Particle physicists have a hard time identifying all the elementary particles created in their particle accelerators. But now researchers have designed a material that makes it much easier to distinguish the particles. The material manipulates the Cherenkov radiation from particles with high momentum so that they get a distinct light cone angle.
Scientists have demonstrated, for the first time, a new type of mirror that forgoes a familiar shiny metallic surface and instead reflects infrared light by using an unusual magnetic property of a non-metallic metamaterial.
UT Arlington engineering professors have received a $451,781 Air Force Office of Scientific Research grant to examine the material surface at the micro- and nano-scale level that will provide clues for predicting fatigue in aircraft parts.
Researchers have developed a novel yet simple technique, called 'diffusion driven layer-by-layer assembly', to construct graphene into porous three-dimensional (3D) structures for applications in devices such as batteries and supercapacitors.
Nanomedicines consisting of nanoparticles for targeted drug delivery to specific tissues and cells offer new solutions for cancer diagnosis and therapy. Understanding the interdependency of physiochemical properties of nanomedicines, in correlation to their biological responses and functions, is crucial for their further development of as cancer-fighters.
Imagine a low-cost, disposable breath analysis device that a person with cystic fibrosis could use at home along with a smartphone to immediately detect a lung infection, much like the device police use to gauge a driver's blood alcohol level.
Magnetic materials form the basis of most hard disc drives as they are able to store data. Engineers have been investigating whether they could also be used to perform calculations, and so take on the role of a computer's central processing unit (CPU).
With a 'breaker space', ultra-low vibration chambers and tissue culture rooms, a new world-class research complex at Michigan Engineering will let researchers study the forces at work at the smallest scales to advance nanotechnologies in energy, manufacturing, healthcare and biotechnology.