Zhao, P., Tiemann, L., Trieu, H.K. and Blick, R.H. (2020) Acoustically Driven Dirac Electrons in Monolayer Graphene. Applied Physics Letters, 116, Article 103102.
https://doi.org/10.1063/1.5139498

has been cited by the following article:

• TITLE: Investigation of Acoustomagnetoelectric Effect in Bandgap Graphene by the Boltzmann Transport Equation

  AUTHORS: Raymond Edziah, Samuel S. Bentsiefi, Kwadwo Dompreh, Anthony Twum, Emmanuel Kofi Amewode, Patrick Mensah-Amoah, Ebenezer T. Tatchie, Cynthia Jebuni-Adanu, Samuel Y. Mensah

  KEYWORDS: Boltzmann Transport Equation, Acoustomagnetoelctric Effect, Surface Acoustic Wave, Gapless Graphene, Weiss Oscillations

  JOURNAL NAME: World Journal of Condensed Matter Physics, Vol.14 No.1, February 5, 2024

  ABSTRACT: We study the acoustomagnetoelectric (AME) effect in two-dimensional graphene with an energy bandgap using the semiclassical Boltzmann transport equation within the hypersound regime, (where represents the acoustic wavenumber and is the mean free path of the electron). The Boltzmann transport equation and other relevant equations were solved analytically to obtain an expression for the AME current density, consisting of longitudinal and Hall components. Our numerical results indicate that both components of the AME current densities display oscillatory behaviour. Furthermore, geometric resonances and Weiss oscillations were each defined using the relationship between the current density and Surface Acoustic Wave (SAW) frequency and the inverse of the applied magnetic field, respectively. Our results show that the AME current density of bandgap graphene, which can be controlled to suit a particular electronic device application, is smaller than that of (gapless) graphene and is therefore, more suited for nanophotonic device applications.