| Literature DB >> 31677955 |
Takafumi Hiramoto1, Maino Tahara2, Jiyuan Liao3, Yasushi Soda3, Yoshie Miura3, Ryo Kurita4, Hiroshi Hamana5, Kota Inoue6, Hiroshi Kohara3, Shohei Miyamoto3, Yasuki Hijikata3, Shinji Okano7, Yoshiyuki Yamaguchi8, Yoshinao Oda6, Kenji Ichiyanagi9, Hidehiro Toh10, Hiroyuki Sasaki10, Hiroyuki Kishi5, Akihide Ryo11, Atsushi Muraguchi5, Makoto Takeda12, Kenzaburo Tani13.
Abstract
Recent advances in gene therapy technologies have enabled the treatment of congenital disorders and cancers and facilitated the development of innovative methods, including induced pluripotent stem cell (iPSC) production and genome editing. We recently developed a novel non-transmissible and non-integrating measles virus (MV) vector capable of transferring multiple genes simultaneously into a wide range of cells through the CD46 and CD150 receptors. The MV vector expresses four genes for iPSC generation and the GFP gene for a period of time sufficient to establish iPSCs from human fibroblasts as well as peripheral blood T cells. The transgenes were expressed differentially depending on their gene order in the vector. Human hematopoietic stem/progenitor cells were directly and efficiently reprogrammed to naive-like cells that could proliferate and differentiate into primed iPSCs by the same method used to establish primed iPSCs from other cell types. The novel MV vector has several advantages for establishing iPSCs and potential future applications in gene therapy.Entities:
Keywords: RNA virus; hematopoietic stem cell; iPSC; measles virus; naïve; non-integrating; non-transmissible; segmented RNA genome; vector; viral gene transfer vector
Year: 2019 PMID: 31677955 PMCID: PMC6952176 DOI: 10.1016/j.ymthe.2019.09.007
Source DB: PubMed Journal: Mol Ther ISSN: 1525-0016 Impact factor: 11.454