- Next-Generation Sparger Technology Sets New Standards for Cell Culture Performance in Single-Use Systems
Product News: Next-Generation Sparger Technology Sets New Standards for Cell Culture Performance in Single-Use SystemsNext-generation sparger technology sets new standards for cell culture performance in Thermo Scientific HyPerforma Single-Use Bioreactor BioProcess Container systems. Cell growth is dependent on the availability of the right amount of oxygen in the bioprocess. Sparging controls the air and gas flow to create the optimal environment for cell growth.
The new sparger design in Thermo Scientific HyPerforma Single-Use Bioreactor (S.U.B.) BioProcess Container systems is engineered to produce a consistent bubble size for predictable scale up and performance from the Thermo Scientific 50L to the 2000L S.U.B. The new dual sparger design consists of a micro- and macro-sparger integrated into the standard Thermo Scientific S.U.B. BioProcess Container systems.
“This new micro- and macro-sparge configuration is gentle on cell cultures at high gas flow rates, provides sufficient O2 delivery and dramatically increases CO2 stripping capacity,” said Millie Ullah, senior product manager for single-use systems at Thermo Fisher Scientific. “This next-generation design sets a new standard of performance, flexibility, and ease of use during scale-up for all cell culture applications.”
Thermo Fisher showcased its new HyCell TransFx media this week at the BioProcess International Conference and Exhibition, September 17-19, 2013, Hynes Convention Center, Booth # 611.
The micro-sparger incorporates a porous frit design that produces small bubble sizes in the range of 20-40m, creating a higher surface area and better oxygen transfer. The new macro-sparger, known as the Drilled Hole Sparger (DHS), is a film-based sparge disc with laser drilled pores that have a specific size and quantity tailored for each S.U.B. volume. The larger air bubbles of the DHS support the micro-sparge with oxygen transfer and improve the removal of CO2.