Implementing scale dependencies into computational bioreactor models to facilitate predictions of protein glycosylation in different environments
This project will deliver an interoperable simulation platform integrating spatially resolved CFD flow fields, cell kinetics, and mechanistic models of intracellular glycosylation.
Categories
Drug substance
Process control
Data
Industry Need
Although significant progress has been made in modeling glycosylation at small scales, scaling up to production bioreactors introduces complex gradients in nutrients, oxygen, pH, and metabolite concentrations that affect cellular performance, ultimately impacting product properties including glycosylation. This project addresses a critical need in upstream bioprocess modeling: predicting the impact of hydrodynamic heterogeneity on glycosylation outcomes during CHO based protein production for different scales and bioreactor configurations.
Approach
This proposal brings together researchers in mammalian hydrodynamics (Jeffrey Chalmers, Ohio State) and systems biology of glycosylation (Michael Betenbaugh, Johns Hopkins) to deliver an interoperable simulation platform integrating spatially resolved CFD flow fields, cell kinetics, and mechanistic models of intracellular glycosylation.
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