Development of spirulina for the manufacture and oral delivery of protein therapeutics
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Published:2022-03-21
Issue:6
Volume:40
Page:956-964
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ISSN:1087-0156
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Container-title:Nature Biotechnology
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language:en
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Short-container-title:Nat Biotechnol
Author:
Jester Benjamin W.ORCID, Zhao Hui, Gewe Mesfin, Adame Thomas, Perruzza Lisa, Bolick David T., Agosti JanORCID, Khuong Nhi, Kuestner Rolf, Gamble Caitlin, Cruickshank Kendra, Ferrara Jeremy, Lim Rachelle, Paddock Troy, Brady Colin, Ertel Stacey, Zhang Miaohua, Pollock Alex, Lee Jamie, Xiong Jian, Tasch Michael, Saveria Tracy, Doughty David, Marshall Jacob, Carrieri DamianORCID, Goetsch LaurenORCID, Dang Jason, Sanjaya Nathaniel, Fletcher David, Martinez Anissa, Kadis Bryce, Sigmar KristjanORCID, Afreen Esha, Nguyen Tammy, Randolph Amanda, Taber Alexandria, Krzeszowski Ashley, Robinett Brittney, Volkin David B., Grassi FabioORCID, Guerrant Richard, Takeuchi Ryo, Finrow BrianORCID, Behnke CraigORCID, Roberts JamesORCID
Abstract
AbstractThe use of the edible photosynthetic cyanobacterium Arthrospira platensis (spirulina) as a biomanufacturing platform has been limited by a lack of genetic tools. Here we report genetic engineering methods for stable, high-level expression of bioactive proteins in spirulina, including large-scale, indoor cultivation and downstream processing methods. Following targeted integration of exogenous genes into the spirulina chromosome (chr), encoded protein biopharmaceuticals can represent as much as 15% of total biomass, require no purification before oral delivery and are stable without refrigeration and protected during gastric transit when encapsulated within dry spirulina. Oral delivery of a spirulina-expressed antibody targeting campylobacter—a major cause of infant mortality in the developing world—prevents disease in mice, and a phase 1 clinical trial demonstrated safety for human administration. Spirulina provides an advantageous system for the manufacture of orally delivered therapeutic proteins by combining the safety of a food-based production host with the accessible genetic manipulation and high productivity of microbial platforms.
Funder
Bill and Melinda Gates Foundation
Publisher
Springer Science and Business Media LLC
Subject
Biomedical Engineering,Molecular Medicine,Applied Microbiology and Biotechnology,Bioengineering,Biotechnology
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