Bioengineers from the University of Texas at Dallas have developed a new form of composite material by incorporating yeast into a gel. They demonstrated that the composite can change size depending on the nutrients present around the gel and that different shapes can be formed by genetically manipulating the yeast. Continue reading It’s Alive!: A Living Smart Material
Researchers have developed a minimally-invasive and precise brain drug delivery system that is controlled by an external magnetic field. Read Anqi Zhang’s article to learn more about neuron modulation by drug delivery! Continue reading Magnetic field-controlled drug delivery to the brain
Researchers from MIT have developed a novel method to locally deliver drugs and prevent immune activity around implanted biomedical devices over several months. The method is based on the formation of crystals of immunosuppressive drugs, which can be included in devices and slowly dissolve over the course of months. While this method substantially increases the length of time tested devices can function, difficulty of crystallizing certain drugs or introducing them into specific devices may prove to be a challenge in adapting this method to other systems. Even so, for many cases, this method will likely substantially reduce the difficulty of maintaining device stability for extended periods of time. Continue reading Slow and Steady Drug Delivery Keeps Biomedical Devices Kicking
Treatment of neurological disorders, such as Parkinson’s disease and stroke, has always been a challenging task, partly due to the existence of the blood-brain barrier (BBB). The BBB is a border that separates the blood circulation from the surrounding brain tissue. In a healthy brain, the BBB only allows the passage of nutrients crucial to brain function, while restricting the transportation of other substances, including … Continue reading Efficient drug delivery platform into the brain