Edinburgh Research Archive

Automatic geometric inspection of MEP elements using mixed reality with RGB-D sensing

dc.contributor.advisor
Bosche, Frederic
dc.contributor.advisor
Ramamoorthy, Subramanian
dc.contributor.advisor
Smith, Simon
dc.contributor.advisor
Hopgood, James
dc.contributor.author
Tao, Boan
dc.date.accessioned
2026-01-29T11:39:14Z
dc.date.issued
2025-11-20
dc.description.abstract
The construction industry is undergoing a significant transformation with the adoption of digital technologies, aimed at improving the efficiency and accuracy of processes such as geometric inspection and quality control. Among these technologies, Building Information Modelling (BIM) has emerged as a critical tool, offering semantically-rich 3D representations of construction elements. However, the integration of as-planned BIM models with real-time on-site data for progress monitoring and inspection presents substantial challenges. In particular, traditional reality capture methods like Terrestrial Laser Scanning (TLS) and photogrammetry, while accurate, are time-consuming and not conducive to real-time decision-making on construction sites. This research addresses these limitations by developing an automated, Mixed Reality (MR)- based system for real-time geometric inspection, specifically targeting Mechanical, Electrical, and Plumbing (MEP) systems. The complexity of MEP networks, with their intricate configurations and overhead installations, makes accurate real-time inspection difficult using manual or traditional methods. The system leverages the semantic information embedded in BIM models and processes data captured in real-time through MR devices. By integrating MR glasses with image-based and 3D mesh-based processing techniques, this research facilitates automatic inspection and identification of discrepancies between as-built and as-planned structures. This work makes several key contributions. First, it introduces the MR-MEP dataset, the first benchmark pairing MR-acquired point clouds with BIM-derived annotations for MEP components. Second, it develops and validates a hybrid inspection framework that integrates 3D mesh analysis, 2D image detection, and deep learning–based verification. The framework is explicitly designed to be scalable and adaptable, allowing the verification module to be upgraded as more advanced classification models emerge, thereby ensuring long-term applicability and continuous improvement. Finally, the framework is validated on real construction site data, demonstrating its feasibility for practical deployment and offering actionable recommendations that support the development of real-time MR-based inspection workflows in construction environments.
dc.identifier.uri
https://era.ed.ac.uk/handle/1842/44349
dc.identifier.uri
https://doi.org/10.7488/era/6869
dc.language.iso
en
en
dc.publisher
The University of Edinburgh
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dc.relation.hasversion
Tao, B., Bosch´e, F. and Li, J. (2024), ‘Mixed reality-based mep construction progress monitoring: Evaluation of methods for mesh-to-mesh comparison’, Automation in Construction 168, 105852
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dc.relation.hasversion
Tao, B., Li, J. and Bosch´e, F. (2024), Smart passive mixed reality-based construction inspection framework, in V. Gonzalez-Moret, J. Zhang, B. Garc´ıa de Soto and I. Brilakis, eds, ‘Proceedings of the 41st International Symposium on Automation and Robotics in Construction’, International Association for Automation and Robotics in Construction (IAARC), Lille, France, pp. 776–783
en
dc.rights.embargodate
2027-01-29
dc.subject
Building Information Modelling
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dc.subject
3D digital model
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dc.subject
Mixed Reality
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dc.subject
RGB and Depth sensing
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dc.subject
construction project inspection
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dc.subject
MR-MEP dataset
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dc.subject
hybrid inspection framework
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dc.subject
inspection workflows
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dc.title
Automatic geometric inspection of MEP elements using mixed reality with RGB-D sensing
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dc.type
Thesis or Dissertation
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dc.type.qualificationlevel
Doctoral
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dc.type.qualificationname
PhD Doctor of Philosophy
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dcterms.accessRights
RESTRICTED ACCESS
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