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Electronic and Optoelectronic Applications of Graphene
Submission Deadline: Aug. 15, 2020

This special issue currently is open for paper submission and guest editor application.

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Lead Guest Editor
Ramin Emadi
Electrical and Computer Engineering, Isfahan University of Technology, Isfahan, Iran
Guest Editors
  • Reza Safian
    Electrical and Computer Engineering, IMEC Florida
    Orlando, USA
  • Abolghasem Zeidaabadi Nezhad
    Electrical and Computer Engineering, Isfahan University of Technology
    Isfahan, Iran
  • Masood Omoomi
    Electrical and Computer Engineering, Isfahan University of Technology
    Isfahan, Iran
  • Mahdi Taheri
    Electrical and Computer Engineering, Islamic Azad University, Saveh Branch
    Saveh, Iran
  • Amin Chapari
    Electrical and Computer Engineering, Islamic Azad University, Najafabad Branch
    Najafabad, Iran
  • Behnam Saghirzadeh Darki
    Electrical and Computer Engineering, Islamic Azad University, Najafabad Branch
    Najafabad, Iran
Guidelines for Submission
Manuscripts can be submitted until the expiry of the deadline. Submissions must be previously unpublished and may not be under consideration elsewhere.
Papers should be formatted according to the guidelines for authors (see: http://www.sciencepublishinggroup.com/journal/guideforauthors?journalid=126). By submitting your manuscripts to the special issue, you are acknowledging that you accept the rules established for publication of manuscripts, including agreement to pay the Article Processing Charges for the manuscripts. Manuscripts should be submitted electronically through the online manuscript submission system at http://www.sciencepublishinggroup.com/login. All papers will be peer-reviewed. Accepted papers will be published continuously in the journal and will be listed together on the special issue website.
Published Papers
The special issue currently is open for paper submission. Potential authors are humbly requested to submit an electronic copy of their complete manuscript by clicking here.

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Introduction
Graphene optoelectronic devices have attracted a great deal of attention thanks to fascinating properties of graphene which make it promising material for developing nonphotonics and nanotechnology. Graphene possesses exceptionally high charge carrier mobility which is capable of providing broadband and high-speed devices. Optical and electrical characteristics of graphene can be actively controlled via application of either electrostatic or magnetostatic bias. The latter feature enables graphene devices to support very slow waves at different frequencies, resulting in miniaturized devices. However, there are some obstacles about graphene that hinder achieving its intriguing properties, including its fabrication technology, its contact with other materials. In this presentation, we want to discuss these challenges and suggest some strategies to mitigate some of negative impacts on the performance of graphene devices. By taking into account practical considerations in designing graphene devices, we present a number of applications using graphene, for example waveguides, antennas, cloaking devices, and transistors which are superior compared to the conventional ones. Furthermore, we investigate general and efficient methods for modeling of graphene in electronic and optoelectronic solvers and then, different configurations are proposed to set up an electrostatic bias which is useful for electrically doping of single and multi-layer graphene strips. In very slow wave scenarios, ultra-deep miniaturized devices can be obtained, which is an important feature in designing nanophotonic devices. However, we need to contemplate higher order approaches to accurately model non-local phenomena, which play an important role, especially at the nano-scale. In this regard, graphene’s capacitance model is utilized to efficiently consider the presence of graphene and additionally, we use a non-local conductivity model derived from a semi-classical model to electromagnetically characterize a graphene strip when interacting with very slow waves.
Aims and Scope:
  1. Graphene Field Effect Transistors (GFET)
  2. Graphene Waveguides
  3. Graphene Photoconductive Antennas (GPCA)
  4. Graphene Cloaking Devices
  5. Graphene Frequency Multipliers
  6. Graphene Sensors
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