It can be concluded using anenergy efficient architectural design for a building before its construction makes it possible tomeet the electrical and heat energy requirements at minimum cost and environmental friendly.
📌 3 Key Takeaways
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Objective & Hypothesis:Tendency towards sustainable energy resources is increasing and leading engineers andarchitects make joint efforts.
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Key Findings & Data:Renewable energy potential present in nature can be used moreefficiently so that while energy consumption is reducing, rate of energy gain, on the other hand,increases by architectural design methods.
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Conclusion & Impact:It can be concluded using anenergy efficient architectural design for a building before its construction makes it possible tomeet the electrical and heat energy requirements at minimum cost and environmental friendly.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Domain Parameters
Abstract
Tendency towards sustainable energy resources is increasing and leading engineers andarchitects make joint efforts. Renewable energy potential present in nature can be used moreefficiently so that while energy consumption is reducing, rate of energy gain, on the other hand,increases by architectural design methods. A sailing club in Gölbaşı, Ankara is designed as alow carbon building for optimum usage of solar and wind energy. It can be concluded using anenergy efficient architectural design for a building before its construction makes it possible tomeet the electrical and heat energy requirements at minimum cost and environmental friendly.
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Cite This Article
KOÇYİĞİT, F. B., BALKU, Ş. (2022). Low Carbon Architectural Design. Gazi University Journal of Science, Cilt: 31 - Sayı: 1, 13–23. https://ajindex.com/articles/521409
Monteiro, H., Freire, F., “Environmental Life-Cycle Impacts of a Single-family House in Portugal: Assessing Alternative Exterior Walls with two Methods”, Gazi University Journal of Science, 24(3): 527-534, (2011).
Wang, Y., Shukla, A., S., “A state of art review on methodologies for heat transfer and energy flow characteristics of the active building envelopes”, Renewable and Sustainable Energy Reviews, 78: 1102–1116, (2017).
Stamp, S., Altamirano-Medina, H., Lowe, R., “Measuring and accounting for solar gains in steady state whole building heat loss measurements”, Energy and Buildings, 153, 168–178, (2017).
Kant, K., Shukla, A., Sharma, A., “Heat transfer studies of building brick containing phase change materials”, Solar Energy, 155, 1233–1242, (2017).
Evangelisti, L., Guattari C., Gori P., Bianchi, F., “Heat transfer study of external convective and radiative coefficients for building applications”, Energy and Buildings, 151: 429–438, (2017).
Gautam, K.R., Andresen, G.B., “Performance comparison of building-integrated combined photovoltaic thermal solar collectors (BiPVT) with other building-integrated solar technologies”, Solar Energy, 155: 93–102, (2017).
Acır, A., Canlı M.E., Ata, I., Çakıroğlu, R., “Parametric optimization of energy and exergy analyses of a novel solar air heater with grey relational analysis”, Applied Thermal Engineering, 122: 330– 338, (2017).
Bulut, Y. M., Yıldız, Z., “Comparing Energy Demand Estimation Using Various Statistical Methods: The Case of Turkey”, Gazi University Journal of Science, 29(2): 237-244, (2016).
Fırat, S., “Application of Efficient & Renewable Energy Technologies in Low Cost Buildings and Construction”, Journal of Polytechnic, 17 (1) (Special Issue): 1-2, (2014).
Sassi, P., “Strategies for Sustainable Architecture”, Taylor& Francis Inc., New York, (2006).
Marszal, A. J., Heisenberg, P., “A Literature Review of Zero Energy Buildings (ZEB) Definitions”, Aalborg: Department of Civil Engineering, Aalborg University, DCE Technical Reports No. 78, (2009).
Konters, J., “Planning for Solar Buildings in Urban Environments”, Doctoral Thesis, Lund University, Department of Architecture and Built Environment, Lund, Sweden, (2015).
Düz, H., “Storing solar energy inside compressed air through a heat machine mechanism”, Gazi University Journal of Science, 29(2): 245-251, (2016). TS EN ISO 13790 “Energy performance of buildings - Calculation of energy use for space heating and cooling”, https://www.iso.org/obp/ui/#iso:std:i