Macroencapsulated Human iPSC-Derived Pancreatic Progenitors Protect against STZ-Induced Hyperglycemia in Mice

Corinne Haller(Nestlé (Switzerland)), Julie Piccand(Nestlé (Switzerland)), Filippo De Franceschi(Nestlé (Switzerland)), Yuki Ohi(ViaCyte (United States)), Anindita Bhoumik(ViaCyte (United States)), Christophe Boss(Nestlé (Switzerland)), Umberto De Marchi(Nestlé (Switzerland)), Guillaume Jacot(Nestlé (Switzerland)), Sylviane Métairon(Nestlé (Switzerland)), Patrick Descombes(Nestlé (Switzerland)), Andreas Wiederkehr(Nestlé (Switzerland)), Alessio Palini(Nestlé (Switzerland)), Nicolas Bouché(Nestlé (Switzerland)), Pascal Steiner(Nestlé (Switzerland)), Olivia Kelly(ViaCyte (United States)), Marine R.-C. Kraus(Nestlé (Switzerland))
Stem Cell Reports
March 7, 2019
Cited by 40Open Access
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Abstract

In type 1 diabetes, a renewable source of human pancreatic β cells, in particular from human induced pluripotent stem cell (hiPSC) origin, would greatly benefit cell therapy. Earlier work showed that pancreatic progenitors differentiated from human embryonic stem cells in vitro can further mature to become glucose responsive following macroencapsulation and transplantation in mice. Here we took a similar approach optimizing the generation of pancreatic progenitors from hiPSCs. This work demonstrates that hiPSCs differentiated to pancreatic endoderm in vitro can be efficiently and robustly generated under large-scale conditions. The hiPSC-derived pancreatic endoderm cells (HiPECs) can further differentiate into glucose-responsive islet-like cells following macroencapsulation and in vivo implantation. The HiPECs can protect mice from streptozotocin-induced hyperglycemia and maintain normal glucose homeostasis and equilibrated plasma glucose concentrations at levels similar to the human set point. These results further validate the potential use of hiPSC-derived islet cells for application in clinical settings.


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