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The Factors Influencing the Saving of Energy and the Reduction of Emissions in the Construction Companies of Prefabricated Buildings

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DOI: 10.23977/jceup.2023.050210 | Downloads: 7 | Views: 310

Author(s)

Hongyu Sun 1, Qiang Liu 1, Yafeng Li 1, Ming Liu 1

Affiliation(s)

1 School of Economics and Management, Liaoning University of Technology, Jinzhou, Liaoning, 121001, China

Corresponding Author

Yafeng Li

ABSTRACT

This paper analyzes the characteristics of prefabricated houses, proposes the importance of prefabricated houses for saving energy and reducing pollutants, and further analyzes the factors that influence the saving of energy and reducing pollutants of prefabricated houses. It is suggested to realize the organic integration of assembly building and energy conservation and abatement in order to ensure the smooth realization of energy conservation and abatement goals and promote the sustainable development of assembly building enterprises.

KEYWORDS

Assembly building, construction enterprise, energy saving and emission reduction, influencing factors

CITE THIS PAPER

Hongyu Sun, Qiang Liu, Yafeng Li, Ming Liu, The Factors Influencing the Saving of Energy and the Reduction of Emissions in the Construction Companies of Prefabricated Buildings. Journal of Civil Engineering and Urban Planning (2023) Vol. 5: 70-75. DOI: http://dx.doi.org/10.23977/jceup.2023.050210.

REFERENCES

[1] Fang S.Y. (2017) Analysis of factors influencing energy conservation and emission reduction in enterprises. Petroleum and Chemical Energy Conservation, 6, 5-8.
[2] Zhao H., Chen Y., Yao Q. (2017) Carrying out internal energy conservation and emission reduction in power grid enterprises to alleviate the pressure of corporate carbon emission compliance. Shandong Industrial Technology, 19, 180-180.
[3] Wang X.H., Di P. (2017) Research on the path of energy saving and emission reduction in iron and steel enterprises. Science and Technology Economic Market, 7, 90-92.
[4] Ouyang J.J., Shen H.C., Luo Z.C. (2018) Selection of energy-saving methods for energy-consuming manufacturing enterprises under competitive environment. Systems Engineering Theory and Practice, 38, 2564-2577.
[5] Tang X.L., Gu B.X., Kang Z.Y. (2019) Environmental regulation and total factor productivity of Chinese firms: an examination based on "energy saving and carbon reduction" policy. Research and Development Management, 3, 47-58
[6] Wang P.L. (2019) Analysis of engineering project management and development issues of assembled buildings. Green Building Materials, 6, 185-186.
[7] Zhang X., Kui K.C. (2019) Development prospects of prefabricated assembled buildings and structural design elements. Green environmental protection building materials, 6, 68-69.
[8] Li. Q. (2019) Exploring the problems and countermeasures of developing assembled buildings. Value Engineering, 38, 47-50.
[9] Sun Y. (2019) Research on cost control of production of precast concrete components for assembled buildings. Northern Construction, 4, 79-81.
[10] Ma Y. (2018) Research on the application of assembled residential structure system. Urban Housing, 12, 69-72.
[11] Teng Y. (2018) Reducing building life cycle carbon emissions through prefabrication: evidence from and gaps in empirical Studies. Building and Environment, 32, 12-18.
[12] Jaillon L. Chiang Y H. (2009) Quantifying the waste reduction potential of using prefabrication in building construction in Hong Kong. Waste Management, 29, 309-320.
[13] Pon S. (2011) Environmental impacts of prefabricated school buildings in Catalonia. Habitat International, 35, 553-563.
[14] Tavares F. (2019) Embodied energy and greenhouse gas emissions analysis of a prefabricated modular house: the "Moby" case study. Journal of Cleaner Production, 212, 1044-1053.
[15] Lu H. (2013) Investigating waste reduction potential in the upstream processes of offshore prefabrication construction. Renewable& Sustainable Energy Reviews, 28, 804- 811.
[16] Hong L. (2016) Life-cycle energy analysis of prefabricated building components: an input-output-based hybrid model. Journal of Cleaner Production, 112, 2198-2207.
[17] Ji J. (2018) Comparing greenhouse gas emissions of precast in-situ and conventional construction methods. Cleaner Production, 173, 24-134.
[18] Bonamente S. (2014) Environmental Impact of Industrial Prefabricated Buildings: Carbon and Energy Footprint Analysis Based on an LCA Approach. Energy Procedia, 61, 2841-2844.
[19] Loisos G. (2012) Using life cycle assessment methods to guide architectural decision-making for sustainable prefabricated modular Journal of Green Building: Summer, 7,151-170.
[20] Antonucci V. (2018) Life cycle energy performances and environmental impacts of a prefabricated building module. Renewable& Sustainable Energy Reviews, 92, 272-283.
[21] Aye L. (2012) Life cycle greenhouse gas emissions and enegy analysis of prefabricated reusable building modules. Energy and Buildings, 47, 159-168.
[22] Wu Z. (2015) Evaluation of energy-saving benefits and carbon emissions of residential industrialized assembly construction methods. Building Structure, 45, 71-75.
[23] Liu S. (2016) Research on comprehensive benefit analysis method of assembled building. Construction Technology, 45, 39-43.
[24] Wang Y. (2016) Research on the whole life cycle carbon emission of industrialized prefabricated and assembled buildings, 43, 112-19.
[25] Zhang Q. (2017) Research on carbon emission calculation model based on Process-Based LCA method for the materialization stage of assembled houses in China. Journal of Engineering Management, 31, 23-28. 

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