Electrodynamic analysis of nanoscale antennas of millimeter and optical bands

Authors

  • Aleksander M. Lerer Southern Federal University, Russian Federation
  • Oleg S. Labunko Rostov Radiofrequency Center, Russian Federation
  • P. V. Makhno Southern Federal University, Russian Federation
  • Gennadiy P. Sinyavsky Southern Federal University, Russian Federation

DOI:

https://doi.org/10.1109/ICATT.2011.6170781

Keywords:

carbon nanotube, plasmon, optical antenna, complex permittivity, integral equation, ZnO nanocrystal, nanorod, nanovibrator

Abstract

Electrodynamic models and radiophysical properties of carbon nanotubes – vibrators (isolated on the substrate lattices), metallic optical antennas and optical antennas, formed from ZnO nanorods coated with metal films were developed and investigated. The models are based on numerically-analytical solution of integro-differential equations describing the diffraction of electromagnetic waves on impedance and dielectric bodies. Using the integral representations of the kernels of integro-differential equations allowed to overcome the difficulties of solution, associated with the singularity of kernels and to reduce the computation time for an order.

References

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http://www.luxpop.com.

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ICATT 2011 cover

Published

2011-09-25

Issue

2011: ICATT’2011 - Proc. of VIII Int. Conf. on Antenna Theory and Techniques

Section

Invited papers