THE ANALYSIS OF ENERGY EMBODIED & GREENHOUSE GAS IN BUILDING CONSTRUCTION BY LIFE CYCLE ENERGY ANALYSIS METHOD

Authors

  • Thibordin Sangsawang Department of Mechanical Engineering, Faculty of Engineering and Industrial Technology, Silpakorn University.
  • Teerachai Surachotivet Department of Mechanical Engineering, Faculty of Engineering and Industrial Technology, Silpakorn University.

Keywords:

Embodied Energy, Greenhouse Gas, Building Construction

Abstract

In this research, the embodied energy and greenhouse gas emissions of a multi-purpose building were studied. There are 3 parts; the embodied energy and greenhouse gas from building materials, transportation and energy consumption in construction. The results showed that the total embodied energy was 162,981,382.39 MJ, from building materials for 162,239,677.40 MJ, transportation for 643,934.89 MJ and energy consumption in construction for 97,770.10 MJ. The total greenhouse gas in this building was 14,511,534.50 kgCO2e, from building materials for 14,447,105.97 kgCO2e, transportation for 47,879.62 kgCO2e, and energy consumption in construction for 16,548.91 kgCO2e. The highest embodied energy and greenhouse gas emission were from steel and concrete. When the obtained values were averaged per area, found that for the embodied energy has 9.59 GJ/m2 and greenhouse gas has 853.62 kgCO2e/m2.

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References

Mahattanalai, T. (2019). Business/Industry Outlook 2019-2021: Construction Business. Krungsri Research. Retrieved April 9, 2021, from https://www.krungsri.com/th/research/industry/industry-outlook/Construction-Construction-Materials/Construction-Contractors/IO

Su, X., and Zhang, X. (2016). A detailed analysis of the embodied energy and carbon emissions of steel-construction residential buildings in China. Energy and Buildings, 119, 323-330.

Hammond, G., Jones, C., Lowrie, F., and Tse, P. (2011). Embodied Carbon the Inventory of Carbon and Energy (ICE): BSRIA.

Llantoy, N., Chàfer, M., and Cabeza, L. F. (2020). A comparative life cycle assessment (LCA) of different insulation materials for buildings in the continental Mediterranean climate. Energy and Buildings, 22, 2-11.

Kofoworola, O. F., and Gheewala, S. H. (2009). Life cycle energy assessment of a typical office building in Thailand. Energy and Buildings, 41, 1076-1083.

Aneesh, N. R., Shivaprasad, K. N., and Das, B. B. (2018). Life cycle energy analysis of a metro station building envelope though computer based simulation. Sustainable Cities and Society, 39, 135-143.

Naparswad, T. (2012). A Study of fuel consumption of trucks. Civil Engineering, Faculty of Engineering, Suranaree University.

Buchanan, A. H., and Honey, B. G. (1994). Energy and carbon dioxide implications of building construction. Energy and Buildings, 20(3), 205-217.

Giordano, R., Serra, V., Tortalla, E., Valentini, V., and Aghemo, C. (2015). Embodied Energy and Operational Energy assessment in the framework of Nearly Zero Energy Building and Building Energy Rating. Energy Procedia, 78, 3204-3209.

Ramesh, and Khan, E. (2013). Energy efficiency in green buildings – Indian Concept. International Journal of Technical Research and Applications, 4, 77-80.

Crawford, R. H. (2008). Validation of a hybrid life-cycle inventory analysis method. Journal of Environmental Management, 88(3), 496-506.

Wang, J., Yu, C., and Pan, W. (2018). Life Cycle Energy of High-rise Office Buildings in Hong Kong. Energy and Buildings, 167(1), 152-164.

Rauf, A., and Crawford, R. H., (2014). The Effect of Material Service Life on the Life Cycle Embodied Energy of Multi-Unit Residential Buildings. 1-8 In 49th International Conference of the Architectural Science Association. Melbourne, Australia.

Fay, R., Treloar, G., and Iyer-Raniga, U. (2000). Life-cycle energy analysis of buildings: a case study. Building Research & Information, 28(1), 31-34.

Rossi, B., Marique, A.-F., and Reiter, S. (2012). Life-cycle assessment of residential buildings in three different European locations, case study. Building and Environment, 51, 402-407.

Salazar, J., and Meil, J. (2009). Prospects for carbon-neutral housing: the influence of greater wood use on the carbon footprint of a single-family residence. Journal of Cleaner Production, 17(17), 1563-1571.

König, H., and De Cristofaro, M. L. (2012). Benchmarks for life cycle costs and life cycle assessment of residential buildings. Building Research and Information, 40(5), 1-23.

Yan, H., Shen, Q., Fan, L. C. H., Wang, Y., and Zhang, L. (2010). Greenhouse gas emissions in building construction: A case study of One Peking in Hong Kong. Building and Environment, 45, 949-955.

Blengini, G. A., and Carlo, T. D. (2010). Energy-saving policies and low-energy residential buildings: an LCA case study to support decision makers in Piedmont (Italy). The International Journal of Life Cycle Assessment, 15(7), 652-665.

Syngros, G., Balaras C. A., and Koubogiannis, D. G. (2017). Embodied CO2 Emissions in Building Construction Materials of Hellenic Dwellings. Procedia Environmental Sciences, 38, 500-508.

Wu, H., Yuan, Z., Zhang, L., and Bi, J. (2012). Erratum to: Life cycle energy consumption and CO2 emission of an office building in China. The International Journal of Life Cycle Assessment, 17(2), 105-118.

Suzuki, M., Oka, T., and Okada, K. (1995). The estimation of energy consumption and CO2 emission due to housing construction in Japan. Energy and Buildings, 22(2), 165-169.

Suzuki, M., and Oka, T. (1998). Estimation of life cycle energy consumption and CO2 emission of office buildings in Japan. Energy and Buildings, 28(1), 33-41.

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Published

2023-06-09

How to Cite

Sangsawang, T. ., & Surachotivet, T. . (2023). THE ANALYSIS OF ENERGY EMBODIED & GREENHOUSE GAS IN BUILDING CONSTRUCTION BY LIFE CYCLE ENERGY ANALYSIS METHOD. Srinakharinwirot University Journal of Sciences and Technology, 15(29, January-June), 1–12, Article 249754. Retrieved from https://ph02.tci-thaijo.org/index.php/swujournal/article/view/249754