In an open-access paper, more than 60 academics and industrialists lay out a science and technology roadmap for graphene, related two-dimensional crystals, other 2D materials, and hybrid systems based on a combination of different 2D crystals and other nanomaterials.
Researchers have created a variety of nanostructures that can modify the electronic properties of graphene, either by periodic modulation of the electrostatic potential, or by periodic mechanical stress that can generate an effective magnetic structure.
Two new three-year research projects are supporting the role of the Stanford Institute for Materials and Energy Sciences (SIMES) as a leading center for studying exotic new materials that could enable future innovative electronic and photonic applications.
By loading magnetic nanoparticles with drugs and dressing them in biochemical camouflage, researchers say they can destroy blood clots 100 to 1,000 times faster than a commonly used clot-busting technique.
Researchers have developed a 'fever alarm armband', a flexible, self-powered wearable device that sounds an alarm in case of high body temperature. The flexible organic components developed for this device are well-suited to wearable devices that continuously monitor vital signs including temperature and heart rate for applications in healthcare settings.
Researchers have synthesized novel cycloparaphenylene (CPP) chromium complexes and demonstrated their utility in obtaining monofunctionalized CPPs, which could become useful precursors for making carbon nanotubes with unprecedented structures.
Researchers demonstrate materials, mechanics designs and integration strategies for near field communication (NFC) enabled electronics with ultrathin construction, ultralow modulus, and ability to accommodate large strain deformation.
Experiments looked at the properties of materials that combine graphene with a common type of semiconducting polymer. They found that a thin film of the polymer transported electric charge even better when grown on a single layer of graphene than it does when placed on a thin layer of silicon.