Microwave Radiation Absorption at a Frequency of 2.45 GHz by a Composite Based on the Dust of Electrical Arc Steel-Making Furnaces

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Resumo

The physicochemical transformations and electromagnetic properties of a composite based on the dust of electrical arc steel-making furnaces and a carbon-containing material (hydrolysis lignin) have been studied. The complex dielectric permittivity of the studied material was measured by the resonator method during heating to 800°C. At room temperature, the effective values of the magnetic permeability and loss of the composite mixture were calculated by solving the Bruggeman equation according to the effective medium theory. The magnetic permeability during heating was found by orthogonal regression. The numerical model
of heating a dense packing from several layers of studied material grains was constructed by the finite element method with consideration of the real properties and physicochemical transformations.

Sobre autores

A. Anzulevich

Chelyabinsk State University Named after the Kashiriny Brothers

Email: anzul@list.ru
Chelyabinsk 452500 Russia

D. Pavlov

Chelyabinsk State University Named after the Kashiriny Brothers

Email: anzul@list.ru
Chelyabinsk 452500 Russia

D. Kalganov

Chelyabinsk State University Named after the Kashiriny Brothers; Institute of Fine Mechanics and Optics National Research University

Email: anzul@list.ru
Chelyabinsk 452500 Russia; St. Petersburg, 191002 Russia

L. But’ko

Chelyabinsk State University Named after the Kashiriny Brothers

Email: anzul@list.ru
Chelyabinsk 452500 Russia

V. Tolkachev

Chelyabinsk State University Named after the Kashiriny Brothers

Email: anzul@list.ru
Chelyabinsk 452500 Russia

L. Kovalenko

Chelyabinsk State University Named after the Kashiriny Brothers

Email: anzul@list.ru
Chelyabinsk 452500 Russia

Z. Peng

Central South University, School of Minerals Processing and Bioengineering

Autor responsável pela correspondência
Email: anzul@list.ru
Hunan, Changsha, 410083 China

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Declaração de direitos autorais © А.П. Анзулевич, Д.А. Павлов, Д.А. Калганов, Л.Н. Бутько, В.А. Толкачев, Л.Ю. Коваленко, Ц. Пенг, 2023

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