Starting from a rigorous finite mass, Dirac equation-based model, we investigate the R.F. quantum admittance of a monolayer 2D material under the action of an electromagnetic (e.m.) wave with axially directed vector potential. With some reasonable approximations, the analysis yields a relatively simple RLC-equivalent circuit with frequency-independent elements depending on the bias, temperature, effective mass, Fermi velocity and effective e.m. index of the material, losses and other relevant parameters.
Dirac-Based Quantum Admittance of 2D Nanomaterials at Radio Frequencies / Rozzi, T; Mencarelli, D; Zampa, Gm; Pierantoni, L. - In: APPLIED SCIENCES. - ISSN 2076-3417. - ELETTRONICO. - 12:24(2022). [10.3390/app122412539]
Dirac-Based Quantum Admittance of 2D Nanomaterials at Radio Frequencies
Rozzi, T
Primo
Conceptualization
;Mencarelli, DSecondo
Methodology
;Zampa, GMPenultimo
Software
;Pierantoni, LUltimo
Validation
2022-01-01
Abstract
Starting from a rigorous finite mass, Dirac equation-based model, we investigate the R.F. quantum admittance of a monolayer 2D material under the action of an electromagnetic (e.m.) wave with axially directed vector potential. With some reasonable approximations, the analysis yields a relatively simple RLC-equivalent circuit with frequency-independent elements depending on the bias, temperature, effective mass, Fermi velocity and effective e.m. index of the material, losses and other relevant parameters.File | Dimensione | Formato | |
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