WIND ENERGY IN THE MANUFACTURE OF PENOSTEKL AND KERAMZIT
https://doi.org/10.21822/2073-6185-2019-46-1-187-194
Abstract
Objectives. Foamglass and expanded clay are absolutely fireproof, reliable and environmentally friendly heat insulators. But in the cost of their production, energy costs reach 40 ... 60%.
Method. A part of the thermal energy required for the production of building materials was proposed to be developed by a wind power station (WPP).
Result. A heating plant with a Darya turbine capable of operating in severe climatic conditions has been developed. The bearing part of the wind power installation consists of three simple masts, working mainly in compression. The masts are symmetrically placed relative to the center of the wind farm. The design feature is that the vertical shaft with the turbine is suspended at the top of the swivel at the point where the three almost horizontal cables meet. The free ends of the ropes pass through the blocks on the tops of the masts and are secured with anchors at ground level. Therefore, the shaft works mainly in tension and torsion and is well opposed to transverse vibrations. A simple generator without equipment for voltage and frequency regulation operates at WPPs, as for electric heaters of furnaces to which the generator current is supplied, power conditioning is not required. With a decrease in wind speed and a drop in HPP power, the automation supplies more fuel to the burners to maintain the temperature according to the regulations.
Conclusion. Thus, the WPP capacity fills a part of the required heat output of the furnaces, and the missing part of the heat output is compensated by burning gas or fuel oil. If the WPP is located near the enterprise, then electricity is supplied to the consumer without transformers. It is cheaper to lay cables of a larger section than to complete a wind farm with two power transformers.
About the Authors
M. N. KokoevRussian Federation
Dr. Sci. (Technical), Professor.
173 Chernyshevsky Str., Nalchik 360004.
V. T. Fedorov
Russian Federation
Dr. Sci. (Technical), Professor.
173 Chernyshevsky Str., Nalchik 360004.
G. N. Hadgishalapov
Russian Federation
Dr. Sci. (Technical), Professor, Dean.
70 I. Shamilya Ave., Makhachkala 367026.
References
1. Artamonov M.V. Chemical technology of glass and glass bottles. - M .: stroiizdat, 1983. - 432 p. [Artamonov M.V. Chemical technology of glass and glass ceramics. - M .: stroiizdat, 1983. - 432 p. Artamonov M.V. Chemical technology of glass and glass bottles. - M.: Stroiizdat, 1983. - 432 p. (In Russ)]
2. Arkharov A. M. Kriogennyye sistemy. Osnovy proyektirovaniya apparatov i ustano-vok. M.: Mashinostroyeniye. - 1987. - 536 s. Arkharov A.M. Cryogenic systems. Fundamentals of apparatus and installations. M .: Mechanical Engineering. -1987. -536 p. [Arkharov A.M. Cryogenic systems. Fundamentals of apparatus design and installation. M .: Mechanical Engineering. - 1987. - 536 s. Arkharov A.M. Cryogenic systems. Fundamentals of apparatus and installations. M.: Mechanical Engineering. -1987. 536 p. (In Russ)]
3. Patent RF 2144595. Vakuumnoye teploizolyatsionnoye izdeliye / Kokoyev M.N., Fedorov V.T. - 1997. RF patent 2144595. Vacuum insulation product / Kokoev, M.N., Fedorov, V.T. - 1997. [RF patent 2144595. Vacuum insulation product (Kokoev M.N., Fedorov V.T. - 1997. RF patent 2144595. Vacuum insulation product / Kokoev, M.N., Fedorov, V.T. - 1997. In Russ)]
4. Kokoyev M.N., Fedorov V.T. Teploizolyatsionnoye izdeliye s predel'no nizkoy mate-rialoyemkost'yu // Stroitel'nyye materialy - 1998, N 9.- S. 10-12. Kokoev M.N., Fedorov V.T. Thermal insulation product with extremely low material consumption // Construction materials - 1998, N 9.- P. 10-12. [Kokoev M.N., Fedorov V.T. Thermal insulation product with extremely low material capacity // Building materials - 1998, N 9.- P. 10-12. Kokoev, M.N., Fedorov V.T. Thermal insulation product with extremely low material consumption // Construction materials - 1998, N 9.- P. 10-12. In Russ)]
5. R. Caps, J. Fricke, Konzepte fuer den Einsatz von evakuierten Daemmungen bei Pas-sivhaeusern, Tagungsband 4. Passivhaus-Tagung, Kassel - 2000.
6. Fedorov V.T. Vakuumirovannoye penosteklo - novyy teploizolyator. // Vestnik Ka-bardino-Balkarskogo gosuniversiteta. Seriya fizicheskiye nauki, vyp. N 8. - 2003. - S. 53-54. Fedorov V.T. Vacuum foam glass is a new heat insulator. // Bulletin of the Kabardino-Balkarian State University. A series of physical sciences, vol. N 8. - 2003. - p. 53- 54. [Fedorov V.T. Vacuum foam glass is a new heat insulator. // Bulletin of the Ka-bardino-Balkarian State University. A series of physical sciences, vol. N 8. - 2003. - p. 53-54. Fedorov V.T. Vacuum foam glass is a new heat insulator. // Bulletin of the Kabardino-Balkarian State University. A series of physical sciences, vol. N 8. - 2003. - p. 53-54. In Russ)]
7. Fedorov V.T., Kokoyev M.N. Energosberegayushchaya vakuumno-poroshkovaya panel' dlya oblitsovki zdaniy. // Vestnik Otdeleniya stroitel'nykh nauk RAASN, 2010 g., Tom 2, S. 219-226. Fedorov V.T., Kokoev M.N. Energy-saving vacuum powder panel for lining buildings. // Bulletin of the Department of Building Sciences RAACS, 2010, Volume 2, p. 219-226. [ Fedorov V.T., Kokoev M.N. Energy-saving vacuum powder panel for lining buildings. // Bulletin of the Department of Building Sciences RAACS, 2010, Volume 2, p. 219-226. Fedorov V.T., Kokoev M.N. Energy-saving vacuum powder panel for lining buildings. // Bulletin of the Department of Building Sciences RAACS, 2010, Volume 2, p. 219- 226. In Russ)]
8. Penositall. Foamsitall. http://www.penosytal.com/compare_asr.html - 2018. [Passive. Foamsitall. http://www.penosytal.com/compare_asr.html - 2018.
9. . Nanazashvili I.KH. Stroitel'nyye materialy, izdeliya i konstruktsii. Spravochnik. - M.: Vysshaya shkola, 1990. - 495 s.. [Nanazashvili I.Kh. Construction materials, products and designs. Directory. - M .: Higher School, 10. Onatskiy S.P. Proizvodstvo keramzita. - M.: Stroyizdat, -1971. - 312 s.
10. Onatsky S.P. Production of expanded clay. - M .: stroiizdat, - 1971. - 312 p. [Onatsky S.P. Production of expanded clay. - M .: stroiizdat, -1971. - 312 s. Onatsky S.P. Production of expanded clay. - M.: Stroiizdat, - 1971. - 312 p. In Russ)] In Russ)]
11. Umwelt Bundesamt BRD - https://www.umweltbundesamt.de/themen/klima- ener-gie / erneuerbare-energien / erneuerbare-energien-in-zahlen # statusquo. - 2017.
12. China's "clean" energy. China's clean energy. https://econet.ru/articles/178717- 2017.
13. Erich Hau. Windkraftanlagen. Springer-Verlag. Berlin, Heidelberg. 2008. 910 Seiten.
14. Twidell J., Ware A. Wind Energy // Renewable Energy Sources. - M .: Energoatomizdat, 1990. - 393 p. 15. DOE's 500-kW variable speed Darrieus machine http://www.awea.org/faq/vawt.html
15. Winds in the Republic of Dagestan - 2017. Winds in the Republic of Dagestan - 2017. http://energywind.ru/recomendacii/karta-rossii/severnyij-kavkaz/respublika-dagestan {In Russ)]
16. Map of the Winds of Russia - 2017. Map of the Winds of Russia - 2017.http://energywind.ru/recomendacii/karta-rossii In Russ)]
17. Comparative analysis of wind turbines. Comparative analysis of wind turbines. http://www.ecoteco.ru/index.php?id=1198 - 2010. In Russ)]
18. Patent RF 2454564. Vetrosilovaya ustanovka s rotorom Dar'ye / Fedorov V.T., Be-vov R.K. - 2010. Patent of the Russian Federation 2454564. Wind power installation with Darya rotor / Fedorov V.T., Bevov R.K. - 2010 [RF patent 2454564. Wind power plant with a Darya rotor / V. Fedorov, R. Be-Beow - 2010. Patent of the Russian Federation 2454564. Wind power installation with Darya rotor / Fedorov V.T., Bevov R.K. - 2010. In Russ)]
19. Kokoyev M.N. Teplofikatsionnaya vetrosilovaya ustanovka // Energiya: ekonomika, tekhnika, ekologiya. - 2007. - N 3. - S.18-22 [Kokoev M.N. Heating wind power installation // Energy: economy, technology, ecology. - 2007. - N 3. - P.18-22. In Russ)]
20. Tekhnologiya proizvodstva keramzita. Production technology of expanded clay. https://keramzitik.ru/tekhnologiia-proizvodstva-keramzita Production technology of expanded clay. Production technology of expanded clay. https://keramzitik.ru/tekhnologiia-proizvodstva-keramzita/
Review
For citations:
Kokoev M.N., Fedorov V.T., Hadgishalapov G.N. WIND ENERGY IN THE MANUFACTURE OF PENOSTEKL AND KERAMZIT. Herald of Dagestan State Technical University. Technical Sciences. 2019;46(1):187-194. (In Russ.) https://doi.org/10.21822/2073-6185-2019-46-1-187-194