Poster

Demonstrating Key Processes Of The T Cell Therapy Workflow In Chemically Defined Media

By Anastassia Tselikova, Shahram Shahabi, and Chandana Sharma, department of research and development, FUJIFILM Biosciences

GettyImages-2174865889 lab, research

Achieving sufficient cell numbers with high viability and consistent clinical quality is paramount for successful T cell immunotherapy generation. Moving away from undefined media components, like serum-derived proteins, is key to reducing variability and enabling a safer, more efficacious translation to clinical use. Chemically defined (CD) media offer a reliable path to consistent, reproducible scale-up, helping manufacturers transition smoothly from preclinical development to GMP manufacturing.

This data demonstrates how CD media and related reagents support key processes in the T cell therapy workflow. You’ll see that PRIME-XV T Cell CDM supports robust cell activation, lentiviral transduction, and scalable expansion of human peripheral blood mononuclear cell (PBMC)-derived T cells in both static (G-Rex) and dynamic (Quantum hollow fiber bioreactor) culture systems. Furthermore, the expanded T cells maintain robust functionality after antigenic stimulation. Finally, discover how PRIME-XV cryopreservation media supports effective DMSO-free cryopreservation and a simplified, wash-free thawing step, which streamlines the manufacturing process.

Learn how a compatible toolset of CD media, DMSO-free cryopreservation solution, and GMP recombinant proteins can powerfully support T cell therapy manufacturing processes.

Download the full poster to see the comparative data across the full workflow.

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