Effectiveness Assessment of Energy-Saving System of Organized Supply and Exhaust Ventilation for Multi-Storey Buildings with Low Level Thermal Protection
https://doi.org/10.21122/2227-1031-2022-21-2-114-128
Abstract
By usage of the technical and economic calculation method developed by the authors for installations with recuperative-type heat exchangers, the operational modes of the centralized supply and exhaust system of organized ventilation, in which the supplying air is heated by the solar radiation heat and the heat of the air removed from the premises, have been investigated in the paper. The paper presents results of the thermal and economic efficiency assessment of such ventilation system for multi-storey buildings. A comparison of the thermal energy consumption for the needs of heating and ventilation through the use of the proposed ventilation system has been made for two variants of buildings – with the thermal protection level of enclosing structures that meets modern regulatory requirements (buildings with heat consumption up to 130 kW×h/(m2×year)), and for a building similar in terms of planning structure, but with enclosing structures, the insulation level of which corresponds to buildings built before 1993 (buildings with heat consumption up to 260 kW×h/(m2×year)). The temperature conditions have been determined under which it becomes necessary to turn on the operation of devices for additional (peak) heating of the supply air, when the thermal potential of solar radiation and secondary energy resources is insufficient to provide the calculated temperature of the supply air. For the ventilation system under consideration, it has been established that the thermal resistance of the building envelope influences the indicators of the thermodynamic and economic efficiency of the proposed solution. The climatic conditions under which the utilization of the exhaust air heat in the proposed ventilation system is technically justified and economically expedient have been determined. The results of the research
About the Authors
V. A. ZafatayeuBelarus
Novopolotsk
S. V. Lankovich
Belarus
Novopolotsk
T. I. Karaliova
Belarus
Novopolotsk
A. M. Niyakovskii
Belarus
Address for correspondence:
Niyakovskii Aleksandr M. –
Polotsk State University,
29, Blokhin str.,
211440, Novopolotsk, Republic of Belarus.
Tel.: +375 214 59-95-40
a.m.niyakovski@pdu.by
References
1. Energy Balance of the Republic of Belarus. Statistical Compendium. Minsk, National Statistical Committee of the Republic of Belarus, 2020. 152 (in Russian).
2. United Nations Development Programme. Terminal Evaluation of UNDP/GEF Project: Belarus: Improving Energy Efficiency in Residential Buildings: Terminal Evaluation Report. GEF [Global Environmental Fund] Project ID: 4228; UNDP [United Nations Development Programme] PIMS Project ID: 4290. Minsk, 2018. Available at: http://energoeffekt.gov.by/effbuild/download/33.pdf. (Accessed 27 August 2021) (in Russian).
3. Kuznetsov Yu. V., Fedorova S. V. (2008) Energy Saving Technologies and Measures in Energy Saving Systems. Yekaterinburg, Ural Branch of the Russian Academy of Sciences. 356 (in Russian).
4. Molodezhnikova L. I. (2011) Energy Saving in Thermal Power Engineering and Heat Technologies. Tomsk, Tomsk Polytechnic University. 205 (in Russian).
5. Grebenkov A. Zh. Main Areas of Implementation of the UNDP/GEF Project “Improving the Energy Efficiency of Residential Buildings in the Republic of Belarus”. IV Mezhdunar. Konf. “Energosberezhenie i Povyshenie Energoeffektivnosti. Energoeffektivnost' v Zhilom Sektore: Aktual'nye Napravleniya i Prakticheskii Opyt”, Minsk, 17 Okt. 2013 g. [IV International Conference “Energy Saving and Energy Efficiency Improvement. Energy Efficiency in the Residential Sector: Current Trends and Practical Experience”, Minsk, Octob. 17, 2013]. Available at: http://energoeffekt.gov.by/effbuild/download/53.pdf. (Accessed 27 August 2021) (in Russian).
6. Khroustalev B. M., Romanyuk V. N. (2017) Expansion of the Energy-Saving Base in the Context of District Heating and the Dominance of Energy-Intensive Technologies. Energoeffektivnost [Energy Efficiency], (12), 20–27 (in Russian).
7. Zhukova I. S., Kazakova I. S. (2017) Assessment of Reducing Heating Costs by Utilizing the Heat of Supply and Exhaust Ventilation in office Buildings. Molodezh' i Sistemnaya Modernizatsiya Strany: Sb. Nauch. St. 2-i Mezhdunar. Nauch. Konf. Stud. i Molod. Uchenykh [Youth and Systemic Modernization of the Country: Collection of Scientific Papers of the 2nd International Scientific Conference of Students and Young Scientists]. Kursk, Universitetskaya Kniga Publ., 293–296 (in Russian).
8. Ignatkin I. Yu. (2018) Optimization of the Heat Recovery Efficiency of an Air-to-Air Heat Exchanger. Vestnik Federalnogo Gosudarstvennogo Obrazovatel'nogo Uchrezhdeniya Vysshego Professionalnogo Obrazovaniya “Moskovskii Gosudarstvennyi Agroinzhenernyi Universitet imeni V. P. Goryachkina” = Vestnik of Federal State Educational Institution of Higher Professional Education “Mos-cow State Agroengineering University named after V. P. Go-ryachkin”, 83 (1), 34–39. https://doi.org/10.26897/1728-7936-2018-1-34-39 (in Russian).
9. Tyabina D. A., Manokhin P. E. (2018) Supply and Exhaust Ventilation System with Heat Recovery as a Way to Save Energy. Sovremennye Nauchnye Issledovaniya i Razrabotki [Modern Research and Development], 1 (12), 587–591 (in Russian).
10. Chebotareva E. O., Anikin E. N., Korobova M. M., Martynov E. N. (2020) Determination of the Influence of the Installation for Heat Recovery on the Efficiency and Cost of Mechanical Ventilation. Student i Nauka [Student and Science], 14 (3), 65–71 (in Russian).
11. Kostuganov A. B. (2020) Study of the Efficiency of Heat Utilization in Recuperative Heat Exchangers of Autonomous Ventilation Installations. Gradostroitelstvo i Arkhitektura = Urban Сonstruction and Architecture, 10 (1), 36–46. https://doi.org/10.17673/Vestnik.2020.01.6 (in Russian).
12. Zafataev V. A., Lankovich S. V., Lapezo A. S. (2020) Thermodynamic Substantiation of the Use of the Supply-and-Exhaust Ventilation System of Buildings with the Utilization of the Heat of the Removed Air in the Conditions of its Operation at Low Outdoor Temperatures. Arkhitekturno-Stroitel'nyi Kompleks: Problemy, Perspektivy, Innovatsii: Elektron. Sb. St. II Mezhdunar. Nauch. Konf., Novopolotsk, 28–29 Noyab. 2019 g. [Architectural and Construction Complex: Problems, Prospects, Innovations: Electronic Collection of Papers of the II International Scientific Conference, Novopolotsk, Novem. 28–29, 2019]. Polotsk, Polotsk State Universuty; Edited by L. M. Parfenova. Novopolotsk, 499–513 (in Russian).
13. Lipko V. I., Zafataev V. A., Lankovich S. V. (2020) Thermal Ventilation Device. Patent BY No 22969 (in Russian).
14. Fialko I. F., Statsenko A. S. (2009) Power Efficiency of Systems Applied for Heating Building and Structure External Walls With Ventilated Air Spaces. Enеrgеtika. Izvestiya Vysshikh Uchebnykh Zavedenii i Energeticheskikh Ob’edinenii SNG = Energetika. Proceedings of CIS Higher Education Institutions and Power Engineering Association, (3), 82–87 (in Russian).
15. Protasevich A. M., Krutilin A. B. (2011) Aerodynamic Calculation of Ventilated Facade Systems of Buildings with Solid Screens. Zhilishchnoe Stroitelstvo = Housing Construction, (7), 37–40 (in Russian).
16. Olshevsky V. Ya., Dontsova A. E., Kalinina A. V. (2019) Energy Efficiency of Hinged Ventilated Facades. AlfaBuild, 10 (3), 48–58 (in Russian).
17. Popova E. E., Gorodilova A. E., Kukolev M. I. (2017) Improving the Energy Efficiency of Houses Using Hinged Ventilated Facades. Rostovskii Nauchnyi Zhurnal [Rostov Scientific Journal], (12), 367–378 (in Russian).
18. Emelyanova V. A., Nemova D. V., Miftakhova D. R. (2014) Optimized Design of a Hinged Ventilated Façade. Inzhenerno-Stroitelny Zhurnal = Magazine of Civil Engineering, 50 (6), 53–66 (in Russian).
19. Nemova D. V. (2013) Integral Characteristics of Thermogravitational Convection in the Air Gap of Hinged Ventilated Facades. Inzhenerno-Stroitelny Zhurnal = Magazine of Civil Engineering, 37 (2), 24–36 (in Russian).
20. Petrichenko M. R., Petrochenko M. V., Yavtushenko E. B. (2013) Hydraulically Optimal Ventilated Slot. Inzhenerno-Stroitelny Zhurnal = Magazine of Civil Engineering, 37 (2), 35–40 (in Russian).
21. Yavtushenko E. B. (2013) Fundamentals of Hydraulic Calculation of Suspended Ventilated Facades. Stroitelstvo Unikalnykh Zdaniy i Sooruzheniy = Construction of Unique Buildings and Structures, 7 (2), 55–61 (in Russian).
22. Liu L., Yu Z., Zhang H. (2017) Simulation Study of an Innovative Ventilated Facade Utilizing Indoor Exhaust Air. Energy Procedia, 121, 126–133. https://doi.org/10.1016/j.egypro.2017.08.009.
23. Shahrestania M., Yaoa R., Essaha E., Shaoa L., Oliveirab A. C., Hepbaslic A., Biyikc E., del Cañod T., Ricod E., Lechónd J. L. (2017) Experimental and Numerical Studies to Assess the Energy Performance of Naturally Ventilated PV Faсade Systems. Solar Energy, 147, 37–51. https://doi.org/10.1016/j.solener.2017.02.034.
24. Theodosiou T., Tsikaloudaki K., Bikas D. (2017) Analysis of the Thermal Bridging Effect on Ventilated Facades. Procedia Environmental Sciences, 38, 397–404. https://doi.org/10.1016/j.proenv.2017.03.121.
25. Khuzhaev P. S., Nazarov R. S., Alimardonov A. B., Sultonmamadov Kh. P. (2017) Improving the Energy Efficiency of Buildings under the Condition of Utilizing the Heat of Exhaust Air. Byulleten Nauki i Praktiki [Bulletin of Science and Practice], 16 (3), 57–63. Available at: https://www.elibrary.ru/item.asp?id=28856245. (Accessed: 21 October 2021) (in Russian).
26. Mandapati M. J. K., Chandra K. S., Narayan G. S. (2014) Thermodynamic Performance Evaluation of an Air-Air Heat Pipe Heat Exchanger. Thermal Science, 18 (4), 1343–1353. https://doi.org/10.2298/tsci121214123k.
27. Anisimov S. M., Vasil'ev V. F., Edlikovskii A., Pandelidis D. (2014) Extract Air Heat Recovery in a Cross-Flow Heat Exchanger. Santekhnika, Otoplenie, Konditsionirovanie [Plumbing, Heating, Air Conditioning], 151 (7), 79–83 (in Russian).
28. Zykov A. P., Barkov A. V. (2020) Increasing the Energy Efficiency of Ventilation and Air Conditioning Systems in Public Buildings Through the Use of the Exhaust Air Heat Recovery Technology. Vysokie Tekhnologii i Innovatsii v Nauke: Sb. Izbran. St. Mezhdunar. Nauch. Konf., Sankt-Peterburg, 28 Maya 2020 g. [High Technologies and Innovations in Science: Collection of Selected Papers of the International Scientific Conference]. Saint-Petersburg, 160–166 (in Russian).
29. Ovchinnikov Yu. V., Grigorieva O. K., Frantseva A. A. (2015) Energy Saving in Heat Power Engineering and Heat Technologies. Novosibirsk, Novosibirsk State Technical University Publ., 258 (in Russian).
30. Heat Energy Tariffs for Individuals. Republican Unitary Enterprise Vitebskenergo. Available at: https://www.vi tebsk.energo.by/media/uploads/2021/01/13/01012021-.pdf. (Accessed 27 August 2021) (in Russian).
31. Piir A. E., Kozak O. A., Kuntysh V. B. (2017) Method for Decrease of Standard Heat Losses in Residential Buildings. Nauka i Tekhnika = Science & Technique, 16 (2), 113–118. https://doi.org/10.21122/2227-1031-2017-16-2-113-118 (in Russian).
32. Borukhava L. V., Shybeka A. S. (2018) Introduction of Norms for Air Exchange in Rooms and Energy Efficiency of Residential Buildings. Nauka i Tekhnika = Science & Technique, 17 (4), 306–313. https://doi.org/10.21122/ 2227-1031-2018-17-4-306-313 (in Russian).
33. Zafataev V. A., Lankovich S. V. (2021) Evaluation of the Effectiveness of Organized Supply and Exhaust Ventilation of a Multi-Storey Building in the Conditions of Polluted Atmospheric Air in Large Cities. Innovatsionnye Tekhnologii v Vodnom, Kommunal'nom Khozyaistve i Vod-nom Transporte: Materialy Resp. Nauch.-Tekhn. Konf., g. Minsk, 20–21 Maya 2021 g. [Innovative Technologies in Water, Utilities and Water Transport: Proceedings of the Republican Scientific and Technical Conference, Minsk, May 20–21, 2021]. Minsk, 13–17 (in Russian).
34. Bessonny A. N., Dreitser G. A., Kuntysh V. B. (1996) Fundamentals of Calculation and Design of Heat Exchangers for Air Cooling. Saint Petersburg, Nedra Publ., 512 (in Russian).
35. Mankovsky O. N., Tolchinsky A. R., Aleksandrov M. V. (1976) Heat Exchange Equipment of Chemical Production. Leningrad, Khimiya Publ., 369 (in Russian).
36. Ganzha V. L. (2007) Fundamentals of Efficient Use of Energy Resources: Theory and Practice of Energy Saving. Minsk, Belorusskaya Nauka Publ., 451 (in Russian).
37. Series of Houses and Layout. Available at: http://tip doma.com/serii-domov-belarus/. (Accessed 11 November 2017) (in Russian).
38. Diachek P. I., Zakharevich A. E. (2009) Simulation of Micro-Climate in Heated Buildings. Enеrgеtika. Izvestiya Vysshikh Uchebnykh Zavedenii i Energeticheskikh Ob’edinenii SNG = Energetika. Proceedings of CIS Higher Education Institutions and Power Engineering Association, (2), 34–47 (in Russian).
39. Sazonov E. V. (1991) Ventilation of Public Buildings. Voronezh, Voronezh State University Publ., 188 (in Russian).
40. Ruslanov G. V., Yampolsky E. L. (1983) Heating and Ventilation of Residential and Civil Buildings. Kiev, Budivelnik Publ., 272 (in Russian).
41. Bryukhanov O. N., Shevchenko S. N. (2005) Heat and Mass Transfer. Moscow, ASV Publ., 460 (in Russian).
42. Fokin V. M. (2006) Fundamentals of Energy Saving and Energy Audit. Moscow, Mashinostroenie-1 Publ., 256 (in Russian).
43. Likhacheva A. E., Lopatin A. D. (2019) Influence of Design Solutions on the Energy Efficiency of Buildings. Tvorchestvo i Sovremennost [Creativity and Modernity], 11 (3–4), 53–62 (in Russian).
Review
For citations:
Zafatayeu V.A., Lankovich S.V., Karaliova T.I., Niyakovskii A.M. Effectiveness Assessment of Energy-Saving System of Organized Supply and Exhaust Ventilation for Multi-Storey Buildings with Low Level Thermal Protection. Science & Technique. 2022;21(2):114-128. (In Russ.) https://doi.org/10.21122/2227-1031-2022-21-2-114-128