Josephson current for a Graphene nanoribbon using a lattice model

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ZAREEI SOMAYYEH; Daadmehr Vahid; Hakimi Pajouh Hossein; Faraei Zahra

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Journal Paper

Paper Information

Journal: JOURNAL OF INTERFACES, THIN FILMS AND LOW DIMENSIONAL SYSTEMS Year:2018 | Volume:2 | Issue:1 Page(s): 113-121

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Title

Josephson current for a Graphene nanoribbon using a lattice model

Author(s)

ZAREEI SOMAYYEH | Daadmehr Vahid | Hakimi Pajouh Hossein | Faraei Zahra | Issue Writer Certificate

Keywords

Josephson effect

Lattice model

Graphene nanoribbon

Vacancies

Abstract

A tight binding approach based on the Bogoliubov de-Genes approach has been used to calculate the DC Josephson current for short junctions with respect to the superconducting coherence length with a Lattice model for SGNR-S junctions. We calculate the phase, length, width, and chemical potential dependence at the Josephson junction and discuss the similarities and differences with regard to the theoretical and experimental results obtained for graphene. Regarding the calculations on graphene, using a Lattice model, we convert the graphene honeycomb structure to a brick lattice structure that does not change the lattice topology. Then, by removing several atoms from the lattice, we create the simple vacancy defects in the brick lattice. Also we calculate the Josephson current with these Vacancies.

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APA: Copy

ZAREEI, SOMAYYEH, Daadmehr, Vahid, Hakimi Pajouh, Hossein, & Faraei, Zahra. (2018). Josephson current for a Graphene nanoribbon using a lattice model. JOURNAL OF INTERFACES, THIN FILMS AND LOW DIMENSIONAL SYSTEMS, 2(1 ), 113-121. SID. https://sid.ir/paper/390306/en

Vancouver: Copy

ZAREEI SOMAYYEH, Daadmehr Vahid, Hakimi Pajouh Hossein, Faraei Zahra. Josephson current for a Graphene nanoribbon using a lattice model. JOURNAL OF INTERFACES, THIN FILMS AND LOW DIMENSIONAL SYSTEMS[Internet]. 2018;2(1 ):113-121. Available from: https://sid.ir/paper/390306/en

IEEE: Copy

SOMAYYEH ZAREEI, Vahid Daadmehr, Hossein Hakimi Pajouh, and Zahra Faraei, “Josephson current for a Graphene nanoribbon using a lattice model,” JOURNAL OF INTERFACES, THIN FILMS AND LOW DIMENSIONAL SYSTEMS, vol. 2, no. 1 , pp. 113–121, 2018, [Online]. Available: https://sid.ir/paper/390306/en

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