THE USE OF AIR LAYERS IN BUILDING ENVELOPES FOR ENERGY SAVING DURING AIR CONDITIONING
https://doi.org/10.21122/1029-7448-2017-60-5-470-483
Abstract
Since there are no large natural energy resources in Belarus, energy savings ought to be a point of the special attention. With this regard it is important to develop modern ways of savings during the process of air conditioning inside new buildings with an air layer in the enclosure, especially in translucent ones. The system of ventilation of air layers in the enclosure of a building has been introduced in which air movement is caused by the gravitational and aerodynamic forces. It makes it possible to arrange further ventilation – a natural, forced or a hybrid one. With the purpose of increasing and streamlining natural draught the partitions are used separating the different parts of air layers. For natural ventilation with the use of gravitational forces the holes in the upper and lower parts of the partitions between adjacent air layers are applied. Natural ventilation in the holes of the partitions is regulated by movable shutters, blinds or other adjusting devices. For combined or forced air exchange between adjacent zones of air layers fans are used pumping air from the air layer zones with a higher temperature to zones of air layers with lower temperature and vice versa. When air exchange is forced, in order to intensify the infiltration of air into zones of air layers jets are laid on a hard surface. In order to cool a multi-layered enclosure of a building, where the movement of air between the air layers (that have been formed by internal partitions) is being fulfilled by a natural, forced or combined mode, a part of the air or the total air processed inside the building (i.e. conditioned or non-conditioned air cooler as compared with the outside one) is being sent to these strata. Combined or forced flow of the air processed inside the building into the air layers is done through the ducts associated with the output channels of the air conditioners. The internal partitions are equipped with the air valve hole.
About the Authors
S. N. OsipovBelarus
Address for correspondence: Osipov Sergey N. – UE “Institute of Housing – NIPTIS named after Ataev S. S.”, 15b F. Skoriny str., 220114, Minsk, Republic of Belarus Tel.: +375 17 263-81-91 up-niptis@rambler.ru
S. L. Danilevskiy
Belarus
A. V. Zacharenko
Belarus
References
1. Research Institute for Building Physics (1990) Building Climatology. Handbook to the SNIP. Moscow, Stroyizdat. 89 (in Russian).
2. Alteration N 1 of Building Code 2.04.01-97. Civil Engineering Climatology. Minsk, Ministry of Architecture and Construction, 2007. 35 (in Russian).
3. Osipov S. N., Pilipenko V. M. (2017) Some Features of the Power Supply of Residential Buildings during the Heating Season. En?rg?tika. Pro?. ?IS Higher Educ. Inst. ?nd Power Eng. Assoc. 60 (1), 77–96 (in Russian). DOI: 10.21122/1029-7448
4. Naumov V. D., Alyavdina T. I., Bedula N. V., Zholud' A. S., Zholud' T. V., Poslova T. G., Feofilova Yu. Yu., Frolova T. S. (2008). Large Construction Terminology Dictionary: Official and Unofficial Terms and Definitions in Construction, Architecture, Urban Planning and Construction Technology. Minsk, Minsktipproekt. 811 (in Russian).
5. TCP 45-3.02-108-2008 (02250). High-Rise Buildings. Minsk: The Ministry of Architecture and Construction. 89 (in Russian).
6. Sanitary Regulations and Norms of the Republic of Belarus. Hygienic Requirements to the Device, Equipment and Maintenance of Houses. Available at: http://rcheph.by/dokumenty/sanitarnye-normy-i-pravila/kommunalnaya-gigiena/5644.html. (accessed 1 March 2017) (in Russian).
7. SanPiN (Sanitary Regulations and Norms) of the Republic of Belarus 2.2.1.13-5–2006. Hygiene Requirements for the Design, Maintenance and Operation of Industrial Enterprises. Available at: https://refdb.ru/look/1574181.html. (accessing 1 March 2017) (in Russian).
8. SanPiN (Sanitary Regulations and Norms) of the Republic of Belarus No 11-13–94. Sanitary Regulations of Microclimate of Industrial Premises. Occupational health. Issue 1. Minsk, 2008. 3-18 (in Russian).
9. Osipov S. N., Danilevsky S. L. (2009) The Method of Ventilation of Air Layers in the Building Envelopes. Eurasian Patent no. 012719 (in Russian).
10. Osipov S. N., Danilevsky S. L. (2014) Method of Cooling Multilayer Fencing of the Building. Patent Republic of Belarus no. 18617 (in Russian).
11. Bogoslovski V. N. (1982) Civil Engineering Thermophysics. ?oscow, Vysshaya Shkola Publ. 416 (in Russian).
12. Yakovlev R. N. (2001) Thermal Insulation of Walls of the Building. Patent Russia no 2176708 (in Russian).
13. Ostroumov G. A. (1952) Free Convection in an Internal Task. Leningrad-Moscow: State Publ. of Scientific-and-Theoretical Literature. 256 (in Russian).
14. Jaluria Y. (1980) Natural convection: Heat and Mass Transfer. NY, Pergamon Press ( Russ. ed.: Estestvennaya konvektsiya: teplo- i massoobmen. Moscow, Mir Publ. 399).
15. Martynenko O. G., Sokovishin Yu. A. (1982) Free-Convective Heat Transfer. Minsk, Nauka i tekhnika Publ. 398 (in Russian).
16. Building Code 4.02.01–03. Heating, Ventilation and Air Conditioning. Minsk, Ministry of Architecture and Construction, 2015. 81 (in Russian).
17. Boroukhova L. V., Shybeka A. S. (2016) Improvement of Calculation Methods of Heat Input Through Translucent Structures and Recommendations for their Reduction. En?rg?tika. Pro?. ?IS Higher Educ. Inst. ?nd Power Eng. Assoc. 59 (1), 65–78 (in Russian). DOI:10.21122/1029-7448-2016-59-1-65-78
Review
For citations:
Osipov S.N., Danilevskiy S.L., Zacharenko A.V. THE USE OF AIR LAYERS IN BUILDING ENVELOPES FOR ENERGY SAVING DURING AIR CONDITIONING. ENERGETIKA. Proceedings of CIS higher education institutions and power engineering associations. 2017;60(5):470-483. (In Russ.) https://doi.org/10.21122/1029-7448-2017-60-5-470-483