs with in-situ fixation,FISC cultured for 24hrs,48hrs and 72hrs by RNA-sequencing.
2021-05-25 | GSE175501 | GEO
Project description:We compared the transcriptome of isolated 0.5% paraformaldehyde-fixed MuSCs to Live (freshly isolated, not fixed) MuSCs by RNA-sequencing.
2017-11-13 | GSE103162 | GEO
Project description:Here we describe successful implementation of CUT&RUN for profiling protein-DNA interactions in zebrafish embryos. We apply modified a CUT&RUN method to generate high resolution maps of enrichment for H3K4me3, H3K27me3, H3K9me3, and RNA polymerase II during zebrafish gastrulation. Using this data, we identify a conserved subset of developmental genes that are enriched in both H3K4me3 and H3K27me3 during gastrulation, and we demonstrate the increased effectiveness of CUT&RUN for detecting protein enrichment at repetitive sequences with reduced mappability. Our work demonstrates the power of combining CUT&RUN with the strengths of the zebrafish system to better understand the changing embryonic chromatin landscape and its roles in shaping development.
2021-06-17 | GSE178343 | GEO
Project description:The maintenance of cell lineage and cell fate are essential for the function of adult stem cells. Despite this, the epigenetic mechanisms that regulate muscle stem cell (MuSC) identity are not well understood. In this study, we performed Cut&Tag of the activating histone marks H3K4me3 and H3K27ac on freshly isolated quiescent MuSCs and found that a large number of genes without transcription still maintained the permissive mark H3K4me3 but lacked the marker of active enhancers, H3K27ac. These genes included those that are essential for non-myogenic lineage determination. We found that many of the genes that were not transcribed but enriched for H3K4me3, were also enriched for the RE-1 binding motif, the motif recognized by the repressive transcription factor REST. Using a genetic mouse model where REST is conditionally knocked out of MuSCs, we further investigated the role of REST in the maintenance of quiescent MuSC cell identity. Investigation of the transcriptome and chromatin accessibility of WT and REST deficient MuSCs determined that the loss of REST results in the gain of expression of key genes of several non-myogenic tissues, particularly neuronal genes. Additionally, the loss of REST led to the dramatic reduction of the MuSC pool and the induction of muscle atrophy. The unstable cell identity caused by the genetic deletion of REST results in the MuSCs undergoing apoptosis and is the main driver of the observed loss of the MuSC pool. Together, the data presented in this study establishes a novel function of the transcription factor REST, where it safeguards the identity and myogenic lineage of MuSCs, through the repression of alternative lineages.
2024-06-11 | GSE266726 | GEO