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Juntendo University and Keio University: T Cells Provide a Non-Invasive Solution for Neurological Research
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Juntendo University and Keio University: T Cells Provide a Non-Invasive Solution for Neurological Research

Juntendo University and Keio University: T Cells Provide a Non-Invasive Solution for Neurological Research
News

Juntendo University and Keio University: T Cells Provide a Non-Invasive Solution for Neurological Research

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Researchers have reported that neural stem cells derived from readily available T cell-derived iPSCs provide a neurological disease model when cultured in a novel protocol developed by them. The findings are important for the treatment of Parkinson’s disease and are published in Stem Cell Reports, March 2016.

Neurological disease research, such as on Parkinson’s disease, relies on animal models and immortalized neural cell lines because the central nervous system of patients is not accessible for invasive examination. Cultured neural stem cells could provide an alternative that is closer to the biology of the patient in question. However, due to the epigenetic memories of iPSCs, efficient preparation of neural stem cells requires human induced pluripotent stem cells (iPSCs) usually derived from skin fibroblasts harvested from patient skin biopsies, which can lead to bleeding, scarring and infection. Now researchers from a collaboration of universities and institutions in Japan have demonstrated the potential efficacy of a less invasive alternative.

“T cells can be obtained non-invasively, are easily stored and efficiently reprogrammed, and might therefore be an ideal source of patient-specific iPSCs,” explain Juntendo University’s Wado Akamatsu and Keio University’s Hideyuki Okano, and colleagues in their latest report. However the snag is that the source of stem cells seems to affect what cells they are likely to differentiate into. T cells are a type of lymphocyte or white blood cell and the researchers obtained very few neural cells from T cell-derived iPSCs cultured in standard embryoid bodies compared with the usual fibroblast-derived iPSCs.

To encourage differentiation into neural cells, the researchers tried converting the iPSCs directly into neural stem cells as neurospheres – culture systems of free-floating neural cells - instead of embryoid bodies that contain cells of other germ layers. By using this protocol, T cell-derived iPSCs efficiently differentiated into neural cells as well as fibroblast-derived iPSCs. Neurospheres generated from T cell-derived iPSCs were differentiated into neurons and various neuronal subtypes in similar quantities to those from fibroblast-derived iPSCs.

Furthermore, the researchers confirmed that iPSCs derived from the T cells of patients suffering from juvenile Parkinson’s disease (PARK2) exhibited impaired mitochondrial phenotypes that the team had previously reported using the fibroblast-derived iPSCs derived from this patient.

“These results strongly support that the hiPSCs derived from T-cells can be used as a model of neurological disease by using our differentiation protocol,” state Wado Akamatsu and Hideyuki Okano and colleagues in their latest report.

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