TY - JOUR
T1 - Stem-cell therapy for diabetes mellitus
AU - Hussain, Mehboob A.
AU - Theise, Neil D.
N1 - Copyright:
Copyright 2021 Elsevier B.V., All rights reserved.
PY - 2004/7/10
Y1 - 2004/7/10
N2 - Context Curative therapy for diabetes mellitus mainly implies replacement of functional insulin-producing pancreatic β cells, with pancreas or islet-cell transplants. However, shortage of donor organs spurs research into alternative means of generating β cells from islet expansion, encapsulated islet xenografts, human islet cell-lines, and stem cells. Stem-cell therapy here implies the replacement of diseased or lost cells from progeny of pluripotent or multipotent cells. Both embryonic stem cells (derived from the inner cell mass of a blastocyst) and adult stem cells (found in the postnatal organism) have been used to generate surrogate β cells or otherwise restore β-cell functioning. Starting point Recently, Andreas Lechner and colleagues failed to see transdifferentiation into pancreatic β cells after transplantation of bone-marrow cells into mice (Diabetes 2004; 53: 616-23). Last year, Jayaraj Rajagopal and colleagues failed to derive β cells from embryonic stem cells (Science 2003; 299: 363). However, others have seen such effects. Where next? As in every emerging field in biology, early reports seem confusing and conflicting. Embryonic and adult stem cells are potential sources for β-cell replacement and merit further scientific investigation. Discrepancies between different results need to be reconciled. Fundamental processes in determining the differentiation pathways of stem cells remain to be elucidated, so that rigorous and reliable differentiation protocols can be established. Encouraging studies in rodent models may ultimately set the stage for large-animal studies and translational investigation.
AB - Context Curative therapy for diabetes mellitus mainly implies replacement of functional insulin-producing pancreatic β cells, with pancreas or islet-cell transplants. However, shortage of donor organs spurs research into alternative means of generating β cells from islet expansion, encapsulated islet xenografts, human islet cell-lines, and stem cells. Stem-cell therapy here implies the replacement of diseased or lost cells from progeny of pluripotent or multipotent cells. Both embryonic stem cells (derived from the inner cell mass of a blastocyst) and adult stem cells (found in the postnatal organism) have been used to generate surrogate β cells or otherwise restore β-cell functioning. Starting point Recently, Andreas Lechner and colleagues failed to see transdifferentiation into pancreatic β cells after transplantation of bone-marrow cells into mice (Diabetes 2004; 53: 616-23). Last year, Jayaraj Rajagopal and colleagues failed to derive β cells from embryonic stem cells (Science 2003; 299: 363). However, others have seen such effects. Where next? As in every emerging field in biology, early reports seem confusing and conflicting. Embryonic and adult stem cells are potential sources for β-cell replacement and merit further scientific investigation. Discrepancies between different results need to be reconciled. Fundamental processes in determining the differentiation pathways of stem cells remain to be elucidated, so that rigorous and reliable differentiation protocols can be established. Encouraging studies in rodent models may ultimately set the stage for large-animal studies and translational investigation.
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U2 - 10.1016/S0140-6736(04)16635-X
DO - 10.1016/S0140-6736(04)16635-X
M3 - Short survey
C2 - 15246735
AN - SCOPUS:3042758642
SN - 0140-6736
VL - 364
SP - 203
EP - 205
JO - Lancet
JF - Lancet
IS - 9429
ER -