December 19, 2017
Twisted bi-layer 1xbet sports betting presented in Physical Review Letters
Suprem Das,assistant professor of industrial and manufacturing systems engineering — along with researchers at the U.S. Department of Energy's Ames Laboratory, Iowa State 1xbet sports betting and Purdue 1xbet sports betting — has demonstrated that two atomically thin carbon atoms sitting on top of each other, but with a twisting angle between them, can be exploited fundamentally as a testbed to study and manipulate confined infrared plasmon.
Plasmon is a quantum of plasma oscillations, typically observed in metals when shine by electromagnetic radiation. However, in 1xbet sports betting they are treated as special quasi-particles due to the involvement of "Dirac electrons." The underlying physics found in the work could be used as a platform for novel technological platforms.
Das, one of the primary authors in the work, and his colleagues published their findings in a recent issue of Physical Review Letters in a paper titled, "Real-Space Imaging of the Tailored Plasmons in Twisted Bilayer 1xbet sports betting ." Das and Z. Fei originally discussed the idea to pursue an infrared nanoimaging on twisted bilayer 1xbet sports betting to observe the Dirac plasmons that are characterized by the interlayer coupling between two atomic layers of 1xbet sports betting . Such a confinement and unprecedented tuning of plasmons could be used to design new devices such as sensors. Plasmons in single layer 1xbet sports betting is an emerging area with its manipulation possessing potential technological applications such as energy and sensing. Das is interested in exploiting 1xbet sports betting for these novel applications while at K-State.
Das earned a doctorate in physics from Purdue 1xbet sports betting . With a year of postdoctoral atPurdue's School of Electrical and Computer Engineering and two and half years of postdoctoral at Iowa State 1xbet sports betting and Ames Laboratory, he joined K-State as an assistant professor in fall 2017. His research intersects are in the intersection of materials physics, device engineering and manufacturing of graphene, nanotubes and other low-dimensional nanomaterials and devices.