Graphene is a two-dimensional hexagonal precious stone carbon molecules, and inferred by disengaging a solitary nuclear sheet from graphite.

It is regularly termed as the marvel materials, as a result of its application opportunities in an extensive variety of fields extending from gadgets or photovoltaics to mechanical, compound and natural detecting.

The work on graphene as of now concerns its application as a dynamic component in Nanoelectronics.

Progressing Research

Accomplishing ultra-high transporter portability in graphene field impact transistor

Understanding minute starting point of clamor in graphene-based field impact transistors

Investigating new marvels and usefulness in graphene, graphene half and halves and graphene analogs

Investigating quantum impedance and mesoscopic impacts in cluttered graphene at ultra-low temperatures

Gadgets with molecularly thin layers of Molybdenum disulphide

Graphene-based optoelectronic and vitality gadgets

Research Outline

High transporters versatility field impact transistor with Graphene

Graphene is a solitary layer of C-iotas masterminded in a 2D honeycomb cross section structure. Graphene has direct vitality scattering connection upto vitality 1eV and electrons carry on like rest mass less Dirac fermion. In spite of the fact that, graphene can demonstrate to a great degree high inborn versatility, it gets covered because of outside turmoil, for example, the substrate on which graphene is set.

Physics of electrical commotion in Graphene

Deals with flicker noise, or 1/f noise, demonstrated that the essential wellspring of clamor in graphene field impact transistors is the nearness of a substrate. The trading of charge, and in addition development of charge inside the substrate, cause graphene to be a "boisterous" conductor, and unique measures are taken to lessen commotion in the purported Gra-FETs.





Quantum Mechanics of Graphene at Ultra-Low Temperature

In the quantum administration, the point has been to concentrate on the symmetry classes of graphene through the estimations of magnetoresistance and all inclusive conductance vacillations.