StemCultures today announced the launch of FGF2 DISC™ devices which consist of biodegradable StemBeads® loaded with recombinant human fibroblast growth factor 2 (FGF2) embedded in an inert non-biodegradable, biocompatible hydrogel device.
~ The DISC™ device releases FGF2 at a controlled rate, minimizing variations in concentration and providing stable FGF2 levels with improved control for higher quality cultures
~ Controlled levels of FGF2 reduce spontaneous differentiation, enhance pluripotency, and improve the differentiation efficiency of stem cell cultures
RENSSELAER, N.Y.--(BUSINESS WIRE)-- StemCultures, a life sciences company developing novel reagents that improve the quality and efficiency of cell growth and differentiation in culture, today announced the launch of FGF2 DISC™ devices which consist of biodegradable StemBeads® loaded with recombinant human fibroblast growth factor 2 (FGF2) embedded in an inert non-biodegradable, biocompatible hydrogel device.
Placed directly into the cell culture vessel, the new DISC™ devices enable precise control of the concentration of FGF2 throughout the duration of culture, creating a more physiologic environment that improves cell growth. StemBeads® contained within the DISC™ device release growth factor at a controlled rate, minimizing variations in concentration and reducing the resulting stress on cells. DISC™ devices do not degrade and can be easily added or removed from culture vessels.
The FGF2 DISC™ devices are particularly useful in stem cell and induced pluripotent stem cell (iPSC) cultures where they reduce spontaneous differentiation, enhance pluripotency, and guide preferential differentiation. FGF2 DISC™ devices are fully compatible with different types of stem cell media.
“The ability to produce large quantities of homogeneous cells for research or therapeutic development requires precise orchestration of culture conditions, including the concentration and timing of growth factors that regulate proliferation and differentiation,” said Sally Temple, Ph.D., President of StemCultures. “Optimizing protein levels to drive preferential proliferation and differentiation can be time consuming and labor intensive. When added to a culture vessel, growth factor concentrations rapidly peak and then decline, which alters the pattern of cell signaling, leading to the cell population becoming increasingly heterogenous. The use of FGF2 DISC™ devices to deliver a consistent concentration is key to higher quality cultures and higher quality, more consistent cells.”
In addition to enhancing control over culture conditions, use of DISC™ devices to deliver a steady concentration of FGF2 reduces the need for media changes. Pluripotent stem cell cultures typically require daily feeding or feeding multiple times per week; use of DISC™ devices reduces the number of feeds to once or twice per week. This results in a significant reduction in labor requirements and cost, especially for large-scale production. Fewer media changes also minimize the risk of contamination created by handling and opening cell culture vessels.
StemCultures is developing additional DISC™ devices with StemBeads® releasing other growth factors and cytokines as well as devices containing combinations of StemBeads® releasing different growth factors at specific concentrations. StemCultures develops custom StemBeads® and DISC™ devices for specialized uses upon request.
About StemCultures, LLC
StemCultures develops novel reagents that improve the quality and efficiency of cell growth and differentiation in culture. The company’s StemBeads® and DISC™ devices support production of large, homogeneous quantities of cells through precise control of culture conditions, including the concentration and timing of the growth factors regulating proliferation and differentiation. The portfolio of products has proven value for stem cell and induced pluripotent stem cell (iPSC) cultures to reduce spontaneous differentiation, enhance pluripotency, and guide preferential differentiation. For more information, please visit www.stemcultures.com.
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Source: StemCultures, LLC