Transfer to the clinic: refining forward programming of hPSCs to megakaryocytes for platelet production in bioreactors

The production of in vitro–derived platelets has great potential for transfusion medicine. Here, we build on our experience in the forward programming (FoP) of human pluripotent stem cells (hPSCs) to megakaryocytes (MKs) and address several aspects of the complex challenges to bring this technology...

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Veröffentlicht in:Blood advances 2021-04, Vol.5 (7), p.1977-1990
Hauptverfasser: Evans, Amanda L., Dalby, Amanda, Foster, Holly R., Howard, Daniel, Waller, Amie K., Taimoor, Momal, Lawrence, Moyra, Mookerjee, Souradip, Lehmann, Marcus, Burton, Annie, Valdez, Jorge, Thon, Jonathan, Italiano, Joseph, Moreau, Thomas, Ghevaert, Cedric
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container_end_page 1990
container_issue 7
container_start_page 1977
container_title Blood advances
container_volume 5
creator Evans, Amanda L.
Dalby, Amanda
Foster, Holly R.
Howard, Daniel
Waller, Amie K.
Taimoor, Momal
Lawrence, Moyra
Mookerjee, Souradip
Lehmann, Marcus
Burton, Annie
Valdez, Jorge
Thon, Jonathan
Italiano, Joseph
Moreau, Thomas
Ghevaert, Cedric
description The production of in vitro–derived platelets has great potential for transfusion medicine. Here, we build on our experience in the forward programming (FoP) of human pluripotent stem cells (hPSCs) to megakaryocytes (MKs) and address several aspects of the complex challenges to bring this technology to the bedside. We first identify clinical-grade hPSC lines that generate MKs efficiently. We design a bespoke media to maximize both production and maturity of MKs and improve platelet output. Crucially, we transition the lentiviral-based FoP of hPSCs to a nonviral inducible system. We also show how small molecules promote a definitive hematopoiesis phenotype during the differentiation process, thereby increasing the quality of the final product. Finally, we generate platelets using a bioreactor designed to reproduce the physical cues that promote platelet production in the bone marrow. We show that these platelets are able to contribute to both thrombus formation in vitro and have a hemostatic effect in thrombocytopenic mice in vivo. •New horizons for the blood service: biosafe and customized platelets from pluripotent stem cells.•Progress of good manufacturing practice in platelets for transfusion: addressing product safety, cost, function, and challenges remaining. [Display omitted]
doi_str_mv 10.1182/bloodadvances.2020003236
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Here, we build on our experience in the forward programming (FoP) of human pluripotent stem cells (hPSCs) to megakaryocytes (MKs) and address several aspects of the complex challenges to bring this technology to the bedside. We first identify clinical-grade hPSC lines that generate MKs efficiently. We design a bespoke media to maximize both production and maturity of MKs and improve platelet output. Crucially, we transition the lentiviral-based FoP of hPSCs to a nonviral inducible system. We also show how small molecules promote a definitive hematopoiesis phenotype during the differentiation process, thereby increasing the quality of the final product. Finally, we generate platelets using a bioreactor designed to reproduce the physical cues that promote platelet production in the bone marrow. We show that these platelets are able to contribute to both thrombus formation in vitro and have a hemostatic effect in thrombocytopenic mice in vivo. •New horizons for the blood service: biosafe and customized platelets from pluripotent stem cells.•Progress of good manufacturing practice in platelets for transfusion: addressing product safety, cost, function, and challenges remaining. 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We show that these platelets are able to contribute to both thrombus formation in vitro and have a hemostatic effect in thrombocytopenic mice in vivo. •New horizons for the blood service: biosafe and customized platelets from pluripotent stem cells.•Progress of good manufacturing practice in platelets for transfusion: addressing product safety, cost, function, and challenges remaining. 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subjects Animals
Bioreactors
Blood Platelets
Hematopoiesis and Stem Cells
Megakaryocytes
Mice
Pluripotent Stem Cells
Thrombopoiesis
title Transfer to the clinic: refining forward programming of hPSCs to megakaryocytes for platelet production in bioreactors
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