Abstract
Every day, the Russian Federation processes 126.3 tons of animal slaughter waste into animal feed. With an installation capacity of 35 kg/h, the required quantity is 7000 units. As a rule, the devices are energy-intensive. The problem is to reduce the operating costs of heat treatment of raw materials while maintaining the feed quality. The article introduces a new installation powered by an electrically driven resonator with rationalized operating modes.The research featured mucous by-products that require thermal treatment to neutralize the smell and disinfect the raw material. The authors investigated the dynamics of heating and used the data obtained to develop a digital installation model and test the electrodynamics in the resonator. After that, they rationalized the operating modes, i.e., corona discharge, electric field, screen efficiency, generator power, installation performance, and energy costs.
The complex action of electromagnetic radiation provided a continuous combined heat treatment, disinfection, and odor neutralization with reduced operating costs. The electrical resonator was coaxially located in the shielding and contained a coronating electrode, electric bactericidal UV gas discharge lamps, knives, screws, and emitters from air-cooled magnetrons.
The annular volume between the resonator and the coat excited the traveling wave by electromagnetic radiation through the perforation. Its average perimeter was a multiple of half the wavelength. The heat treatment with disinfection and fat rendering required an intrinsic quality factor of 8000, a generator power of 4.4 kW, a productivity of 35–40 kg/h, and energy costs of 0.25–0.28 kWh/kg. When the electric field was 5 kV/cm and the corona discharge was 9.79 kV/cm, the corona of bactericidal lamps provided the required ozone concentration and the bacterial contamination fell down to an acceptable level.
The new installation with an electrical resonator reduced operating costs for heat treatment of animal slaughter waste and maintained the high-quality of the resulting feed products.
Keywords
By-products, microwave installation, electric gas discharge lamps, kilohertz frequency generator, perforated resonator drum, corona needles, spiral and screw augersREFERENCES
- Gorbunova NA, Petrunina IP. Waste management problems in manufacturing products by enterprises of the industry. Meat Industry. 2023;(9):32–36. (In Russ.). https://www.elibrary.ru/WAGVLY
- Fayvishevsky ML. Improving the processing of certain meat by-products. Meat Technology. 2022;233(5):44–47. (In Russ.). https://www.elibrary.ru/UQVXFX
- Fayvishevsky ML. Ideas for improving the processing and use of animal raw materials. Meat Technology. 2023;247(7):40–41. (In Russ.). https://www.elibrary.ru/ZPZPGT
- Uglov VA, Shelepov VG, Borodai EV, Slepchuk VA. Prospects for Using Secondary Resources of Meat Processing Industries Based on Patent Research. Innovations and Food Safety. 2020;(3):39–46. (In Russ.). https://doi.org/10.31677/2311-0651-2020-29-3-39-46; https://www.elibrary.ru/PORRLH
- Ivanov AS, Ivanov VA, Sidorenko DS, Oganezov NI, Rogozhin KV. Breakthrough Electric Wave Technologies and Equipment for Waste Disposal. Management of Municipal Waste as an Important Factor of Sustainable Urban Development. 2018;(1):103–110. (In Russ.). https://www.elibrary.ru/SQZUAG
- Krapivnitskaya TK, Bulanova SA, Denisenko AN, Bogdashov AA, Vikharev AA, Sobolev DI, et al. Microwave system for processing solid organic raw materials. Microwave and Telecommunication Technology. 2021;(3):380–381. (In Russ.). https://www.elibrary.ru/WWUUEA
- Tukhvatullin MI, Arkhangelsky YuS, Akhmetshin AT. Features of Hybrid Microwaveelectrical Installations. Agricultural technology and energy supply. 2021;(4):30–36. (In Russ.). https://www.elibrary.ru/NACSLZ
- Aipov RS, Gabitov II, Tuhvatullin MI, Linenko AV, Tuktarov MF, Akhmetshin AT. Process Unit for Drying Sawn Timber Rotating in the Ultra High Frequency Field with a Discrete Arrangement of Magnetrons. Bulgarian Journal of Agricultural Science. 2019;25(Suppl. 2):3–11.
- Fomin DG, Dudarev NV, Darovskikh SN, Klygach DS, Vakhitov MG. Specific Features of Volume-Modular Technology Application in the Design of Microwave Electronic Devices. Ural Radio Engineering Journal. 2021;5(2):91–103. (In Russ.). https://doi.org/10.15826/urej.2021.5.2.001; https://www.elibrary.ru/SVKGKQ
- Novikova GV, Zhdankin GV, Belova MV, Mikhailova OV. Installations for Complex Influence of Electrophysical Factors on Raw Materials. News of the National Academy of Sciences of the Republic of Kazakhstan (Series of Geology and Technical Sciences). 2019;4(436):54–61. https://doi.org/10.32014/2019.2518-170X.97
- Belova MV, Zhdankin GV, Novikova GV. Creation of Microwave Installation of Container Type for Heat Treatment of Blood and Fat-Containing Raw Materials. Vestnik of the Kazan State Agrarian University. 2016;11(4):74–78. (In Russ.). https://doi.org/10.12737/article_592fc7d6407e48.58575824; https://www.elibrary.ru/YPLNDD
- Mikhailova O, Gdankin G, Prosviryakova M, Novikova G, Storchevoy V. Microwave Heating of Slaughterhouse Confiscations to Increase the Feed Value. IOP Conference Series: Earth and Environmental Science. 2021;857:012002. https://doi.org/10.1088/1755-1315/857/1/012002
- Novikova GV, Prosviryakova MV, Mikhailova OV, Tikhonov AA, Fedorov ME, Romanov PN. Development of an Installation with a Microwave Power Supply for Grinding and Melting of Fat Raw Materials in a Non-Standard Resonator. Bulletin NGIEI. 2023;140(1):34−43. (In Russ.). https://www.elibrary.ru/MOMWOF
- Tikhonov AA, Kazakov AV, Belova MV, Mikhailova OV, Novikova GV. Icrowave Unit with a Quasi-Stationary Resonator for Melting of Decontaminated Fat from Milled Fat-Containing Material in Continuous Mode. Russia patent RU 2726565C1. 2020.
- Prosviryakova MV, Tikhonov AA, Ziganshin BG, Mikhailova OV, Novikova GV. Intensification of the Process of Extracting Fat from Fat-Containing Raw Materials by Dielectric Heating. Bulletin of the Kazan State Agrarian University. 2022;17(3):96–105. (In Russ.). https://www.elibrary.ru/VMESJJ
- Alekseychik LV, Kurushin AA. Simulation of Microwave Dielectric Resonator by Plane Electromagnetic Wave. Journal of Radio Electronics. 2020;(11):6. (In Russ.). https://www.elibrary.ru/XYFOXB
- Titov EV, Soshnikov AA, Vasiliev VYu, Solovskoy AS. Computer Simulation of Superimposed Electromagnetic Waves from Electromagnetic Field Sources in a Wide Frequency Range. Bulletin of Altai State Agricultural University. 2022;(3):102−108. (In Russ.). https://www.elibrary.ru/WJXMFX
- Sivyakov BK, Grigoryan SV. Mathematical Modeling of Multi-Wave Microwave Installations for Drying Products. Journal of Electrotechnics. 2019;(4):5−11. (In Russ.). https://www.elibrary.ru/ZTXFUW
- Ryabchenko VYu, Paslyon VV. Computer Simulation of Objects with CST Microwave Studio. Modern Issues in Radioelectronics and Telecommunications. 2018;(1):139. (In Russ.). https://www.elibrary.ru/QIKITH
- Voronov EV. Research and Justification of Parameters for a Microwave Setup Implementing a Resource-Saving Technology for Heat Treatment of Meat Waste. Bulletin NGIEI. 2023;(8):33–43. (In Russ.). https://www.elibrary.ru/POTHMG