NIH Scientists Find a Potential New Strategy for Treating Cancer

Recent findings in mice suggest that blocking the production of small molecules produced in the body, known as epoxyeicosatrienoic acids (EETs), may represent a novel strategy for treating cancer by eliminating the blood vessels that feed cancer tumors. This research is the first to show that EETs work in concert with vascular endothelial growth factor (VEGF), a protein known to induce blood vessel growth. Together, EETs and VEGF promote metastasis, or the spread of cancer, by encouraging the growth of blood vessels that supply nutrients to cancer cells.

Blood vessel growth

Cancer Research Blog Carnival #7

Welcome to the 7th edition of the Cancer Research Blog Carnival, a blog carnival devoted to cancer research. This edition includes some great articles on cancer research ethics, cancer therapeutics, cancer stem cells, cancer genetics and cancer biology.

There’s a revolution occurring on the Web: those “authoritative” articles written on traditional, static websites are being replaced with blogs, wikis and online social networks. In the sphere of health, medicine and information technology, this “real-time Web” consists of many who are professionals in the field; their posts are listed below.
In the digital age, these are the characteristics of new media: recent, relevant, reachable and reliable.

I believe it’s important to maintain perspective on the significance of cancer research and the impact it has on patients. As such, this months edition of the Cancer Research Carnival includes narratives from some people affected by the disease. I think their stories will inspire us all with their determination and courage, and serve as motivation to continue searching for therapies to combat cancer.cancer-research-logo.jpg

Common Therapy for Prostate Cancer May Promote Metastasis

A study published in the journal Cancer Research last month suggests that the principle treatment for advanced prostate cancer may actually encourage prostate cancer cells to metastasize [1]. Researchers at The Johns Hopkins University School of Medicine focused on a gene called Nestin, which encodes an intermediate filament protein. Intermediate filaments are cytoskeletal or scaffolding structures found in cells that, in addition to maintaining cell shape, control a variety of cellular processes including proliferation, migration and survival [2]. Nestin gene expression also distinguishes stem cells from differentiated cells and has been shown to be activated in pediatric brain tumors and rhabdomyosarcomas (cancers that develop from skeletal muscle), central nervous system tumors and gastrointestinal stromal tumors [3-6].