Neural network-based metamodel for scaffolding behavior: Application for structural load analysis and safety enhancement

Scaffolding safety remains a critical challenge in construction, contributing significantly to site accidents and injuries. This study addresses the issue by developing a metamodel to simulate scaffolding behavior under dynamic loads, such as wind and worker activities, to prevent failure and enhance structural reliability. A finite element model (FEM) was developed to analyze 30,000 scenarios, significantly reducing the time required for structural assessments. To optimize efficiency further, a neural network was trained to accurately predict scaffolding responses, achieving an impressive R 2 value of 0.9996, thus minimizing reliance on time-intensive FEM simulations. While not a full digital twin implementation, this research establishes a strong foundation for integrating such technology in the future. By demonstrating the potential of metamodeling for improving safety and efficiency, the study offers valuable insights for advancing digital solutions in construction safety and sets the stage for further exploration of digital twin systems in the industry.

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Publication Details

Journal
Applications in Engineering Science
Published
2025-06-21
DOI
https://doi.org/10.1016/j.apples.2025.100240
Primary Topic
BIM and Construction Integration
Type
article
Field-Weighted Citation Impact
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article

Neural network-based metamodel for scaffolding behavior: Application for structural load analysis and safety enhancement

Mojtaba Eslahi, Laurent Guillaumat, Rani El Meouche, Amine Ammar et al.
Applications in Engineering Science
BIM and Construction Integration
article

Neural network-based metamodel for scaffolding behavior: Application for structural load analysis and safety enhancement

Mojtaba Eslahi, Laurent Guillaumat, Rani El Meouche, Amine Ammar, Laure Ducoulombier, Mohamad Al Omari
article en

Abstract

Scaffolding safety remains a critical challenge in construction, contributing significantly to site accidents and injuries. This study addresses the issue by developing a metamodel to simulate scaffolding behavior under dynamic loads, such as wind and worker activities, to prevent failure and enhance structural reliability. A finite element model (FEM) was developed to analyze 30,000 scenarios, significantly reducing the time required for structural assessments. To optimize efficiency further, a neural network was trained to accurately predict scaffolding responses, achieving an impressive R 2 value of 0.9996, thus minimizing reliance on time-intensive FEM simulations. While not a full digital twin implementation, this research establishes a strong foundation for integrating such technology in the future. By demonstrating the potential of metamodeling for improving safety and efficiency, the study offers valuable insights for advancing digital solutions in construction safety and sets the stage for further exploration of digital twin systems in the industry.

Applications in Engineering ScienceVol. 23
Institut de France (FR), Arts et Métiers (FR), Bouygues (France) (FR), Laboratoire Angevin de Mécanique, Procédés et InnovAtion (FR), Aptiv (France) (FR)
Openalex Percentile: Top 85%
BIM and Construction Integration
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Neural network-based metamodel for scaffolding behavior: Application for structural load analysis and safety enhancement — Mojtaba Eslahi, Laurent Guillaumat, et al. · Applications in Engineering Science (2025) | TGRS Research Map | TGRS