Since its discovery in 2004, graphene, the two-dimensional, super-strong, ultra lightweight carbon film, has been called a wonder material. Of late scientists are going beyond graphene and trying to other 2D films with astonishing properties for applications in sensors, wearable electronics, and energy storage.
A new and improved way for detecting interactions between light and matter at the atomic level has been developed by Researchers from the University of Central Florida. This discovery could lead to improvements in the emerging field of two-dimensional materials and also new techniques to control light
A new method for characterizing graphene’s properties without the need for applying disruptive electrical contacts has been developed by Scientists. This new method allows Scientists to analyze both the quantum capacitance and resistance of graphene and other two-dimensional materials.
Thanks to silicon and complementary metal-oxide semiconductors (CMOS) technology, microelectronics has progressed greatly in the last four decades, thereby making possible computing, compact and economical digital cameras, smartphones, as well as a majority of the electronic gadgets people depend on at present.
In a recent announcement, Zenyatta Ventures Ltd. stated that the company has collaborated with Larisplast Ltd., an Israeli business specializing in the field of concrete admixtures, in order to indicate the progress of the next phase of testing a concrete admixture containing graphene.
Researchers at Linköping University in Sweden introduced defects into the perfect surface of graphene on silicon carbide in order to increase the material’s capacity to store electrical charge. A report on this has been featured in the scientific journal Electrochimica Acta. This report increases the understanding of how this ultrathin material can be used.
Rutgers University-New Brunswick researchers have developed a graphene-based sensor that could pave the way towards earlier detection of looming asthma attacks and enhance the management of asthma and other respiratory diseases, thus preventing hospitalizations and fatalities.
Recently, scientists from Rice University and Ben-Gurion University of the Negev (BGU) explored the fact that induced graphene (LIG) is an extremely effective anti-fouling material and becomes a bacteria zapper when electrified.
Researchers from the Rice University have developed a rechargeable lithium metal battery with a capacity that is three times that of commercial lithium-ion batteries. They achieved this by overcoming a problem that has challenged researchers for a long time, namely, the dendrite problem.
Energy dissipation is a key element in understanding numerous physical phenomena in thermodynamics, nuclear fission, photonics, photon emissions, chemical reactions, or even electronic circuits, among others.
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