MIT researchers have developed a way to replace complex, expensive medical imaging equipment with much less expensive consumer equipment and a little bit of fancy math. The technique uses technology like the Microsoft Kinect paired with sophisticated mathematical modeling to perform the same tasks as a US$100,000 lab microscope.
A new type of nanoparticle has been created by that converts invisible near-infrared light to higher energy blue and UV light with record-high efficiency. The multi-layered layered nanoparticle has potential for use in solar energy harvesting, bio-imaging, and light-based
The Large Hadron Collider (LHC) at CERN is where the miraculous meets the impractical. In addition to probing the secrets of the Universe at the subatomic level, it also has potential for a variety of medical applications. Unfortunately, with a circumference of 27 km (16.7 mi) the LHC is so unwieldy that it would be about as practical as using Big Ben for a wristwatch. In the hopes of creating something a bit more useful for the medical fraternity, CERN engineers have come up with a miniature linear accelerator (mini-Linac) that, at 2 m (6.5 ft) long, is small enough to be set up in hospitals for medical imaging and radiotherapy applications.