The paper proposes a method for substantiating the electrodynamic and structural
parameters of waveguide-type materials, based on the developed model for the absorption of
microwave radiation on impedance walls and the dielectric filler of structural absorbing
materials of closed waveguide structures. The essence of the model, based on the methods of
the theory of diffraction of electromagnetic waves in layered media, the laws of propagation of
microwave radiation in waveguides, is that the electromagnetic field in front of the grating is
considered as a superposition of the fields of the incident plane wave, mirrored from the
“medium-material” interface, and scattered on the walls of the lattice material. An
electromagnetic wave incident on the material, as it propagates deep into it, interacts with
radio-absorbing walls. An approach is proposed for determining the reflection coefficient of a
material, a feature of which is that a term is introduced in the expression for calculating the
reflection coefficient describing an exponential decrease in the amplitude level (power flux
density) of the diffuse component of the electromagnetic field when it propagates deep into the
material and back impedance walls and dielectric filler of closed waveguide structures (shortcircuited waveguide segments), and allowing becoming patterns between reflection
characteristics of the structural material and the absorbent electrodynamic and design
parameters.
1. Kovniryy Yu.K. Materials absorbing microwave radiation / Kovneristy Yu.K.,
Lazareva I.Yu., Rawaev A.A. – M.: Science, 1982. – 164 p.
2. Ruck G//Radar Cross-Section Handbook. N.Y.: Plenum Press, 1970.
3. Knott E.F., Shaeffer J.A., Tuley M.T.//Radar Cross-Section: Its Prediction,
Vtasurement and Reduction. Dedham: Actech House, 1985.
4. Harteman P., Labeirie M.//Revue Technque Thomson-CSF, 1987. V.19. № 3-
4.Р.413.
5. Pole B.T. Introduction to optimization. – M.: Science, 1983. – 384 p.
6. Nikolsky V.V. Electrodynamics and propagation of radio waves. – M.:
Science, 1978. – 544 p.
7. Weinstein L.A. To the electrodynamic theory of lattices. – M.: High-power
electronics. Sat Number 2, Academy of Sciences of the USSR, 1963.
8. Goldstein LD, Zernov N.V. Electromagnetic fields and waves. – M.: «Soviet
Radio», 1971. – 664 p.
Ivensky Andrey Anatolyevich
Air force Academy named after Professor N.E. Zhukovsky and Y.A. Gagarin
Voronezh, Russian Federation
