Manufacturing, Cell Culture and Fermentation

The authors present scale-up from a 5-L fermentor to a 50-L pilot-scale using the criterion of constant power consumption per unit liquid volume.

The authors describe challenges faced in transfer and scale-up of a fermentation process.

An overview of applications in the analysis of nutrients and metabolites.

A hollow fiber matrix allows for efficient harvest of secreted proteins.

The authors examine several issues that will help streamline negotiations between a service provider and a cell-culture medium consumer.

The authors present lessons learned from a case study of the transfer of a cell culture biotherapeutic process to a CMO.

Rolling-tube system balances scale-up accuracy and thoroughput.

Computational fluid dynamics can resolve performance problems.

Computational fluid dynamics is a powerful tool to optimize processes.

How to reduce plasmid-mediated metabolic burden for higher yields.

Automated in-line dilution can help solve capacity, financial, and quality concerns that biopharmaceutical manufacturing plants may be facing.

To select the right partner for media design and optimization services, several key factors must be considered.

Through metabolomics, the metabolic underpinnings of cellular changes can be rapidly pinpointed, directing process development scientists to key areas for cell culture optimization.

ACF medium sped up cell-line development.

Are disposable bioreactors effective for cell culture?

Using chemically defined feeds with CHO cell lines not only eliminates the variability associated with using plant hydrolysates, but could also improve the productivity of biopharmaceutical protein manufacture and help move therapeutic proteins into clinical trials more rapidly.

Process-modeling tools can ensure smooth tech transfer.

A simple method to leverage fermentation heat transfer data.