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Abstract: Using numerical modeling approach, the influence of 
solar radiation on the temperature distribution in brick wall 
of the heated room in the winter period of the year is 
investigated. Besides, the effect of solar radiation on the 
temperature state of the indoor air has been determined. 
Numerical modeling is performed by the finite-difference 
solution of the set of dynamics and energy equations for 
indoor air and the equation of heat conduction for wall 
structures. Boundary conditions are set on the contact 
surfaces of the air medium with the outer and inner walls of 
the room accounting the extra heat flux from solar radiation. 
It is shown that in the winter period of the year, the presence 
of solar radiation increasing the temperature of both the 
outer wall and the air inside the room. This circumstance 
should be taken into account when developing energy 
saving measures in buildings heat supply systems.
B   I   B   L   I   O   G   R   A   F   I   A(1) Deb, C. et al. “Forecasting diurnal cooling energy load 
for institutional buildings using artificial neural 
networks” Energy and Buildings, Vol. 121 (2016), 
pp.284-297. 
(2) Seyedzadeh, S. et al. “Tuning machine learning models 
for prediction of building energy loads.” Sustainable 
Cities and Society, Vol. 47 (2019), 101484. 
(3) Li, K. et al. “Building's electricity consumption 
prediction using optimized artificial neural networks 
and principal component analysis.” Energy and 
Buildings. Vol.108 (2015), pp.106-113. 
(4) Ali, A.A.M. “Using simulation for studying the 
influence of horizontal shading device protrusion on 
the thermal performance of spaces in residential 
buildings.” Alexandria Engineering Journal, Vol. 52 
(2013), pp. 787–796. 
(5) Qiu, Z., Wang, J., Yu, B., Liao, L., Li, J. “Identification 
of passive solar design determinants in office building 
envelopes in hot and humid climates using data mining 
techniques.” Building and Environment, Vol. 196
(2021), 107566. 
(6) Zhang, H., et al. “Application of solar energy 
circulation system in wall insulation.” IOP Conf. Ser.: 
Earth and Environmental Science, Vol. 568 (2020),
012018.
(7) Thi-My-Dung Do et al. “Investigating the 
effectiveness of insulation for walls of buildings in 
Vietnamese climatic condition” IOP Conference 
Series: Materials Science and Engineering, Vol. 869
(2020), Modern building materials. 032008. 
(8) Košir, M. “Climate adaptability of buildings: 
bioclimatic design in the light of climate change.” 
Springer International Publishing: Cham, Switzerland
(2019). 
(9) Wang, Y., Hu, X.Y., Wu, S.Y. “Coupled heat and 
moisture transfer features of typical external thermal 
insulation systems.” International Journal of Heat and 
Technology, Vol. 36 (2018), pp. 1362-1366.
(10) Khan, N. A., Bhattacharjee, B. “Thermal and noise 
insulation performance interaction of building 
envelope during building simulation optimization in 
tropical climates.” Building and Environment, Vol.
200 (2021), 107948.
(11)Ismail, M. R., Rasli, N. B. I., Ramli, N. A. “Trends of 
solar radiation effects on the temperature of vertical 
surfaces of a modern terrace house.” Heat Transfer, 
Vol. 50 (2021), pp 5982-5995.
(12)Koshlak, H., Pavlenko, A. “Method of formation of 
thermophysical properties of porous materials.”
Rocznik Ochrona Środowiska, Vol. 21 (2019), pp. 
1253-1262.
(13)Ma. J., et al. “Passive solar energy building in 
mountain residence:Strategies and design.” Thermal 
science, Vol.25 (2021), pp. 2263-2268. 
(14)Hachem-Vermette C. “Principles of solar design.” In: 
Solar Buildings and Neighborhoods. Green Energy 
and Technology. Springer, Cham. (2020).
(15)Clarke, J.A. “Why tools for buildings and cities 
performance simulation need to evolve.” Available 
online:
https://www.buildingsandcities.org/insights/comment
aries/tools-for-buildngs-and-cities-performance.html 
(accessed on 28 December 2020).
(16)Ionescu, C., Baracu, T., Vlad, G. -. E., Necula, H., 
Badea, A. “The historical evolution of the energy 
efficient buildings.” Renewable and Sustainable 
Energy Reviews, Vol. 49 (2015), pp. 243-253. 
(17)Shi, X., Tian, Z., Chen, W., Si, B., Jin, X. “A review 
on building energy efficient design optimization from 
the perspective of architects. «Renewable and 
Sustainable Energy Reviews, Vol. 65 (2016), pp 872-
884.
(18)Pavlenko, A., Koshlak, H. “Design of the thermal 
insulation porous materials based on technogenic 
mineral fillers.” Eastern-European Journal of 
Enterprise Technologies, Vol. 5 (2017), 58−65. 
(19)Bilous, I. Yu., Deshko, V. I., Sukhodub, I. O. 
“Building inside air temperature parametric study.”
Magazine of Civil Engineering, Vol. 68(8) (2016), pp. 
65–75. 
(20)Bilous, I. Yu., Deshko, V. I., Sukhodub, I. O. 
“Parametric analysis of external and internal factors 
influence on building energy performance using nonlinear multivariate regression models.” Journal of 
Building Engineering. Vol. 20 (2018), pp. 327-336. 
(21)Chwieduk, D. A. “Solar energy impact on space
heating and cooling needs in moderate climate.” IOP
Conf. Series: Materials Science and Engineering. Vol. 
415 (2018), 012008.
(22)Pollard, A., O'Driscoli, R., Pinder, D. N. “The impact
of solar radiation on the air temperature within aresidential building.” Solar World Congress. 
Conference paper. Vol. 97 (2001), pp. 1- 7. 
(23)Haese, G. “Analysis of the influences of solar radiation 
and facade glazing areas on the thermal performance 
of multi-family buildings.” Technical University of 
Bialystok. (2010).
(24)Sadineni, S. B., Madala, S., Boehm, R. F. “Passive 
building energy savings: A review of building 
envelope components.” Renewable and Sustainable 
Energy Reviews., Vol.15 (2011) pp. 3617-3631. 
(25)Chen, W., Liu, W. “Numerical analysis of heat 
transfers in a passive solar composite wall with porous 
absorber.” Applied Thermal Engineering. Vol. 28 
(2008), pp.1251–1258.
(26)Kahoorzadeh, A., Shahwarzi, S., Farjami, E., Osivand, 
S. “Investigation of usage of passive solar energy in 
Salamis Road's buildings, Famagusta.” International 
Journal of Environmental Science and Development. 
Vol. 5(2) (2014), pp. 132-136.
(27)Djordjevi´c, A. V., Radosavljevi´c, J. M., 
Vukadinovi´c, A. V., Malenovi´c Nikoli´c, J. R., 
Bogdanovi´c-Proti´c, I. S. “Estimation of indoor
temperature for a passive solar building with a
combined passive solar system.” Journal of Energy 
Engineering. Vol.143 (2017), 04017008. 
(28)Cillari, G., Fantozzi, F., Franco, A. “Passive solar
solutions for buildings: Criteria and guidelines for a
synergistic design.” Applied Sciences., Vol. 11(1) 
(2021), 376. pp. 1-19.
(29)Wang, D., Liu, Y., Jiang, J., Liu, J. “The optimized 
matching of passive solar energy supply and classroom 
thermal demand of rural primary and secondary school 
in Northwest China.” Procedia Engineering, Vol. 121 
(2015), pp. 1089 – 1095.
(30)Gendelis, S., Jakovics, A. “Mathematical modeling of 
a living room with solar radiation source and different 
boundary conditions.” Proceedings of the WSEAS Int. 
Conf. on Waste Management, Water Pollution, Air 
Pollution, Indoor Climate, Arcachon, France, October 
14-16, (2007) pp. 168- 173. 
(31)Isachenko, V. P., Osipova, V. A., Sukomel, A. S. 
Teploperedacha, {Heat transfer} Moskva: Energiya, 
(1975) 483 p. (in Rus.)
(32)Duffie, J. A., Beckman, W. A. Solar engineering of 
thermal processes. Fourth edition. (2013), 910 p. 
(33)Patankar, S.V. Numerical heat transfer and fluid flow. 
New York. McGrawHill. (1980) 197 p. 
(34)Basok, B. I., Davydenko, B. V., Farenuyk, G. G., 
Goncharuk, S. M. “Computational modeling of the 
temperature regime in a room with a two-panel 
radiator.” Journal of Engineering Physics and 
Thermophysics. Vol. 87 (2014), pp. 1433-1437. 
(35)Basok, B. I., Davydenko, B. V., Timoshchenko, A. V., 
Goncharuk, S. M. “Temperaturnyy rezhim
pomeshcheniya, obogrevayemogo dvumya
dvukhpanel'nymi radiatorami”, {Temperature regime 
of a room heated by two two-panel radiators}
Energetika: ekonomika, tekhnologii, ekologiya, No 4
(2018), 20-26 (in Rus.)