Whitepaper: Serum-free and Animal-free Research
Discover how the adoption of animal-free media/supplements can improve reproducibility in cell culture and biotherapeutic research.
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Discover how the adoption of animal-free media/supplements can improve reproducibility in cell culture and biotherapeutic research.
The PSMA Protein is a new therapeutic hot target. In this article, learn about its growing role in the fight against prostate cancer and beyond.
The researchers say their new discovery could be used to design better vaccines and to gain a deeper insight into autoimmune diseases and allergies.
Results show the number of specialised immune cells available for fighting skin cancer doubled when a new treatment blocked their escape from melanoma tumours.
A new approach using CAR T-cell therapy is suggested by Swedish researchers as an effective treatment for ovarian cancer.
Researchers found that ‘rational vaccinology’ increases potency by changing the structural location of antigens and adjuvants.
US research about immunological memory may help development of potential vaccines or immunotherapies for cancer and various inflammatory diseases.
In this Q&A, Dr Frank Neumann speaks about Kite Pharma’s work with chimeric antigen receptor (CAR) T-cell therapy and how the company is working to progress this next‑generation modality even further to help treat cancer patients.
In this Q&A, Dr Devon Shedlock discusses Poseida Therapeutics' cancer treatment pipeline and the advances it has made towards developing chimeric antigen receptor (CAR) T-cell therapies for liquid and solid tumours.
In this article, Dr Daniel Teper and Dr Chris Arendt explore cellular therapies for cancer that provide an alternative to chimeric antigen receptor (CAR) T-cell therapy. In these Q&As, they outline their important work in immuno-oncology.
Here, Dr Michael Leek describes the benefits of gamma-delta T cells for cancer therapy, exploring why they present a potential alternative to other immuno-oncology platforms.
US researchers found high levels of XBP1s in lung cancer cells, which plays a key part in regulating the local immune environment in lung tumours, and can be disabled to increase anti-cancer immunity
Combining AI with cutting-edge flow cytometry and massive sequencing technologies, researchers describe CAR T cell characteristics that determine their therapeutic capacity for the first time.
In their study, researchers duped antibodies with a decoy to prevent rejection of transplanted cells.
Using flow cytometry, Dr Greg Delgoffe and Dr Paolo Vignali highlight that low oxygen environment of tumours can prompt exhausted T cells to suppress the immune system instead of combating cancer.