Developing a BIM-enabled robotic manufacturing framework to facilitate mass customization of prefabricated buildings

Industrialized construction has been accepted as an effective production method for building project stakeholders to improve installation quality. Recent advancements in industrialized construction have focused on parametric designs for manufacturing and assembly to ensure accurate information flows and workflows across different project stages, however, they have not adequately addressed the challenges in mass customization of building projects to meet the diverse needs of communities. This study develops a technological framework based on Building Information Modeling (BIM) processes for mass customization of prefabricated buildings, which consists of parametric design and robotic manufacturing (RM) information flows to improve design flexibility and manufacturing precision. A proof of concept case study of a single-family house built with Light Gauge Steel (LGS) wall frames was conducted to demonstrate the usability of the proposed framework. Findings show that the BIM-RM framework not only helps bridge the technological interoperability gap between BIM and RM programs but also contributes to improved scalability, efficiency, and cost-effectiveness of design-to-manufacturing processes in construction projects. • Integrated workflow for mass customization design and production of prefabricated building projects. • Parametric design translated into robotic fabrication information to reduce manual effort in information exchange. • Consistent mapping of the coordinate systems between design and robotic fabrication software platforms. • Light-gauge steel wall assembly to prove the usability of the integrated workflows for mass customization. • Automation and simulation of wall studs assembly to prove the flexibility of digital fabrication processes.

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Publication Details

Journal
Computers in Industry
Published
2024-10-31
DOI
https://doi.org/10.1016/j.compind.2024.104201
Citations
16
Primary Topic
Innovations in Concrete and Construction Materials
Type
article
Field-Weighted Citation Impact
4.24
Controls
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article

Developing a BIM-enabled robotic manufacturing framework to facilitate mass customization of prefabricated buildings

Kamyab Aghajamali, Saeid Metvaei, Qian Chen, Zhen Lei
16 citations
Computers in Industry
Innovations in Concrete and Construction Materials
4.24
article

Developing a BIM-enabled robotic manufacturing framework to facilitate mass customization of prefabricated buildings

Kamyab Aghajamali, Saeid Metvaei, Qian Chen, Zhen Lei
article en
16 citations

Abstract

Industrialized construction has been accepted as an effective production method for building project stakeholders to improve installation quality. Recent advancements in industrialized construction have focused on parametric designs for manufacturing and assembly to ensure accurate information flows and workflows across different project stages, however, they have not adequately addressed the challenges in mass customization of building projects to meet the diverse needs of communities. This study develops a technological framework based on Building Information Modeling (BIM) processes for mass customization of prefabricated buildings, which consists of parametric design and robotic manufacturing (RM) information flows to improve design flexibility and manufacturing precision. A proof of concept case study of a single-family house built with Light Gauge Steel (LGS) wall frames was conducted to demonstrate the usability of the proposed framework. Findings show that the BIM-RM framework not only helps bridge the technological interoperability gap between BIM and RM programs but also contributes to improved scalability, efficiency, and cost-effectiveness of design-to-manufacturing processes in construction projects. • Integrated workflow for mass customization design and production of prefabricated building projects. • Parametric design translated into robotic fabrication information to reduce manual effort in information exchange. • Consistent mapping of the coordinate systems between design and robotic fabrication software platforms. • Light-gauge steel wall assembly to prove the usability of the integrated workflows for mass customization. • Automation and simulation of wall studs assembly to prove the flexibility of digital fabrication processes.

Computers in IndustryVol. 164
University of New Brunswick (CA), Okanagan University College (CA)
Openalex Percentile: Top 5%
Innovations in Concrete and Construction Materials
4.24
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