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Quantized Conductance in Graphene Based Coherent Nano-Structures


Affiliations
1 Institute of Engineering and Management, Sector V, Saltlake, Kolkata-700091, India
     

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Quantum interference by electronic waves very significantly influences the quantum transport and hence the electronic properties in nanomaterials. Graphene, in which the Dirac fermions play an important role in transport, is studied through one such transport parameter e.g. conductance. Graphene quantum dot of two different shapes and sizes are considered for the study. The conductance is seen to oscillate with electron energy. Size of the ballistic leads also affects the size of the oscillations.

Keywords

Graphene, Dirac Fermions, Quantum Dot, Tight Binding Model, Ballistic Conductance.
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  • Quantized Conductance in Graphene Based Coherent Nano-Structures

Abstract Views: 186  |  PDF Views: 0

Authors

Soumik Chatterjee
Institute of Engineering and Management, Sector V, Saltlake, Kolkata-700091, India
Srijita Panda
Institute of Engineering and Management, Sector V, Saltlake, Kolkata-700091, India
K. K. Ghosh
Institute of Engineering and Management, Sector V, Saltlake, Kolkata-700091, India

Abstract


Quantum interference by electronic waves very significantly influences the quantum transport and hence the electronic properties in nanomaterials. Graphene, in which the Dirac fermions play an important role in transport, is studied through one such transport parameter e.g. conductance. Graphene quantum dot of two different shapes and sizes are considered for the study. The conductance is seen to oscillate with electron energy. Size of the ballistic leads also affects the size of the oscillations.

Keywords


Graphene, Dirac Fermions, Quantum Dot, Tight Binding Model, Ballistic Conductance.