Blood cells don’t function in static environments. In vivo, they experience continuous shear forces that influence adhesion, activation, aggregation, and cell–cell interactions in ways traditional
The discovery of high-quality antibodies is critical for both research and therapeutic development. However, identifying rare antibody-secreting cells from B cell or hybridoma populations remains challenging, slowing the discovery process and increasing the risk of missing valuable antibody candidates.
Learn how researchers from various institutions have tackled tough challenges in cell line development. From poor cell viability to low efficiency and lack of clonality,
See a live demonstration of cell-based assays under dynamic shear flowFluid movement that applies force to cells and biofilms; used to mimic physiological/pathological conditions. conditions.
Join us for a fast-paced, 21-minute webinar exploring how shear flow systems enable researchers to model real-world biofilmA structured microbial community attached to a surface, typically more tolerant to antibiotics/biocides than planktonic cells. dynamics with precision and control.
Join us for a 30-minute webinar designed to help you overcome these common challenges and accelerate your path to consistent, high-quality results, even with cells that are difficult to clone.
Blood cells don’t function in static environments. In vivo, they experience continuous shear forces that influence adhesion, activation, aggregation, and cell–cell interactions in ways traditional
The discovery of high-quality antibodies is critical for both research and therapeutic development. However, identifying rare antibody-secreting cells from B cell or hybridoma populations remains challenging, slowing the discovery process and increasing the risk of missing valuable antibody candidates.
Learn how researchers from various institutions have tackled tough challenges in cell line development. From poor cell viability to low efficiency and lack of clonality,
See a live demonstration of cell-based assays under dynamic shear flow conditions.
Join us for a fast-paced, 21-minute webinar exploring how shear flow systems enable researchers to model real-world biofilm dynamics with precision and control.
Join us for a 30-minute webinar designed to help you overcome these common challenges and accelerate your path to consistent, high-quality results, even with cells that are difficult to clone.
