Abstract:To solve the problem of designing buildings with taking into account modern hygienic and technical requirements, it is of great importance to take into account the factors of the natural and climatic environment, in which the radiant energy of the sun plays an important role, determining the insolation-lighting-heating regime of the premises. The natural lighting of the premises is studied and the prerequisites for the refinement and development of the methodology for calculating the natural indoor lighting of the premises taking into account the insolation conditions for a specific region of the equatorial countries are formulated. Proposals for improving the methodology for calculating the daylighting in the room, taking into account the insolation components, have been developed.
References:1. Gusev N.M. Natural lighting of buildings /Moscow, GOSSTROIZDAT, 1961, 234 p. 2. Obolensky N.V. Architecture and the sun / Moscow, STROYIZDAT, 1988, 207 p. 3. Lyubimov A. BIM – new features of the Revit platform (Lyubimov A. BIM – novyye vozmozhnosti platformy Revit) // CAD and graphics, 2007, № 10, 7 p. 4. CITYS: Solaris 5.20. Calculation of insolation, Daylight factor and noise vibrations: The user’s guide. URL: http://www.sitis.ru/ documentation/sitis-solaris.pdf (date accessed: 10.08.2019). 5. Giyasov A. The Role of the Solar Irradiation Plate for Estimation of the Insolation Regime // Light & Engineering, Vol. 27, # 2, 2019, pp 111–117. 6. Calculations of heat access to the building from penetrating solar radiation during the heating period / Methodological guide, Ministry of Construction and Housing and Communal Services of the Russian Federation, Moscow, 2017, 112 p. 7. SP 50.13330.2012: Thermal protection of buildings. 8. Reference book on lighting engineering (3rd edition, revised and expanded), under the general editorship of J. Aizenberg M. / Publishing House ZNAK, 2006. 9. Standard RF: GOST R57260–2016 Climatology construction. Parameters for calculating natural light, taking into account the distribution of brightness across the sky. 10. Spiridonov A.V., Shubin I.L. Development of translucent constructions in Russia // Lighting equipment, 2014, # 3. pp 46–51. 11. Norms and Rules, RF: SP 52.13330.2016: Natural and artificial lighting. 12. Danzig N.M. Hygienic bases of preventive ultraviolet irradiation of people // Svetotekhnika, 1967, No. 3. pp 46–52. 13. SanPiN1.2.3685–21 Hygienic standards and requirements for ensuring the safety and (or) harmlessness of environmental factors for humans. 14. Kittler R., Kocifaj M., Darula S. Daylight Science and Daylight Technology. New York: Springer, 2012, 212 p. 15. Navvab M, Karayel M., Ne’eman E., Selkowitz S. Analysis of luminous efficiency for daylight calculations / Proc. Int. daylighting conf., 4–7. 11. 1986, Long Beach, California, USA. – ASHRAE Publications Sales. 16. Solovyov A.K., Nguyen F.T.H. Method for calculating the parameters of the light climate by the light efficiency of solar radiation // Lighting equipment, 2018, No. 5, pp 21–24. 17. Stetsky S., Larionova K. The influence of sunprotective devices on natural light distribution in premises// E3S Web of Conferences. 2018 International Science Conference on Business Technologies for Sustainable Urban Development, SPbWOSCE2018. 2019. 01070. 18. The modern global database of NASA SSE (NASA Surface meteorology and Solar Energy) covers the entire territory of Russia. Source: https://www.c-o-k.ru/articles/solnechnaya-radiaciya-spravochniki-i-raschety.
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