Thermal Insulating Paint: Are the Properties Attributed to the Paint Correct?
https://doi.org/10.21822/2073-6185-2024-51-2-208-215
Abstract
Objective. The purpose of the study is to assess the quality of energy-saving and environmentally friendly heat-insulating paint, consisting of a binder component - acrylic (polymethyl methacrylate) and aluminosilicate or glass hollow spheres with a diameter of 0.02– 0.3 mm.
Method. During the study, methods of experimental study, analysis and evaluation of the composition of thermal insulation paint were used.
Result. The results of an analytical assessment of the properties of heat-insulating paint are presented. It was experimentally determined that heat-insulating paint has good protective properties against corrosion and for waterproofing.
Conclusion. The use of heat-insulating paint to prevent condensation on cold water pipes is possible with a thickness of up to 3-4 mm. The thickness of the layer depends on many factors and is determined by calculation. The use of energy-saving paint for insulating buildings is possible, but only if traditional thermal insulation is used together.
About the Author
M. N. Kokoev
H.M. Berbekov Kabardino-Balkar State University
Russian Federation
Russian Federation
Mukhamed N. Kokoev, Dr. Sci. (Eng.), Adviser to RAASN, Academician of RIA and RANS, Prof., Department of Construction Production
173 Chernyshevsky St., Nalchik 360004
References
1. Bukhmirov V.V., Gaskov A.K. Application of thin-film coatings for energy saving purposes. Bulletin of ISEU. 2015; 5: 1-7. (In Russ)
2. Bukhmirov V.V., Gaskov A.K. Study of the energy efficiency of coatings for building insulation. Bulletin of ISUE. 2015;8:7-11. (In Russ)
3. Thermal insulation at a low price. Corundum Classic. https://zincor-lkm.ru/product/zhidkaya_teploizolyaciya_korund-klassik/ (accessed 01.02.2022) (In Russ)
4. Patent RU 2674484 class. C04B 18/082. Raw mixture for heat-resistant heat-insulating shotcrete concrete. Publ. 12/11/2018. https://patents.google.com/patent/RU2674484C1/ru (accessed 01.02.2024) (In Russ)
5. Plexiglas: thermal and mechanical characteristics (2023). http://thermalinfo.ru/svojstvamaterialov/plastmassa-i-plastik/orgsteklo-teplovye-i-ehanicheskieharakteristiki (accessed 01.02.2024) (In Russ)
6. Patent RU 2236905 class. С04 В 10/18. Method for producing microspheres from fly ash of thermal power plants. Publ. 2004-09-27. (In Russ)
7. Patent RU 2573496 class. C03B 19/10 Method for producing glass microspheres. Publ. 2016-01-20. (In Russian)
8. Hoard, J.L.; Sullenger, D.B.; Kennard, C.H.L.; Hughes, R.E. The structure analysis of β-rhombohedral boron J. Solid State Chem. 1970; 1 (2): 268-277.
9. Givargizov E.I. Growth of thread-shaped and lamellar crystals from steam. Moskow: Science. 1977. p. 303. (In Russ.)
10. Calculation of the thickness of thermal insulation according to SP 61.13330.2012. https://www.isotecti.ru/raschet-tolshchiny-teplovoy-izolyacii-po-sp-61133302012 (accessed 01.02.2024) (In Russ.)
11. Composite thermal insulation for the fleet. Shipbuilding. No. 4. (November 2023) https://portnews.ru/magazine/a460/ (accessed 01.02.2024) (In Russ.)
12. Akterm-Anticondensate - thermal insulation. https://zincor-lkm.ru/product/zhidkaya_teploizolyaciya_akterm-antikondensat/#:~:text (accessed 01.02.2024) (In Russ.)
13. Scope of application of microspheres. https://inoteck.net/ (accessed 01.02.2024) (In Russ)
14. Liquid glass-cemic thin-film heat-insulating coatings "AKTERM" Certificate of Conformity. file:///D:/Downloads/sert_ti%20(2).pdf (accessed 01.02.2024) (In Russ)
15. Thermal conductivity of air depending on temperature http://thermalinfo.ru/svojstva-gazov/gazovyesmesi/teploprovodnost-vozduha-v-zavisimosti-ot-temperatury-i-davleniya (accessed 01.02.2024) (In Russ)
16. Kokoev M.N., Fedorov V.T. RF patent N 2144595. Vacuum heat-insulating product. 1997. (In Russ)
17. Kokoev M.N., Fedorov V.T. Heat-insulating product with extremely low material consumption. Construction Materials. 1998;9:10-12. (In Russ)
18. Fedorov V.T., Kokoev M.N. Energy-saving vacuum-powder panel for building cladding. Bulletin of the Department of Building Sciences of the Russian Academy of Architecture and Building Sciences. (In Russ.)
19. Kokoev M.N., Fedorov V.T. Influence of the size and shape of a vacuum-powder panel on its thermal conductivity. Bulletin of the Department of Building Sciences of the Russian Academy of Architecture and Building Sciences. 2019; 2: 284-290. (In Russ)
20. R. Caps, J. Fricke. Konzepte fuer den Einsatz von evakuierten Daemmungen bei Passivhaeusern, Tagungsband 4. Passivhaus-Tagung, Kassel. 2000. (German)
21. Konzepte für den Einsatz, von evakuirten Dämmungen bei Passivhäusern. 4 Passivhaus Tagung, Kassel, Marz 2000;171–177. (German)
22. Manankov V.M. Reflective thermal insulation in energy-saving construction. Bulletin of MGSU. 2013;3:319-326. (In Russ.)
23. Ferle A. Einsatz von Vacuumdämmung in Hochbau. 8 Europäische Passivhaustagung. Krems, Austria. 2004; 171–177. (German)
24. Danilevsky L.N. Vacuum thermal insulation and prospects for its use in construction. http://portal-energo.ru/articles/details/id/668 (accessed 01.02.2024) (In Russ)
Review
For citations:
Kokoev M.N. Thermal Insulating Paint: Are the Properties Attributed to the Paint Correct? Herald of Dagestan State Technical University. Technical Sciences. 2024;51(2):208-215. (In Russ.) https://doi.org/10.21822/2073-6185-2024-51-2-208-215
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