Review Article

Patient-Specific Pluripotent Stem Cells in Neurological Diseases

Table 2

iPSC-based cell-replacement therapy in preclinical animal models of neurological diseases.

DiseaseSpeciesModelTransplanted cellsDelivery routeOutcomeReference

PDRat6-OHDAmbDA PGCs derived from hiPSCsTransplantationLong-term survival
Differentiation to DA neurons
Tumor-like cells at the site of graft
Cai et al. [108]
Rat6-OHDAPD patient iPSC- derived DA neuronsTransplantationImproved motor behaviorHargus et al. [109]
Rat6-OHDAiPSC-derived DA neuronsTransplantationImproved motor behaviorWernig et al. [110]
Rat6-OHDAiPSC-derived DA neuronsTransplantationImproved motor behaviorSwistowski et al. [19]
StrokeRatMCAOiPSCs + FGDirect injection to infarct area/subduralDecreased infarct size
Improved motor performance
Decreased inflammatory cytokines
Chen et al. [111]
MouseMCAOMouse iPSCsTransplantationTridermal tumorigenesisKawai et al. [112]
MouseMCAOMouse iPSCsTransplantationIncreased teratoma risk and volume
Increased MMP9 and pVEGFR2
Yamashita et al. [113]
SCIMouseContusion modeliPSC-derived neurospheresTransplantation (contusion area)Remyelination and functional recoveryTsuji et al. [114]

6-hydroxydopamine (6-OHDA), dopaminergic (DA), fibrin glue (FG), induced-pluripotent stem cell (iPSC), matrix metalloproteinase-9 (MMP9), midbrain (mb), middle cerebral artery occlusion (MCAO), Parkinson’s disease (PD), phosphorylated vascular endothelial growth factor receptor2 (pVEGFR2), progenitor cell (PGC), and spinal cord injury (SCI).