Modeling a millimeter-wave radio communication channel using RoF technology

DOI №______

  • Кременецька Я. А. (Kremenetska Y.A.) State University of Telecommunications, Kyiv
  • Мельник Ю. В. (Melnyk Yu.V.) State University of Telecommunications, Kyiv
  • Марков С. Ю. (Markov S.Y.) State University of Telecommunications, Kyiv
  • Градобоєва Н. В. (Hradoboyeva N.V.) State University of Telecommunications, Kyiv

Abstract

The paper suggests an approach to the modeling of radio channels in the millimeter range based on quasi-optical modeling of the radio link energy budget, and also on the basis of an analysis of independent noise components produced during the generation of radio signals by photonic methods, as well as interference of the signal. It is analyzed that modern mathematical models of MMD channels often use not fundamental physical approaches, but empirical models based on channel measurements, or approximate models to losses in free space. It is shown that the signal-to-noise ratio, as well as the phase noise component, is of greatest importance in calculating the budget and losses of the millimeter-wave radio channel. It is noted that the new concepts for the development of energy coverage models for 5G and the next generation should be based on models approximating the physical patterns of propagation of radio waves and analysis of noise parameters.

Keywords: millimeter waves, radio-photonics, radio channel capacity, radio link energy budget, signal-to-noise ratio.

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Issue
No 1 (2018)
Section
Articles