| Literature DB >> 29212014 |
Takanori Takebe1, Keisuke Sekine2, Masaki Kimura2, Emi Yoshizawa2, Satoru Ayano3, Masaru Koido2, Shizuka Funayama2, Noriko Nakanishi2, Tomoko Hisai2, Tatsuya Kobayashi2, Toshiharu Kasai2, Rina Kitada2, Akira Mori2, Hiroaki Ayabe2, Yoko Ejiri3, Naoki Amimoto4, Yosuke Yamazaki4, Shimpei Ogawa5, Momotaro Ishikawa6, Yasujiro Kiyota6, Yasuhiko Sato7, Kohei Nozawa8, Satoshi Okamoto2, Yasuharu Ueno2, Hideki Taniguchi9.
Abstract
Organoid technology provides a revolutionary paradigm toward therapy but has yet to be applied in humans, mainly because of reproducibility and scalability challenges. Here, we overcome these limitations by evolving a scalable organ bud production platform entirely from human induced pluripotent stem cells (iPSC). By conducting massive "reverse" screen experiments, we identified three progenitor populations that can effectively generate liver buds in a highly reproducible manner: hepatic endoderm, endothelium, and septum mesenchyme. Furthermore, we achieved human scalability by developing an omni-well-array culture platform for mass producing homogeneous and miniaturized liver buds on a clinically relevant large scale (>108). Vascularized and functional liver tissues generated entirely from iPSCs significantly improved subsequent hepatic functionalization potentiated by stage-matched developmental progenitor interactions, enabling functional rescue against acute liver failure via transplantation. Overall, our study provides a stringent manufacturing platform for multicellular organoid supply, thus facilitating clinical and pharmaceutical applications especially for the treatment of liver diseases through multi-industrial collaborations.Entities:
Keywords: clinical grade; endothelial; iPSC; liver bud; liver failure; mesenchymal; organoid; self-organization; transplantation
Mesh:
Year: 2017 PMID: 29212014 DOI: 10.1016/j.celrep.2017.11.005
Source DB: PubMed Journal: Cell Rep Impact factor: 9.423