Therapeutic extracellular vesicle production is substantially increased by inhibition of cellular cholesterol biosynthesis
Extracellular vesicles (EVs) are a new therapeutic modality with the promise to treat many diseases through their ability to deliver diverse molecular cargo. As with other emerging modalities transitioning into the industrialization phase, all aspects of the manufacturing process are rich with oppor...
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Veröffentlicht in: | Biotechnology and bioengineering 2023-09, Vol.120 (9), p.2685-2699 |
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container_title | Biotechnology and bioengineering |
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creator | Martin, Shelly McConnell, Russell Harrison, Rane Jang, Su Chul Sia, Chang Ling Kamerkar, Sushrut Duboff, Anna Jacob, Lisa Finn, Jonathan Estes, Scott |
description | Extracellular vesicles (EVs) are a new therapeutic modality with the promise to treat many diseases through their ability to deliver diverse molecular cargo. As with other emerging modalities transitioning into the industrialization phase, all aspects of the manufacturing process are rich with opportunities to enhance the ability to deliver these medicines to patients. With the goal of improving cell culture EV productivity, we have utilized high throughput siRNA screens to identify the underlying genetic pathways that regulate EV productivity to inform rational host cell line engineering and media development approaches. The screens identified multiple metabolic pathways of potential interest; one of which was validated and shown to be a ready implementable, cost‐effective strategy to increase EV titers. We show that both EV volumetric and specific productivity from HEK293 and CHO‐S were increased in a dose and cell line‐dependent manner up to ninefold when cholesterol synthesis was inhibited by the inclusion of statins in the cell culture media. In addition, we show in response to statin treatment, elevation of EV markers in mesenchymal stem cell (MSC) cell culture media suggesting this approach can also be applicable to MSC EVs. Furthermore, we show that the EVs produced from statin‐treated HEK293 cultures are effectively loaded by both endogenous and exogenous loading methods and have equivalent in vitro or in vivo potency relative to EVs from untreated cultures. |
doi_str_mv | 10.1002/bit.28401 |
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As with other emerging modalities transitioning into the industrialization phase, all aspects of the manufacturing process are rich with opportunities to enhance the ability to deliver these medicines to patients. With the goal of improving cell culture EV productivity, we have utilized high throughput siRNA screens to identify the underlying genetic pathways that regulate EV productivity to inform rational host cell line engineering and media development approaches. The screens identified multiple metabolic pathways of potential interest; one of which was validated and shown to be a ready implementable, cost‐effective strategy to increase EV titers. We show that both EV volumetric and specific productivity from HEK293 and CHO‐S were increased in a dose and cell line‐dependent manner up to ninefold when cholesterol synthesis was inhibited by the inclusion of statins in the cell culture media. In addition, we show in response to statin treatment, elevation of EV markers in mesenchymal stem cell (MSC) cell culture media suggesting this approach can also be applicable to MSC EVs. 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subjects | Biosynthesis Cell culture Cholesterol Culture media extracellular vesicles Genetic screening In vivo methods and tests Manufacturing industry Mesenchymal stem cells Metabolic pathways Productivity siRNA Statins Stem cells |
title | Therapeutic extracellular vesicle production is substantially increased by inhibition of cellular cholesterol biosynthesis |
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