MOHAMED ALI ZEINA, A., Helmy Almaz, A. (2023). The use of architectural treatments for optimal utilization of solar energy. International Design Journal, 13(3), 273-286. doi: 10.21608/idj.2023.296419
AMR AHMED MOHAMED ALI ZEINA; Amira Fawzy Helmy Almaz. "The use of architectural treatments for optimal utilization of solar energy". International Design Journal, 13, 3, 2023, 273-286. doi: 10.21608/idj.2023.296419
MOHAMED ALI ZEINA, A., Helmy Almaz, A. (2023). 'The use of architectural treatments for optimal utilization of solar energy', International Design Journal, 13(3), pp. 273-286. doi: 10.21608/idj.2023.296419
MOHAMED ALI ZEINA, A., Helmy Almaz, A. The use of architectural treatments for optimal utilization of solar energy. International Design Journal, 2023; 13(3): 273-286. doi: 10.21608/idj.2023.296419
The use of architectural treatments for optimal utilization of solar energy
1Architectural Engineering, Faculty of Engineering, Horus University, New Damietta, Egypt
2Architecture Department Faculty of Engineering Horus University in Egypt
Abstract
Recent technological development in the manufacture of photovoltaic solar cells, the use of modern materials such as silicon, and the discovery of nano-cells have led to an increase in their efficiency in generating electrical and thermal energy, as well as in their ease of use. Which allows its exploitation in the architectural formation of the building, especially the facades, where the traditional exploitation of solar cells is to place them on the roofs of buildings in a horizontal manner, which wastes the exploitation of roofs in serving users.
Where the research dealt with the definition of sustainability and its principles, then the study of solar cells and their types as one of the applications of benefiting from solar energy in generating clean energy according to the principles of sustainability in order to preserve the environment, then studying the role of architects in achieving the principles of sustainability by providing clean energy through the optimal exploitation of solar energy in power generation Clean through architectural treatments, studying and analyzing some international and Arab architectural examples in which the optimal utilization of solar cells was made through architectural treatments such as facades and how they added the aesthetic shape of the building and maintaining the sustainability of the surrounding environment, then access to the results and discussion and finally the conclusion and recommendations that encourage architects to How to exploit solar cells through architectural treatments on a large scale.
1- Almaz, A.F.H., Farahat, M.A.F.J.A., 2023. Using Sustainable Tectonics to Create a Long-lasting Architectural Framework with Artistic Dimensions and Expressive Design. 11, 301-309.
2- Almaz, A.J.م.ا.و.ا.و.ا.ا., 2018. Technological compatibility of building materials and its environmental impact on interior design. 3, 70-84.
3- Bagher, A.M., Vahid, M.M.A., Mohsen, M.J.A.J.o.o., Photonics, 2015. Types of solar cells and application. 3, 94-113.
4- de Lemos Martins, T.A., Faraut, S., Adolphe, L.J.E., Buildings, 2019. Influence of context-sensitive urban and architectural design factors on the energy demand of buildings in Toulouse, France. 190, 262-278.
5- Dickinson, E., 2018. Solar energy technology handbook. CRC Press.
6- Gunarathna, C., Yang, R., Wijeratne Mudiyanselage, P., Amarasinghe, G., Samarasinghalage, T., Weerasinghe, R.N., Zhao, H., Zhang, C., Liu, C., Wang, K.J.S., Environment, S.B., 2023. Project-based learning for proactive skills development of postgraduate students in solar energy building design digitalisation.
7- Hák, T., Janoušková, S., Moldan, B.J.E.i., 2016. Sustainable Development Goals: A need for relevant indicators. 60, 565-573.
8- Hemsath, T.L., Bandhosseini, K.A.J.R.E., 2015. Sensitivity analysis evaluating basic building geometry's effect on energy use. 76, 526-538.
9- Kabir, E., Kumar, P., Kumar, S., Adelodun, A.A., Kim, K.-H.J.R., Reviews, S.E., 2018. Solar energy: Potential and future prospects. 82, 894-900.
10- Kanters, J., Horvat, M., Dubois, M.-C.J.E., Buildings, 2014. Tools and methods used by architects for solar design. 68, 721-731.
11- Ranabhat, K., Patrikeev, L., Antal'evna-Revina, A., Andrianov, K., Lapshinsky, V., Sofronova, E.J.J.o.A.E.S., 2016. An introduction to solar cell technology. 14, 481-491.
12- Sanna, A., Achenza, M., Desogus, G., 2014. Guidelines on building integration of photovoltaic in the Mediterranean area.
13- Tian, Z., Zhang, X., Jin, X., Zhou, X., Si, B., Shi, X.J.E., Buildings, 2018. Towards adoption of building energy simulation and optimization for passive building design: A survey and a review. 158, 1306-1316.
14- UN-Habitat, 2012. Sustainable Housing for sustainable cities: A policy framework for Developing countries.
17- Yang, L., He, B.-j., Ye, M.J.T.i.S., 2014. The application of solar technologies in building energy efficiency: BISE design in solar-powered residential buildings. 38, 111-118.
18- Yüksek, I., Karadayi, T.T.J.E.E.B., 2017. Energy-efficient building design in the context of building life cycle. 93-123.
19- Zeina, A., Mohamed, A.A.J.M.M.E.J., 2021. The Impact of the Development of Modern Technologies on the Sustainable Development of Urban Spaces.(Dept. A). 46, 24-30.
20- Zeina, A.A.M.A.J.P.-S.E.R.J., 2022. The use of mathematical modeling in architectural design to provide sustainable housing. 26, 10-20.