Strategies for Applying the Circular Economy to Prefabricated Buildings

被引:118
|
作者
Minunno, Roberto [1 ]
O'Grady, Timothy [1 ]
Morrison, Gregory M. [1 ]
Gruner, Richard L. [1 ,2 ]
Colling, Michael [3 ]
机构
[1] Curtin Univ, Curtin Univ Sustainabil Policy CUSP Inst, Bentley, WA 6102, Australia
[2] Univ Western Australia, 35 Stirling Hwy, Crawley, WA 6009, Australia
[3] Fleetwood Australia, 1202 Abernethy Rd, Perth Airport, WA 6105, Australia
基金
澳大利亚研究理事会;
关键词
circular economy; prefabrication; manufacturing; buildings; construction and demolition; waste; reduction; reuse; recycle; adaptability; GREENHOUSE-GAS EMISSIONS; LIFE-CYCLE COMPARISONS; WASTE-REDUCTION; RECYCLED CONCRETE; REUSE; CONSTRUCTION; PRODUCT; DESIGN; DISASSEMBLABILITY; DEMOLITION;
D O I
10.3390/buildings8090125
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
In this paper, a circular-economy framework is applied to the prefabricated building sector to explore the environmental advantages of prefabrication in terms of reduction, reusability, adaptability, and recyclability of its components. A qualitative approach is used to revisit the design, construction, and demolition stages of prefabricated buildings; in so doing, the circular-economy framework is applied to foster circular prefabricated modi operandi. Prefabrication of buildings can be divided into four entities: elements and components, panels (or non-volumetric elements), volumetric, and entire modules. Through an analysis of published research on how the circular economy can be applied to different industry sectors and production processes, seven strategies emerged, each of which revealed the potential of improving the circular economy of buildings. The first strategy is reduction of waste through a lean production chain. By reusing the waste, the second strategy investigates the use of by-products in the production of new components. The third strategy focuses on the reuse of replacement parts and components. The fourth strategy is based on design toward adaptability, respectively focusing on reusability of components and adapting components for a second use with a different purpose. Similarly, the fifth strategy considers the implications of designing for disassembly with Building Information Modeling so as to improve the end-of-life deconstruction phase. The sixth strategy focuses on design with attention to recyclability of used material. Finally, the seventh strategy considers the use of tracking technologies with embedded information on components' geometric and mechanic characteristics as well as their location and life cycle to enable second use after deconstruction. It is demonstrated that prefabricated buildings are key to material savings, waste reduction, reuse of components, and various other forms of optimization for the construction sector. By adopting the identified strategies in prefabricated buildings, a circular economy could be implemented within the construction industry. Finally, seven guidelines were distilled from the review and linked to the identified strategies. Owing to their degree of adaptability and capacity of being disassembled, prefabricated buildings would allow waste reduction and facilitate a second life of components.
引用
收藏
页数:14
相关论文
共 50 条
  • [1] The recent trends on prefabricated buildings with circular economy (CE) approach
    Zairul, Mohd
    [J]. CLEANER ENGINEERING AND TECHNOLOGY, 2021, 4
  • [2] Carbon footprint accounting of prefabricated buildings: A circular economy perspective
    Li, Clyde Zhengdao
    Tam, Vivian WY.
    Lai, Xulu
    Zhou, Yijun
    Guo, Shan
    [J]. BUILDING AND ENVIRONMENT, 2024, 258
  • [3] Implementing Circular Economy Strategies in Buildings-From Theory to Practice
    Rahla, Kamel Mohamed
    Mateus, Ricardo
    Braganca, Luis
    [J]. APPLIED SYSTEM INNOVATION, 2021, 4 (02)
  • [4] Circular economy strategies research for Beijing buildings in a low-carbon future
    Yue, Zhongchun
    Dai, Tiejun
    [J]. Sustainable Cities and Society, 2024, 116
  • [5] The analysis of evolutionary strategies to facilitate the transformation of traditional buildings into prefabricated buildings
    Kong, Dewei
    Zhang, Yu
    Fan, Zhengshuo
    Yang, Yanbo
    Wang, Wei
    Liu, Ping
    He, Wei
    Wong, C.J.
    Edmund Loh, W.M.
    [J]. Computers and Industrial Engineering, 2024, 198
  • [6] Research on the Barriers and Strategies to Promote Prefabricated Buildings in China
    Wang, Qiankun
    Shen, Chuxiong
    Guo, Zeng
    Zhu, Ke
    Zhang, Jiaji
    Huang, Mei
    [J]. BUILDINGS, 2023, 13 (05)
  • [7] Potential of Circular Economy in Sustainable Buildings
    Eberhardt, Leonora Charlotte Malabi
    Birgisdottir, Harpa
    Birkved, Morten
    [J]. 3RD WORLD MULTIDISCIPLINARY CIVIL ENGINEERING, ARCHITECTURE, URBAN PLANNING SYMPOSIUM (WMCAUS 2018), 2019, 471
  • [8] Circular economy strategies for adaptive reuse of cultural heritage buildings to reduce environmental impacts
    Foster, Gillian
    [J]. RESOURCES CONSERVATION AND RECYCLING, 2020, 152
  • [9] Life Cycle Cost in Circular Economy of Buildings by Applying Building Information Modeling (BIM): A State of the Art
    AlJaber, Abdulaziz
    Alasmari, Esam
    Martinez-Vazquez, Pedro
    Baniotopoulos, Charalampos
    [J]. BUILDINGS, 2023, 13 (07)
  • [10] DESIGN STRATEGIES FOR CIRCULAR ECONOMY
    Devadula, Suman
    Chakrabarti, Amaresh
    [J]. DS 80-1 PROCEEDINGS OF THE 20TH INTERNATIONAL CONFERENCE ON ENGINEERING DESIGN (ICED 15) VOL 1: DESIGN FOR LIFE, 2015,