CALCULATION OF THE EFFICIENCY OF HEAT TRANSFER THROUGH THE RIBBED SURFACE OF THE PYROLYSIS REACTOR
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Abstract
In this article, the thermal parameters of the biomass pyrolysis thermal processing device were calculated. Also, the flow of flue gas at a temperature of 500-600 ℃ during the pyrolysis process, its movement on the ribbed surfaces of the pyrolysis reactor, and its effect on the water boiler on the outer wall of the reactor were studied. The bioreactor is made of the "pipe in a pipe" type, pyrolysis of biomass takes place in its inner pipe, and water is heated in the outer pipe due to the heat lost to the environment. At the same time, the internal pipe of the reactor allows obtaining gaseous fuel by thermal processing of biomass, and the heat in the external pipe of the boiler solves the problem of providing consumers with hot water in the heating system. The proposed device thermally processes agricultural biomass waste and provides autonomous consumers with alternative fuels and thermal energy at the same time.
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1. Uzoqov G‘.N., Davlonov X.A.. Gelioissiqxonalarning energiya tejamkor isitish tizimlari. Monografiya, - T.: «Voris-nashriyot», 2019. 144 bet.
2. В. В. Хасхачих, О. М. Ларина, Г. А. Сычев, Г. Я. Герасимов, В. М. Зайченко, Пиролитические методы термической переработки твердых коммунальных отходов, ТВТ, 2021, том 59, выпуск 3, 467–480. DOI: https://doi.org/10.31857/S0040364421030078
3. Uzakov, G. N, Davlonov X. A, Rustamov S. Sh. Biomassa pirolizi tajribalarining mahsulot balansi tahlili. G. N. Uzakov. Muqobil energetika. – 2023. – Vol. 9, No. 2. – P. 48-55.
4. Бухмиров В.В. Тепломассообмен: Учебник в 2-х т. Т.I/ФГБОУВО «Ивановский государственный энергетический университет имени В.И. Ленина». – Иваново, 2023. – 364 с.
5. Совершенствование тепловой работы туннельных печей для обжига керамических изделий: автореферат диссертации на соискание ученой степени кандидата технических наук: 05.14.04 / Ракутина Дарья Валериевна. - Иваново, 2006. - 26 с.
6. Таймаров М. А., Ахметова Р. В., Маргулис С. М., Касимова Л. И. Влияние кавитационной обработки на выгорание частиц мазута в топках котлов // Известия вузов. Проблемы энергетики. 2018. №9-10. (дата обращения: 14.11.2024).
7. Терех А. М., Шаповал О. Е., Письменный Е. Н. Среднеповерхностный теплообмен в поперечно-омываемых коридорных пучках труб с разрезным спиральноленточным оребрением // Промышленная теплотехника. – 2001. – Т. 23 – № 1-2 – с. 35- 41.
8. Юдин В.Ф. Теплообмен поперечно-оребренных труб. – Л.: Машиностроение, 1982. – 189 с.
9. Письменный Е. Н., Терех А. М. Обобщенный метод расчета конвективного теплообмена поперечно-омываемых пучков труб с внешним кольцевым и спиральноленточным оребрением // Теплоэнергетика. – 1993. – № 5. – с. 52-56.
10. Tony B. Challenges and Opportunities in Fast Pyrolysis of Biomass: Part I, Johnson Matthey Technology Review, Volume 62, Issue 1, Jan 2018, p. 118 – 130. DOI: https://doi.org/10.1595/205651318X696693
11. Uzoqov.G.N., Rustamov.S.Sh. Biochiqindilarni qayta ishlash zarurati va mamlakatdagi biomassa xom ashyo zaxirasi. Educational Research in Universal Sciences ISSN: 2181-3515 Volume 2. Special issue 5. 2023.
12. Rustamov Suhrob Shuhrat o‘g‘li. Efficiency of Thermal Recycling of Biowaste in the Energy Supply System of Greenhouses. (2022). The Peerian Journal, 10, 5–9.