StemNet - in vitro differentiation of human hepatocytes
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ABSTRACT:
PROVIDER: EGAS00001004201 | EGA |
REPOSITORIES: EGA
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Project description:Advances in 3D cell culture systems, including the hepatic organoids, has shown the potential to model the liver development in vitro. However, hepatocyte-like cells obtained by these means are still immature compared to the primary human hepatocytes. Here we applied single-cell RNA-seq and ATAC-seq to identify gene regulatory mechanisms distinct to mature human hepatocytes (in vivo) and organoid derived hepatocyte like cells (in vitro). Using a modified two-step perfusion protocol, primary hepatocytes from all lobular zones were obtained with high purity. Integrative analysis revealed a key role of transcription factors of the AP-1 family in cooperation with hepatocyte-specific transcription factors, such as HNF4A, in establishing cellular identity of mature hepatocytes. Furthermore, it revealed distinct transcription factor sets required/active in human hepatocytes and liver organoids. Function analysis of an organoid-enriched transcription factor ELF3, showed that decreased expression of ELF3 in liver organoids promotes increased expression of genes typical to mature hepatocytes. This study indicates that ELF3 functions as a barrier of hepatocyte differentiation from liver organoids. Collectively, our integrative analysis provides critical insights into the transcriptional regulatory networks of human hepatocytes and liver organoids, which will further efficient differentiation of functional hepatocytes in vitro.
2024-08-22 | GSE182604 | GEO
Project description:Advances in 3D cell culture systems, including the hepatic organoids, has shown the potential to model the liver development in vitro. However, hepatocyte-like cells obtained by these means are still immature compared to the primary human hepatocytes. Here we applied single-cell RNA-seq and ATAC-seq to identify gene regulatory mechanisms distinct to mature human hepatocytes (in vivo) and organoid derived hepatocyte like cells (in vitro). Using a modified two-step perfusion protocol, primary hepatocytes from all lobular zones were obtained with high purity. Integrative analysis revealed a key role of transcription factors of the AP-1 family in cooperation with hepatocyte-specific transcription factors, such as HNF4A, in establishing cellular identity of mature hepatocytes. Furthermore, it revealed distinct transcription factor sets required/active in human hepatocytes and liver organoids. Function analysis of an organoid-enriched transcription factor ELF3, showed that decreased expression of ELF3 in liver organoids promotes increased expression of genes typical to mature hepatocytes. This study indicates that ELF3 functions as a barrier of hepatocyte differentiation from liver organoids. Collectively, our integrative analysis provides critical insights into the transcriptional regulatory networks of human hepatocytes and liver organoids, which will further efficient differentiation of functional hepatocytes in vitro.
2024-08-22 | GSE182603 | GEO
Project description:Advances in 3D cell culture systems, including the hepatic organoids, has shown the potential to model the liver development in vitro. However, hepatocyte-like cells obtained by these means are still immature compared to the primary human hepatocytes. Here we applied single-cell RNA-seq and ATAC-seq to identify gene regulatory mechanisms distinct to mature human hepatocytes (in vivo) and organoid derived hepatocyte like cells (in vitro). Using a modified two-step perfusion protocol, primary hepatocytes from all lobular zones were obtained with high purity. Integrative analysis revealed a key role of transcription factors of the AP-1 family in cooperation with hepatocyte-specific transcription factors, such as HNF4A, in establishing cellular identity of mature hepatocytes. Furthermore, it revealed distinct transcription factor sets required/active in human hepatocytes and liver organoids. Function analysis of an organoid-enriched transcription factor ELF3, showed that decreased expression of ELF3 in liver organoids promotes increased expression of genes typical to mature hepatocytes. This study indicates that ELF3 functions as a barrier of hepatocyte differentiation from liver organoids. Collectively, our integrative analysis provides critical insights into the transcriptional regulatory networks of human hepatocytes and liver organoids, which will further efficient differentiation of functional hepatocytes in vitro.
2024-08-22 | GSE182602 | GEO
Project description:We differentiated primary mouse E14.5 Dlk1+ hepatoblasts in vitro into hepatocyte-like cells that recapitulated morphological features of hepatocytes. To assess the level of differentiation, we performed RNA-seq analysis and compared gene expression profiles of hepatobalsts, in vitro differentiated hepatocytes and mature hepatocytes isolated from adult mouse livers as a control.
2021-07-26 | GSE176069 | GEO
Project description:CDK5RAP3, an UFL1 adaptor for UFMylation, is crucial for liver development in mouse. However, the function of CDK5RAP3 in human hepatocyte differentiation remains unclear. The stepwise generation of hepatocyte-like cells derived from human embryonic cells simulates human hepatocyte differentiation in vitro. Here, the human embryonic cells were conducted to differentiate into hepatocytes and ScRNA-Seq analysis was performed to elucidate the molecular mechanism of CDK5RAP3 in human liver development. We found CDK5RAP3 was important for human hepatocytes differentiation. The CDK5RAP3 deficiency upregulated ER stress in hepatic-endoderm stage, and impaired ribosome homeostasis in mature hepatocytes.
2024-01-13 | GSE253134 | GEO
Project description:Hepatocytes hold significant promise for applications in drug screening, disease modeling, and clinical cell transplantation. Generating large amouts of hepatocyte in vitro for those application is still challenging. We have previously established a 5C medium for long-term culture and functional maintanace human primary hepatocytes (PHHs) in vitro. However, 5C condtion could not support hepatocyte expansion, which limited its application. In this study, we established a new hepatocyte expansion medium (NHEM) for efficient hepatocyte expansion, which turned the PHHs into hepatic progenitor-like cells (HPLCs). We also generated an optimized 6C condtion for HPLCs maturation. Overall, this study provide a new strategy to generate large amounts of hepatocytes in vitro.
2024-09-23 | GSE261965 | GEO
Project description:Hepatocytes hold significant promise for applications in drug screening, disease modeling, and clinical cell transplantation. Generating large amouts of hepatocyte in vitro for those application is still challenging. We have previously established a 5C medium for long-term culture and functional maintanace human primary hepatocytes (PHHs) in vitro. However, 5C condtion could not support hepatocyte expansion, which limited its application. In this study, we established a new hepatocyte expansion medium (NHEM) for efficient hepatocyte expansion, which turned the PHHs into hepatic progenitor-like cells (HPLCs). We also generated an optimized 6C condtion for HPLCs maturation. Overall, this study provide a new strategy to generate large amounts of hepatocytes in vitro.
2024-09-23 | GSE261962 | GEO
Project description:Rhythmic intraorgan communication coordinates environmental signals and cell-intrinsic clock to maintain organ homeostasis. Hepatocyte-specific knockout of core components of the molecular clock, Rev-erba and b (ReverbhDKO), alters cholesterol and lipid metabolism in hepatocytes as well as rhythmic gene expression in non-parenchymal cells (NPC) of the liver. Here we report that in diet induced obesity (DIO)-caused fatty liver, hepatocyte SREBP cleavage-activating protein (SCAP) is required for ReverbhDKO-induced diurnal rhythmic remodeling and epigenomic reprogramming in Kupffer cells (KC). Integrative analyses of isolated hepatocytes and Kupffer cells uncovered potential signals, including secreted polypeptides and metabolites, that gain rhythmicity in the absence of REV-ERBs in a SCAP-dependent manner. These results shed light on the signaling mechanisms by which hepatocytes regulate diurnal rhythms in NPCs in DIO and fatty liver disease.
2023-04-04 | GSE206318 | GEO
Project description:Rhythmic intraorgan communication coordinates environmental signals and cell-intrinsic clock to maintain organ homeostasis. Hepatocyte-specific knockout of core components of the molecular clock, Rev-erba and b (ReverbhDKO), alters cholesterol and lipid metabolism in hepatocytes as well as rhythmic gene expression in non-parenchymal cells (NPC) of the liver. Here we report that in diet induced obesity (DIO)-caused fatty liver, hepatocyte SREBP cleavage-activating protein (SCAP) is required for ReverbhDKO-induced diurnal rhythmic remodeling and epigenomic reprogramming in Kupffer cells (KC). Integrative analyses of isolated hepatocytes and Kupffer cells uncovered potential signals, including secreted polypeptides and metabolites, that gain rhythmicity in the absence of REV-ERBs in a SCAP-dependent manner. These results shed light on the signaling mechanisms by which hepatocytes regulate diurnal rhythms in NPCs in DIO and fatty liver disease.
2023-04-04 | GSE206316 | GEO
Project description:Rhythmic intraorgan communication coordinates environmental signals and cell-intrinsic clock to maintain organ homeostasis. Hepatocyte-specific knockout of core components of the molecular clock, Rev-erba and b (ReverbhDKO), alters cholesterol and lipid metabolism in hepatocytes as well as rhythmic gene expression in non-parenchymal cells (NPC) of the liver. Here we report that in diet induced obesity (DIO)-caused fatty liver, hepatocyte SREBP cleavage-activating protein (SCAP) is required for ReverbhDKO-induced diurnal rhythmic remodeling and epigenomic reprogramming in Kupffer cells (KC). Integrative analyses of isolated hepatocytes and Kupffer cells uncovered potential signals, including secreted polypeptides and metabolites, that gain rhythmicity in the absence of REV-ERBs in a SCAP-dependent manner. These results shed light on the signaling mechanisms by which hepatocytes regulate diurnal rhythms in NPCs in DIO and fatty liver disease.
2023-04-04 | GSE206317 | GEO