TY - JOUR
T1 - Emerging diabetes therapies
T2 - Bringing back the β-cells
AU - Basile, G.
AU - Qadir, M. M.F.
AU - Mauvais-Jarvis, F.
AU - Vetere, A.
AU - Shoba, V.
AU - Modell, A. E.
AU - Pastori, R. L.
AU - Russ, H. A.
AU - Wagner, B. K.
AU - Dominguez-Bendala, J.
N1 - Funding Information:
This work was written using resources and/or funding provided by the NIDDK -supported Human Islet Research Network (HIRN , https://hirnetwork.org ), including a HIRN New Investigator Award to H.A.R., U01DK123717 to BKW, and U01DK120393 to J. D-B and R.P. G.B. is supported by JDRF grant 3-PDF-2020-935-A-N . J. D-B and R.P. are supported by NIH grants 1R01DK130846-01 and 1U01DK120393-01 , as well as by the Diabetes Research Institute Foundation . FMJ is supported by NIH grants DK074970 and DK107444 , a Department of Veterans Affairs Merit Review Award ( BX003725 ), and the Tulane Center of Excellence in Sex-Based Biology & Medicine . H.A.R. is supported by the NIH ( DK120444 , AI140044 , and P30-DK116073 ), a New Investigator Award from the NIDDK - supported Human Islets Research Network (HIRN , RRID:SCR_014393 ; UC24 DK1041162 ), a Culshaw Junior Investigator Award in Diabetes, the Juvenile Diabetes Research Foundation (JDRF 2-SRA-2019-781-S-B ), and the Children’s Diabetes Foundation . B.K.W. is supported by the NIH ( U01DK123717 , R01-DK129464 , UM1-DK126185 ) and the JDRF ( 1-SRA-2021-1077-S-B ).
Funding Information:
This work was written using resources and/or funding provided by the NIDDK-supported Human Islet Research Network (HIRN, https://hirnetwork.org), including a HIRN New Investigator Award to H.A.R., U01DK123717 to BKW, and U01DK120393 to J. D-B and R.P. G.B. is supported by JDRF grant 3-PDF-2020-935-A-N. J. D-B and R.P. are supported by NIH grants 1R01DK130846-01 and 1U01DK120393-01, as well as by the Diabetes Research Institute Foundation. FMJ is supported by NIH grants DK074970 and DK107444, a Department of Veterans Affairs Merit Review Award (BX003725), and the Tulane Center of Excellence in Sex-Based Biology & Medicine. H.A.R. is supported by the NIH (DK120444, AI140044, and P30-DK116073), a New Investigator Award from the NIDDK- supported Human Islets Research Network (HIRN, RRID:SCR_014393; UC24 DK1041162), a Culshaw Junior Investigator Award in Diabetes, the Juvenile Diabetes Research Foundation (JDRF 2-SRA-2019-781-S-B), and the Children's Diabetes Foundation. B.K.W. is supported by the NIH (U01DK123717, R01-DK129464, UM1-DK126185) and the JDRF (1-SRA-2021-1077-S-B).
Publisher Copyright:
© 2022
PY - 2022/6
Y1 - 2022/6
N2 - Background: Stem cell therapies are finally coming of age as a viable alternative to pancreatic islet transplantation for the treatment of insulin-dependent diabetes. Several clinical trials using human embryonic stem cell (hESC)-derived β-like cells are currently underway, with encouraging preliminary results. Remaining challenges notwithstanding, these strategies are widely expected to reduce our reliance on human isolated islets for transplantation procedures, making cell therapies available to millions of diabetic patients. At the same time, advances in our understanding of pancreatic cell plasticity and the molecular mechanisms behind β-cell replication and regeneration have spawned a multitude of translational efforts aimed at inducing β-cell replenishment in situ through pharmacological means, thus circumventing the need for transplantation. Scope of Review: We discuss here the current state of the art in hESC transplantation, as well as the parallel quest to discover agents capable of either preserving the residual mass of β-cells or inducing their proliferation, transdifferentiation or differentiation from progenitor cells. Major Conclusions: Stem cell-based replacement therapies in the mold of islet transplantation are already around the corner, but a permanent cure for type 1 diabetes will likely require the endogenous regeneration of β-cells aided by interventions to restore the immune balance. The promise of current research avenues and a strong pipeline of clinical trials designed to tackle these challenges bode well for the realization of this goal.
AB - Background: Stem cell therapies are finally coming of age as a viable alternative to pancreatic islet transplantation for the treatment of insulin-dependent diabetes. Several clinical trials using human embryonic stem cell (hESC)-derived β-like cells are currently underway, with encouraging preliminary results. Remaining challenges notwithstanding, these strategies are widely expected to reduce our reliance on human isolated islets for transplantation procedures, making cell therapies available to millions of diabetic patients. At the same time, advances in our understanding of pancreatic cell plasticity and the molecular mechanisms behind β-cell replication and regeneration have spawned a multitude of translational efforts aimed at inducing β-cell replenishment in situ through pharmacological means, thus circumventing the need for transplantation. Scope of Review: We discuss here the current state of the art in hESC transplantation, as well as the parallel quest to discover agents capable of either preserving the residual mass of β-cells or inducing their proliferation, transdifferentiation or differentiation from progenitor cells. Major Conclusions: Stem cell-based replacement therapies in the mold of islet transplantation are already around the corner, but a permanent cure for type 1 diabetes will likely require the endogenous regeneration of β-cells aided by interventions to restore the immune balance. The promise of current research avenues and a strong pipeline of clinical trials designed to tackle these challenges bode well for the realization of this goal.
KW - Beta cell proliferation
KW - Human embryonic stem cell transplantation
KW - Islet regeneration
KW - Pancreatic progenitor cells
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U2 - 10.1016/j.molmet.2022.101477
DO - 10.1016/j.molmet.2022.101477
M3 - Review article
C2 - 35331962
AN - SCOPUS:85127485610
VL - 60
JO - Molecular Metabolism
JF - Molecular Metabolism
SN - 2212-8778
M1 - 101477
ER -