Researchers have developed a computational cancer model to predict how a drug will perform in humans, VentureBeat reports.
The FDA panel convened to discuss the risk of upstaging uterine sarcoma cancer via minimally invasive laparoscopic power morcellation during uterine surgery for fibroids recommended upgrading the labeling of power morcellators and ensuring that patients are made aware of the risk prior to surgery, among other measures.
Panelists were concerned about the lack of data on the prevalence of uterine sarcoma among women undergoing hysterectomy or myomectomy surgeries during the first day of the FDA panel on the risks of upstaging uterine cancer via minimally invasive laparoscopic power morcellation during uterine surgery for fibroids.
Researchers at The Ohio State University have found that to treat brain cancer and other solid tumors, a low dose of the proteasome inhibitor bortezomib improves oncolytic viruses' ability to kill cancer cells.
Researchers at UC Santa Barbara have concocted a new type of silver nanoparticle designed to deliver cancer drugs that can also dissolve and become inactive if it doesn't reach the tumor. The innovation solves some safety issues associated with nanotechnology and reduces side effects from the cancer drugs themselves, the scientists say.
The Institute of Cancer Research, London, became the latest member of a consortium seeking to integrate magnetic resonance imaging into radiation therapy.
Like a molecular swiss army knife, a new type of technique that engineers have dubbed "quadrapeutics" offers a four-in-one cancer treatment to blast tumors into submission, and a preclinical study showed that it was 17 times more effective than traditional chemotherapy.
With all the innovation in nano-sized delivery vehicles, the creative terms for the small particles have run the gamut from nanonecklaces to nanovolcanoes. And scientists from North Carolina State University, following suit, have dubbed their new design for delivering cancer drugs a "nanodaisy," due to a flowerlike petal structure on its surface.
Glioblastoma multiforme, the most common and one of the most aggressive forms of brain cancer, is notoriously difficult to treat. Now, researchers have developed a novel method of dealing with the disease: They're infecting the tumor with herpesvirus, shuttled into the brain in stem cells.
At the American Society for Microbiology's annual meeting this week, a team of researchers from the University of California, Davis, demonstrated a study showing that silicon nanoparticles they designed could penetrate the blood-brain barrier.