| Literature DB >> 33410159 |
Michael J Coolbaugh1, Chad T Varner1, Tarl A Vetter1,2, Emily K Davenport1,3, Brad Bouchard1,4, Marcus Fiadeiro1, Nihal Tugcu1, Jason Walther1, Rohan Patil1, Kevin Brower1.
Abstract
There has been increasing momentum recently in the biopharmaceutical industry to transition from traditional batch processes to next-generation integrated and continuous biomanufacturing. This transition from batch to continuous is expected to offer several advantages which, taken together, could significantly improve access to biologics drugs for patients. Despite this recent momentum, there has not been a commercial implementation of a continuous bioprocess reported in the literature. In this study, we describe a successful pilot-scale proof-of-concept demonstration of an end-to-end integrated and continuous bioprocess for the production of a monoclonal antibody (mAb). This process incorporated all of the key unit operations found in a typical mAb production process, including the final steps of virus removal filtration, ultrafiltration, diafiltration, and formulation. The end-to-end integrated process was operated for a total of 25 days and produced a total of 4.9 kg (200 g/day or 2 g/L BRX/day) of the drug substance from a 100-L perfusion bioreactor (BRX) with acceptable product quality and minimal operator intervention. This successful proof-of-concept demonstrates that end-to-end integrated continuous bioprocessing is achievable with current technologies and represents an important step toward the realization of a commercial integrated and continuous bioprocessing process.Entities:
Keywords: continuous UF/DF; continuous bioprocessing; continuous virus filtration; end-to-end; integrated continuous biomanufacturing
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Year: 2021 PMID: 33410159 DOI: 10.1002/bit.27670
Source DB: PubMed Journal: Biotechnol Bioeng ISSN: 0006-3592 Impact factor: 4.530