Homo sapiens
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA300538 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR2859080_1.fastq.gz | Fastqsanger.gz | |||
| SRR2859080_2.fastq.gz | Fastqsanger.gz | |||
| SRR2859081_1.fastq.gz | Fastqsanger.gz | |||
| SRR2859081_2.fastq.gz | Fastqsanger.gz | |||
| SRR2859082_1.fastq.gz | Fastqsanger.gz |
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Project description:Hematopoietic progenitors respond to developmental and environmental cues to differentiate. The stage-specific steps of differentiation are stereotypic for each cell lineage, and are controlled by transcription. Here we investigate how differential genomic binding of signal-responsive and lineage-restricted transcription factors can specify subsequent stages of erythropoiesis. Using a human erythroid differentiation system, we extensively characterized the co-operation of the BMP signaling transcription factor SMAD1 with the erythroid transcription factors GATA2 and GATA1 in a detailed time-course. BMP signaling enhances erythroid differentiation. SMAD1 is co-recruited with GATA factors at stage-specific genes that are required to have high expression in each stage. Additionally, we observed SMAD1-GATA co-enriched regions are within super-enhancers and span accessible chromatin. Co-bound regions harbor cell-type specific transcription factor motifs that change during commitment, in contrast to GATA-alone regions. Our studies demonstrate that signal-responsive factors together with lineage regulators mark genomic “hotspots” that function to regulate stage-specific gene expression.
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Project description:Hematopoietic progenitors respond to developmental and environmental cues to differentiate. The stage-specific steps of differentiation are stereotypic for each cell lineage, and are controlled by transcription. Here we investigate how differential genomic binding of signal-responsive and lineage-restricted transcription factors can specify subsequent stages of erythropoiesis. Using a human erythroid differentiation system, we extensively characterized the co-operation of the BMP signaling transcription factor SMAD1 with the erythroid transcription factors GATA2 and GATA1 in a detailed time-course. BMP signaling enhances erythroid differentiation. SMAD1 is co-recruited with GATA factors at stage-specific genes that are required to have high expression in each stage. Additionally, we observed SMAD1-GATA co-enriched regions are within super-enhancers and span accessible chromatin. Co-bound regions harbor cell-type specific transcription factor motifs that change during commitment, in contrast to GATA-alone regions. Our studies demonstrate that signal-responsive factors together with lineage regulators mark genomic “hotspots” that function to regulate stage-specific gene expression.
2020-09-14 | GSE74472 | GEO
Project description:Hematopoietic progenitors respond to developmental and environmental cues to differentiate. The stage-specific steps of differentiation are stereotypic for each cell lineage, and are controlled by transcription. Here we investigate how differential genomic binding of signal-responsive and lineage-restricted transcription factors can specify subsequent stages of erythropoiesis. Using a human erythroid differentiation system, we extensively characterized the co-operation of the BMP signaling transcription factor SMAD1 with the erythroid transcription factors GATA2 and GATA1 in a detailed time-course. BMP signaling enhances erythroid differentiation. SMAD1 is co-recruited with GATA factors at stage-specific genes that are required to have high expression in each stage. Additionally, we observed SMAD1-GATA co-enriched regions are within super-enhancers and span accessible chromatin. Co-bound regions harbor cell-type specific transcription factor motifs that change during commitment, in contrast to GATA-alone regions. Our studies demonstrate that signal-responsive factors together with lineage regulators mark genomic “hotspots” that function to regulate stage-specific gene expression.
2020-09-14 | GSE74482 | GEO
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2020-09-14 | GSE104574 | GEO
Project description:Human erythropoiesis is a stepwise process in which multipotent hematopoietic stem/progenitor cells (HSPC) are initially committed towards the erythroid lineage and then differentiated into mature erythroid precursors. Commitment and differentiation are tightly regulated by the coordinated action of a host of transcription factors, including GATA2 and GATA1. Although the role of GATA factors in erythropoiesis has been extensively studied, how they regulate transcription from early to late stages of human erythropoiesis still remains underinvestigated. Here, we investigated GATA-mediated transcriptional regulation along erythroid development through the integrative analysis of gene expression, chromatin modifications, and GATA factors’ binding in human HSPC, early erythroid progenitors, and late precursors. A progressive loss of H3K27 acetylation, a mark of active regulatory elements, and diminished usage of active enhancers and super-enhancers was observed during erythroid lineage commitment and differentiation. We found that GATA factors mediate the transcriptional changes occurring during erythropoiesis through a stage-specific interplay with regulatory elements. In particular, GATA1 binds different sets of regulatory elements in early progenitors and late precursors, and controls the transcription of distinct genes in commitment and differentiation. By Chromosome Conformation Capture and CRISPR/Cas9-mediated genome editing, we demonstrated that the binding of GATA1 to a stage-specific super-enhancer sustains the expression of the stem cell factor receptor KIT in human erythroid progenitors. This study provides insights into the dynamics of epigenetic and transcriptional interactions during erythroid development and highlights a new layer of GATA1-mediated regulation in erythropoiesis.
2020-04-10 | GSE124163 | GEO
Project description:Human erythropoiesis is a stepwise process in which multipotent hematopoietic stem/progenitor cells (HSPC) are initially committed towards the erythroid lineage and then differentiated into mature erythroid precursors. Commitment and differentiation are tightly regulated by the coordinated action of a host of transcription factors, including GATA2 and GATA1. Although the role of GATA factors in erythropoiesis has been extensively studied, how they regulate transcription from early to late stages of human erythropoiesis still remains underinvestigated. Here, we investigated GATA-mediated transcriptional regulation along erythroid development through the integrative analysis of gene expression, chromatin modifications, and GATA factors’ binding in human HSPC, early erythroid progenitors, and late precursors. A progressive loss of H3K27 acetylation, a mark of active regulatory elements, and diminished usage of active enhancers and super-enhancers was observed during erythroid lineage commitment and differentiation. We found that GATA factors mediate the transcriptional changes occurring during erythropoiesis through a stage-specific interplay with regulatory elements. In particular, GATA1 binds different sets of regulatory elements in early progenitors and late precursors, and controls the transcription of distinct genes in commitment and differentiation. By Chromosome Conformation Capture and CRISPR/Cas9-mediated genome editing, we demonstrated that the binding of GATA1 to a stage-specific super-enhancer sustains the expression of the stem cell factor receptor KIT in human erythroid progenitors. This study provides insights into the dynamics of epigenetic and transcriptional interactions during erythroid development and highlights a new layer of GATA1-mediated regulation in erythropoiesis.
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Project description:The stoichiometries of TFIID and SAGA (TAF10-containing complexes) have been quantified in mouse and human erythroid cells. TAF10 immunoprecipitations (IPs) have been carried out in erythroid cells at different stages of differentiation and development followed by quantitative mass spectrometry (MS). Interactions of TFIID and SAGA with several transcription factors and specifically with GATA-1 have been identified. GATA-1 immunoprecipitation (IP) in MEL cells also identified the reverse interactions with subunits of the TFIID and SAGA after MS analysis.
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