Calculation of Thermal Dynamic Characteristics …
115
Those solutions would, on one hand, be economically viable and on the other, would
provide the greatest comfort for housing in buildings.
Acknowledgements This research was partially financially supported by the project “Innovative
Solutions for Propulsion, Power and Safety Components of Transport Vehicles” ITMS 313011V334
of the Operational Program Integrated Infrastructure 2014–2020 and co-funded by the European
Regional Development Fund and by the Serbian Ministry of Education, Science and Technological
Development through grant ON174001 “Dynamics of hybrid systems with complex structures.
Mechanics of materials”.
References
1. Santamouris M (2012) Sol Energy 103:682–703
2. Alexandria E, Jones P (2008) Build Environ 43:480–493
3. Besir AB, Cuce E (2018) Renew Sustain Energy Rev 82:915–939
4. Riley (2017) Build Environ 114:219–232
5. Yoshimi J, Altan H (2011) In: Proceedings of building simulation 2011, Sydney, 14–16 Nov,
pp 1438–1443
6. Susorova M, Angulo P, Bahrami B (2013) Stephens. Build Environ 67:1–13
7. Susorova P, Azimi B (2014) Stephens. Build Environ 76:113–124
8. Wong A (2016) Baldwin. Build Environ 97:34–39
9. Olivieri F, Cocci Grifoni R, Redondas D, Sánchez-Reséndiz JA, Tascini S (2017) Energy Build
150:132–148
10. Vox G, Blanco I, Schettini E (2018) Build Environ 129:154–166
11. Grabowiecki A, Jaworski T, Niewczas A (2019) Belleri. Energy Proc 111:377–386
12. Li C, Wei J, Li C (2019) Energy Build 199:72–87
13. EN ISO 13786/2007
Précédent

- 127/222

Suivant