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Justification of structural and technological parameters of microwave installations for heat treatment of wax raw materials
Author(s) -
Г. В. Новикова,
О. В. Михайлова,
M Prosviryakova,
P. V. Zaitsev,
A. V. Shevelev,
D. Dulepov
Publication year - 2020
Publication title -
iop conference series. earth and environmental science
Language(s) - English
Resource type - Journals
eISSN - 1755-1307
pISSN - 1755-1315
DOI - 10.1088/1755-1315/604/1/012008
Subject(s) - wax , beeswax , resonator , materials science , raw material , generator (circuit theory) , microwave , composite material , electromagnetic heating , mechanical engineering , ceramic , acoustics , electrical engineering , optoelectronics , engineering , power (physics) , physics , chemistry , electromagnetic coil , thermodynamics , telecommunications , organic chemistry
The article is devoted to the development of a method and technical devices that allow separating honey when melting beeswax under the action of an ultra-high frequency electromagnetic field. Analyzed electrical properties of beeswax and honey; the dynamics of heating of components of raw materials; three models of installations with different resonators; investigated the electrodynamic parameters of the system; substantiated the structural-technological parameters of the installation. Three variants of installations for wax melting with different resonators have been developed. In the first installation, the modules contain cylindrical and spherical resonators. In the second installation, a spherical resonator inside a toroidal resonator is installed. In the third installation, two cylindrical resonators in series are connected. In the second installation, the wax raw material is dosed with rolls onto a perforated disk inside a spherical resonator, where the raw material is heated to 40 °C, increasing its fluidity, which allows the honey to be separated when the disk rotates. Effective modes of heating beeswax are: specific power of the generator 0.85 W/g; duration of exposure to ultrahigh frequency electromagnetic field 240 sec; heating temperature of the wax 64 °C.

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