4.6 Article

Case Study on Carbon Footprint Life-Cycle Assessment for Construction Delivery Stage in China

Journal

SUSTAINABILITY
Volume 14, Issue 9, Pages -

Publisher

MDPI
DOI: 10.3390/su14095180

Keywords

construction industry; life-cycle assessment (LCA); construction delivery stage; carbon-footprint calculation

Funding

  1. Ministry of Housing and Construction of China [2021R046]
  2. Fujian Province Science and Technology Department of China [2021I0014, 2019R0032]
  3. Quanzhou Tongjiang Scholar Special Fund [600005-Z17X0234]
  4. Huaqiao University [17BS201]
  5. University of Technology Malaysia (UTM) [05E79]

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The high energy consumption and carbon emissions in the construction industry have a significant impact on the ecological environment. This study aims to investigate construction outcomes and their carbon footprint during the construction delivery stage using the life-cycle assessment method. The results show that general civil engineering works produce more carbon emissions than decoration engineering, with cement having the largest proportion of carbon emissions. Additionally, there is a strong linear relationship between total carbon emissions, eaves height, project cost, and building area during the building construction.
The construction industry's high energy consumption and carbon emissions significantly burden the ecological environment. Thus, it is necessary to study measures and strategies for emissions reduction during construction for an improved, safe and sustainable environment. Using the life-cycle assessment method, this study aims to investigate construction-building outcomes and their carbon footprint during the construction delivery stage. This work used a compiled database of carbon-emission factors per unit for concrete and mortar with different densities and 16 building-project case studies in Fujian Province to verify the empirical findings. The results show that general civil engineering works produce more carbon emissions than decoration engineering. Furthermore, cement's average proportion of carbon emissions relative to total carbon emissions is the largest at 30.26%. Our findings also show a strong linear relationship between the total carbon emissions, eaves height, project cost, and building area during the building construction. The findings in this paper promote the conversion of buildings from high-energy consumption to multi-carbon reduction. The concept of this research contributes to the existing knowledge by proposing a carbon-footprint calculation method and establishing the trend of carbon emissions in building construction.

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