TY - GEN AB - Diabetes cell replacement therapy has the potential to be transformed by human pluripotent stem cell-derived β cells (SC-β cells). However, the precise identity of SC-β cells in relationship to primary fetal and adult β-cells remains unclear. Here, we used single-cell sequencing datasets to characterize the transcriptional identity of islets from in vitro differentiation, fetal islets, and adult islets. Our analysis revealed that SC-β cells share a core β-cell transcriptional identity with human adult and fetal β-cells, however SC-β cells possess a unique transcriptional profile characterized by the persistent expression and activation of progenitor and neural-biased gene networks. These networks are present in SC-β cells, irrespective of the derivation protocol used. Notably, fetal β-cells also exhibit this neural signature at the transcriptional level. Our findings offer insights into the transcriptional identity of SC-β cells and underscore the need for further investigation of the role of neural transcriptional networks in their development. AD - Washington University in St. Louis AD - Washington University in St. Louis AD - Washington University in St. Louis AD - Washington University in St. Louis AU - Schmidt, Mason AU - Ishahak, Matthew AU - Augsornworawat, Punn AU - Millman, Jeffrey DA - 2024-02-23 DO - 10.7936/6rxs-103656 DO - doi ID - 103656 KW - Biological sciences KW - Basic medicine KW - Health sciences KW - Health biotechnology KW - SC-beta KW - scRNA-seq KW - Transcriptome KW - Gene networks KW - Diabetes KW - Immaturity L1 - https://data.library.wustl.edu/record/103656/files/all_endocrine.rds L1 - https://data.library.wustl.edu/record/103656/files/all_beta.rds L1 - https://data.library.wustl.edu/record/103656/files/readme_doi1079366rxs103656_ishahak.txt L2 - https://data.library.wustl.edu/record/103656/files/all_endocrine.rds L2 - https://data.library.wustl.edu/record/103656/files/all_beta.rds L2 - https://data.library.wustl.edu/record/103656/files/readme_doi1079366rxs103656_ishahak.txt L4 - https://data.library.wustl.edu/record/103656/files/all_endocrine.rds L4 - https://data.library.wustl.edu/record/103656/files/all_beta.rds L4 - https://data.library.wustl.edu/record/103656/files/readme_doi1079366rxs103656_ishahak.txt LA - eng LK - https://data.library.wustl.edu/record/103656/files/all_endocrine.rds LK - https://data.library.wustl.edu/record/103656/files/all_beta.rds LK - https://data.library.wustl.edu/record/103656/files/readme_doi1079366rxs103656_ishahak.txt N2 - Diabetes cell replacement therapy has the potential to be transformed by human pluripotent stem cell-derived β cells (SC-β cells). However, the precise identity of SC-β cells in relationship to primary fetal and adult β-cells remains unclear. Here, we used single-cell sequencing datasets to characterize the transcriptional identity of islets from in vitro differentiation, fetal islets, and adult islets. Our analysis revealed that SC-β cells share a core β-cell transcriptional identity with human adult and fetal β-cells, however SC-β cells possess a unique transcriptional profile characterized by the persistent expression and activation of progenitor and neural-biased gene networks. These networks are present in SC-β cells, irrespective of the derivation protocol used. Notably, fetal β-cells also exhibit this neural signature at the transcriptional level. Our findings offer insights into the transcriptional identity of SC-β cells and underscore the need for further investigation of the role of neural transcriptional networks in their development. PB - Washington University in St. Louis PY - 2024-02-23 T1 - Single-cell RNA Sequencing Analysis of Stem Cell-derived Beta Cells TI - Single-cell RNA Sequencing Analysis of Stem Cell-derived Beta Cells UR - https://data.library.wustl.edu/record/103656/files/all_endocrine.rds UR - https://data.library.wustl.edu/record/103656/files/all_beta.rds UR - https://data.library.wustl.edu/record/103656/files/readme_doi1079366rxs103656_ishahak.txt Y1 - 2024-02-23 ER -