Application |
Applied in cell based therapy in diabetes mellitus |
[42] |
Disease modeling of diabetes mellitus |
[43] |
Transplantation in diabetic patient |
[88,90] |
Pathogenesis of disease genotype and phenotype |
[43] |
Drug screening for treatment of diabetes mellitus |
[42,43] |
Autologous cell replacement therapies in case of T2DM |
[43,45] |
Positive Points |
Can overcome immune rejection |
[14,15,16,17,18,19] |
Overcome barrier of immune rejection |
[42,43,45] |
Clinically safe |
[14,15,16,42] |
Identify genome aberration |
[103,104] |
Ideal source for transplantation therapy |
[111] |
Gradually engrafted in transplantation |
[83,88,89] |
Stably engrafted in transplantation |
[88,89] |
Secrete insulin upon glucose stimulation |
[83] |
Secrete insulin according to the physiological and pathological condition |
[83] |
Negative Points |
Generate complex cell population |
[114] |
Relatively low differentiation efficiency and high cost |
[114] |
Lack of monitoring the safety and the long term efficacy |
[115] |
Immature phenotypes of derived islets |
[38] |
Lack of understanding the signaling pathways that direct β cell maturation in vivo
|
[82,114] |
Deficiency in monitoring the safety and the long term efficacy |
[115] |
Teratoma formation |
[38] |
Sustained autoimmunity in T1D (not in T2D) can reject iPSC-derived islets |
[114,116] |