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Frequency characteristics of strip waveguides incorporating bulk lithium niobate crystals as a dielectric

The elements of the metamaterial made in the form of wave-guiding coplanar strip line type strip structures, the current-carrying strip of which is located on the upper surface of the substrate, have been experimentally investigated. On the same surface, side screens, connected to the lower grounded...

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Published in:arXiv.org 2023-12
Main Authors: Malyutin, Nickolay D, Arutyunyan, Artush A, Loschilov, Anton G, Malyutin, George A, Minenko, Dmitriy
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Arutyunyan, Artush A
Loschilov, Anton G
Malyutin, George A
Minenko, Dmitriy
description The elements of the metamaterial made in the form of wave-guiding coplanar strip line type strip structures, the current-carrying strip of which is located on the upper surface of the substrate, have been experimentally investigated. On the same surface, side screens, connected to the lower grounded base, through metallized holes are made. A volumetric lithium niobate crystal is placed on the upper surface of the strip lines. Frequency dependences of the modulus and phase of the transmission coefficient and reflection coefficient of models with a lithium niobate bulk crystal are measured when a linear-frequency modulated signal in the range from 10 MHz to 25 GHz with a fast change of the incident wave direction is applied to the strip line input. The occurrence of quasi-chaotic oscillations in the tested models was demonstrated. Modeling of the strip structure allowed to determine the frequency dependence of the complex propagation coefficient, indicating the cause of quasi-chaotic oscillations due to the occurrence of a large number of normal waves and their interference. Frequency regions with negative group delay were detected.
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subjects Crystals
Group delay
Incident waves
Lithium
Lithium niobates
Metallizing
Metamaterials
Oscillations
Reflectance
Strip
Substrates
Waveguides
title Frequency characteristics of strip waveguides incorporating bulk lithium niobate crystals as a dielectric
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