4.7 Article

FOXO3-Engineered Human ESC-Derived Vascular Cells Promote Vascular Protection and Regeneration

Journal

CELL STEM CELL
Volume 24, Issue 3, Pages 447-+

Publisher

CELL PRESS
DOI: 10.1016/j.stem.2018.12.002

Keywords

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Funding

  1. National Key Research and Development Program of China [2015CB964800, 2018YFA0107203, 2017YFA0103304, 2017YFA0102802, 2014CB910503, 2018YFC2000100]
  2. Strategic Priority Research Program of the Chinese Academy of Sciences [XDA16010100]
  3. National Natural Science Foundation of China, China [81422017, 81625009, 81330008, 91749202, 91749123, 31671429, 81671377, 81771515, 31601109, 31601158, 81701388, 81601233, 81471414, 81870228, 81822018, 81801399, 31801010, 81801370, 81861168034]
  4. Program of Beijing Municipal Science and Technology Commission [Z151100003915072]
  5. Key Research Program of the Chinese Academy of Sciences [KJZDEWTZ-L05]
  6. Beijing Municipal Commission of Health and Family Planning [PXM2018_026283_000002]
  7. Advanced Innovation Center for Human Brain Protection [117212]
  8. State Key Laboratory of Membrane Biology, China
  9. Takeda Science Foundation, Japan
  10. G. Harold and Leila Y. Mathers Charitable Foundation, United States
  11. Moxie Foundation
  12. Glenn Foundation

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FOXO3 is an evolutionarily conserved transcription factor that has been linked to longevity. Here we wanted to find out whether human vascular cells could be functionally enhanced by engineering them to express an activated form of FOXO3. This was accomplished via genome editing at two nucleotides in human embryonic stem cells, followed by differentiation into a range of vascular cell types. FOXO3-activated vascular cells exhibited delayed aging and increased resistance to oxidative injury compared with wild-type cells. When tested in a therapeutic context, FOXO3-enhanced vascular cells promoted vascular regeneration in a mouse model of ischemic injury and were resistant to tumorigenic transformation both in vitro and in vivo. Mechanistically, constitutively active FOXO3 conferred cytoprotection by transcriptionally downregulating CSRP1. Taken together, our findings provide mechanistic insights into FOXO3-mediated vascular protection and indicate that FOXO3 activation may provide a means for generating more effective and safe biomaterials for cell replacement therapies.

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