Efficient generation of pancreatic β-like cells from the mouse gallbladder

Direct reprogramming is a promising approach for the replacement of β cells in diabetes. Reprogramming of cells originating from the endodermal lineage, such as acinar cells in the pancreas, liver cells and gallbladder cells has been of particular interest because of their developmental proximity to...

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Veröffentlicht in:Stem cell research 2016-11, Vol.17 (3), p.587-596
Hauptverfasser: Wang, Yuhan, Galivo, Feorillo, Pelz, Carl, Haft, Annelise, Lee, Jonghyeob, Kim, Seung K., Grompe, Markus
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container_issue 3
container_start_page 587
container_title Stem cell research
container_volume 17
creator Wang, Yuhan
Galivo, Feorillo
Pelz, Carl
Haft, Annelise
Lee, Jonghyeob
Kim, Seung K.
Grompe, Markus
description Direct reprogramming is a promising approach for the replacement of β cells in diabetes. Reprogramming of cells originating from the endodermal lineage, such as acinar cells in the pancreas, liver cells and gallbladder cells has been of particular interest because of their developmental proximity to β cells. Our previous work showed that mouse gallbladder epithelium can be partially reprogrammed in vitro to generate islet-like cells (rGBC1). Here, the reprogramming protocol was substantially improved, yielding cells (rGBC2) closer to functional β cells than the 1st generation method with higher conversion efficiency and insulin expression. In addition to insulin synthesis and processing, rGBC2 presented many hallmark features of β cells, including insulin secretion in response to high glucose stimulation. Gene expression analysis indicated that rGBC2 clustered closer with β cells and had a metabolic gene expression profile resembling neonatal β cells. When transplanted into immune-deficient animals, rGBC2 were stable for at least 5months and further matured in vivo. Taken together, this approach provides further understanding of endodermal lineage conversion and potential for development of cell replacement therapy for type 1 diabetes patients. •Approximately 20–30% of gallbladder cells can be reprogrammed into insulin producing β-like cells in vitro.•rGBC2 synthesize, process and secrete insulin and present glucose responsiveness.•Transcriptome analysis showed that rGBC2 clustered closer with pancreatic β cells.•rGBC2 can engraft and persist in immune-deficient animals, during which they further mature by activating pancreatic endocrine factors such as Nkx6.1.
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Reprogramming of cells originating from the endodermal lineage, such as acinar cells in the pancreas, liver cells and gallbladder cells has been of particular interest because of their developmental proximity to β cells. Our previous work showed that mouse gallbladder epithelium can be partially reprogrammed in vitro to generate islet-like cells (rGBC1). Here, the reprogramming protocol was substantially improved, yielding cells (rGBC2) closer to functional β cells than the 1st generation method with higher conversion efficiency and insulin expression. In addition to insulin synthesis and processing, rGBC2 presented many hallmark features of β cells, including insulin secretion in response to high glucose stimulation. Gene expression analysis indicated that rGBC2 clustered closer with β cells and had a metabolic gene expression profile resembling neonatal β cells. When transplanted into immune-deficient animals, rGBC2 were stable for at least 5months and further matured in vivo. Taken together, this approach provides further understanding of endodermal lineage conversion and potential for development of cell replacement therapy for type 1 diabetes patients. •Approximately 20–30% of gallbladder cells can be reprogrammed into insulin producing β-like cells in vitro.•rGBC2 synthesize, process and secrete insulin and present glucose responsiveness.•Transcriptome analysis showed that rGBC2 clustered closer with pancreatic β cells.•rGBC2 can engraft and persist in immune-deficient animals, during which they further mature by activating pancreatic endocrine factors such as Nkx6.1.</description><identifier>ISSN: 1873-5061</identifier><identifier>EISSN: 1876-7753</identifier><identifier>DOI: 10.1016/j.scr.2016.10.009</identifier><identifier>PMID: 27833043</identifier><language>eng</language><publisher>England: Elsevier B.V</publisher><subject>Animals ; Cellular Reprogramming - physiology ; Disease Models, Animal ; Female ; Gallbladder ; Gallbladder - cytology ; Gallbladder - metabolism ; Gene Expression Profiling ; Humans ; Insulin ; Insulin - biosynthesis ; Insulin - metabolism ; Insulin Secretion ; Insulin-Secreting Cells - cytology ; Insulin-Secreting Cells - metabolism ; Male ; Mice ; Mice, Inbred NOD ; Pancreatic beta cells ; Reprogramming ; Type 1 diabetes</subject><ispartof>Stem cell research, 2016-11, Vol.17 (3), p.587-596</ispartof><rights>2016 Michael Boutros, German Cancer Research Center, Heidelberg, Germany</rights><rights>Copyright © 2016 Michael Boutros, German Cancer Research Center, Heidelberg, Germany. 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Reprogramming of cells originating from the endodermal lineage, such as acinar cells in the pancreas, liver cells and gallbladder cells has been of particular interest because of their developmental proximity to β cells. Our previous work showed that mouse gallbladder epithelium can be partially reprogrammed in vitro to generate islet-like cells (rGBC1). Here, the reprogramming protocol was substantially improved, yielding cells (rGBC2) closer to functional β cells than the 1st generation method with higher conversion efficiency and insulin expression. In addition to insulin synthesis and processing, rGBC2 presented many hallmark features of β cells, including insulin secretion in response to high glucose stimulation. Gene expression analysis indicated that rGBC2 clustered closer with β cells and had a metabolic gene expression profile resembling neonatal β cells. When transplanted into immune-deficient animals, rGBC2 were stable for at least 5months and further matured in vivo. 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subjects Animals
Cellular Reprogramming - physiology
Disease Models, Animal
Female
Gallbladder
Gallbladder - cytology
Gallbladder - metabolism
Gene Expression Profiling
Humans
Insulin
Insulin - biosynthesis
Insulin - metabolism
Insulin Secretion
Insulin-Secreting Cells - cytology
Insulin-Secreting Cells - metabolism
Male
Mice
Mice, Inbred NOD
Pancreatic beta cells
Reprogramming
Type 1 diabetes
title Efficient generation of pancreatic β-like cells from the mouse gallbladder
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