Journal: New biotechnology
Article Title: Clinically compatible advances in blood-derived endothelial progenitor cell isolation and reprogramming for translational applications.
doi: 10.1016/j.nbt.2021.02.001
Figure Lengend Snippet: Fig. 3. Reprogramming of human AB serum-derived EPC-iPSC using non- modified RNA. (A) Timeline for the reprogramming of human EPCs using the non-modified RNA. 1 × 105 EPCs were seeded onto iMatrix-511 in EPC-Reprogramming Medium containing 10 % human serum. On day 10, culture medium was transitioned to NutriStem hPSC XF Medium. (B) Primary reprogramming cul ture morphology progression, resulting from the reprogramming of EPCs with non-modified RNA on iMatrix-511 and EPC-Reprogramming medium contain ing human serum. Day 6, 8, 13 primary EPC-RNA-iPS cell colonies were iden tified using StainAlive TRA-1-60 antibody and are able to be isolated from the primary culture by Day 12−14. (C) EPC-RNA-iPSCs were expanded on iMatrix- 511 and stained for pluripotency associated genes at P6 by immunostaining. (D) In vitro differentiation of P8 EPC-RNA-iPSCs expanded on iMatrix-511 were differentiated into early endoderm (AFP in red), neuronal cells (nestin in red; b- tubulin in green) and cardiomyocytes (Troponin T in red), DAPI (blue). (E) Histological analysis of teratoma resulting from the injection of EPC-iPS cells (p13) into the kidney capsule of NOD-SCID mice. Images in (B) 100X magnification, images in (C-D) at 50X magnification and e 40X magnification.
Article Snippet: Transition from EPC culture medium (Cat. no. C-22111, Promocell, via VWR, Leicester, UK) to pluripotency medium (KSR, previously described in [17,18]) was attempted at days 3, 5, 7, 14 and 21.
Techniques: Derivative Assay, Modification, Isolation, Staining, Immunostaining, In Vitro, Injection