Cancer cells can revert to a pre-differentiated, stem-cell-like phenotype, allowing uninhibited cellular division and other metabolic adaptations that enable survival in adverse conditions.
Cancer cells stimulate their own growth, which means they become self-sufficient in growth signals, and no longer depend on external signals (like Epidermal Growth Factor EGF/ EGFR). Proliferation depends highly on these three important pathways: Akt, MAPK/Erk, and MTOR.
Cancer cells stimulate the growth of blood vessels to supply nutrients to tumors. Angiogenesis is the formation of new blood vessels from pre-existing blood vessels. This plays an important role in tumor growth.
One thing we know about cancer cells: they can resist death. They evade apoptosis, the mechanism that programs cell death once cells become damaged. Normally, apoptosis helps keep an organism healthy through growth and development, maintaining body tissue by removing infected or damaged cells. But cancer cells do not follow this process, no matter how abnormally they grow.
Topics: Cancer Research
In recent years, immune checkpoint proteins in the tumor microenvironment have been under intense study. If you work in the immuno-oncology field, chances are you are either performing multiplex IHC (mIHC) or would like to. Ultimately, a multiplexed image like the one featured here provides a multi-layered depiction of a tumor, such that each antibody corresponds to a different fluorescent signal. If you want to detect more targets in your IHC, but aren’t sure how to design a panel of antibodies and fluorophores for mIHC, we’ll walk you through the process in this post.
Earlier this week, Dr. James Allison and Dr. Tasuku Honjo were announced as joint winners of the 2018 Nobel Prize in Physiology or Medicine for their work in the field of immunotherapy and checkpoint immune regulation. Their studies have sparked decades of clinical advances, and changed the future of cancer therapy. A webinar presented by Dr. Allison in conjunction with Dr. Gordon Freeman and Dr. Philip Gotwals is featured in this week's blog post.
Research trends in macrophage plasticity
It’s an exciting time for immuno-oncology research, as potential predictive biomarkers from an expanding collection of cell types are being pursued. Explore the plasticity of tumor-associated macrophages (TAMs) and challenges in distinguishing M1- versus M2- functional states in this 5-minute video featuring CST Developmental Scientist Sarah Klein, PhD.
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Cell Signaling Technology is proud to partner with the Koch Institute at MIT, Science, and Science Signaling to present the Targeting Cancer Pathways webinar series. These webinars will bring together thought leaders from around the world to share current findings and further cancer research community collaboration.
The last few years have witnessed several breakthroughs in the immuno-oncology space. Treatments that harness the body’s immune system to fight cancer have transitioned from speculation to offering endless possibilities for drug discovery. Of these treatments, therapeutic monoclonal antibodies are positioned at the forefront of the immunotherapy revolution, and the FDA has approved several of these monoclonal antibodies to treat cancer.