Cell Biology

Many patients with treatment-resistant blood cancers have found new hope in chimeric antigen receptor (CAR)-T cell therapy. But generation of CAR-T cells at clinical scale can be challenging. Find out how the Gene Pulser Xcell Electroporation System can be used to reduce costs and risks associated with clinical-scale CAR-T cell production, while maintaining GMP compliance.

Is the fate of an embryonic cell determined by the age of the cell or the age of the embryo? To explore this question, researchers isolated and transplanted live neural cells from mouse embryos at different stages of development. Learn about their findings and how the S3e Cell Sorter helped achieve this incredible feat.

Growth factors are protein signaling molecules that play crucial roles in the regulation of numerous cellular processes such as proliferation, differentiation, and survival. Learn more about the phosphorylation of one such factor, the epidermal growth factor receptor (EGF R).

Presented by: Angie Green, PhD, Senior Scientist

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We discuss using a multiparameter flow cytometry panel to monitor T-cell exhaustion states and the expression of checkpoint inhibitors. We used an in vitro model; however, the panel is designed to be compatible with clinical samples to monitor immunotherapy.

R-loops are being investigated as potential therapeutic targets for cancer. Find out what they are, how they form, how their formation is controlled by our cells, and, above all, their potential as therapeutic targets.

Presented by: Mike Blundell, PhD, Product Manager

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Flow cytometry is a powerful technique used widely in biological research, but if you are just beginning your flow journey, it can be hard to know where to start. In this webinar, you will:

• Learn the important steps to obtaining better flow cytometry data
• Get advice on how to apply this knowledge to improve your experiments
• Find out how Bio-Rad’s panel builder tool can help you design your experiments, no matter how many colors you plan to use

Small vesicles were identified over 50 years ago but scientists are still trying to understand their biology and role in disease. These vesicles have become relevant for monitoring, diagnosing, and treating complex diseases such as cancer. Yet, because of their small size compared to cells, they require intricate technologies to truly understand their impact in research. Learn about the various technologies used to study small vesicles and discover the power of flow cytometry for learning more about these valuable vesicles.

In the first two articles in our Finding a Good Antibody series, you learned how to select the best antibodies and received tips on proper antibody validation. In this third and final article, see how you can use this information to publish meaningful data when using antibodies. And get some guidelines for antibody best practices.

Immuno-oncology, or cancer immunotherapy, research focuses heavily on the various types of cells and their behavior in cancer, so the use of flow cytometry to interrogate these cells is a no brainer. See how flow cytometry fits in this growing field of research and how it can help identify new targets and improve drug design to generate more effective and safer cancer therapeutics.

Finding antibodies that work for your application is just the first step in finding a good antibody. Next is antibody validation — making sure that your antibody does what you think it is supposed to. In this second article in our Finding a Good Antibody series, learn how best to go about validating your antibodies.