Formalizing virtual construction safety training: a schematic data framework enabling real-world hazard simulations using BIM and location tracking

Virtual construction safety training (VCST) as an active training method has considerable potential to be more effective than existing passive learning methods. VCST can also become equivalent to or part of on-the-job training once the system has been tested and is comparable to real-world training methods. However, including such real-world scenarios is commonly integrated into VCST by experts creating made-up scenarios. This approach requires considerable resources from different domains and may not represent the scenarios with sufficient realism, risking the relevance of and efforts spent on creating the training system. Despite several existing approaches to integrate real-world data, no formalization of the relevant Data Modeling (DM) concepts, their relations, and their functionalities within VCST have been published. Such a formalization, however, can ease the creation of training developers and enable them to simulate scenarios from real-world construction sites. This research proposes that VirtualSafeConDM formalize such concepts using existing ontologies. VirtualSafeConDM is developed using an existing data schema development method based on the Linked Open Term methodology. It comprises four steps: (a) Specification of requirements as Competency Questions (CQs), (b) knowledge acquisition and conceptualization from existing ontologies such as IfcOwl or a hazard ontology, (c) implementation in a C# library for the game engine Unity, and (d) the evaluation of the proposed VirtualSafeConDM. The evaluation contains a manifold qualitative approach. The consistency of the VirtualSafeConDM is evaluated through consistency checks. The extendibility and clarity are evaluated using a qualitative criteria-based method. Last, the usability and coverage are evaluated using a task-based method of answering the CQs. This task-based evaluation approach includes the creation of a real-world hazard-integrated virtual training environment (RHI-VTE) based on a metro renovation project in Germany. The authors recreated a task where a worker and several machines were active. The case study demonstrates that VirtualSafeConDM connects to real-world data sources using an as-built Building Information Modeling (BIM) model and Real-Time Location System (RTLS) data to expose trainees to hazards based on historical real-world construction activities. This integration formalizes hazard entities, allowing for comprehensive behavior analysis. Secondly, VirtualSafeConDM ensures efficient knowledge transfer across construction domains and use cases.

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Publication Details

Journal
Journal of Information Technology in Construction
Published
2024-12-26
DOI
https://doi.org/10.36680/j.itcon.2024.043
Citations
2
Primary Topic
BIM and Construction Integration
Type
article
Field-Weighted Citation Impact
0.53

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article

Formalizing virtual construction safety training: a schematic data framework enabling real-world hazard simulations using BIM and location tracking

Jochen Teizer, Kilian Speiser
2 citations
Journal of Information Technology in Construction
BIM and Construction Integration
0.53
article

Formalizing virtual construction safety training: a schematic data framework enabling real-world hazard simulations using BIM and location tracking

Jochen Teizer, Kilian Speiser
article en
2 citations

Abstract

Virtual construction safety training (VCST) as an active training method has considerable potential to be more effective than existing passive learning methods. VCST can also become equivalent to or part of on-the-job training once the system has been tested and is comparable to real-world training methods. However, including such real-world scenarios is commonly integrated into VCST by experts creating made-up scenarios. This approach requires considerable resources from different domains and may not represent the scenarios with sufficient realism, risking the relevance of and efforts spent on creating the training system. Despite several existing approaches to integrate real-world data, no formalization of the relevant Data Modeling (DM) concepts, their relations, and their functionalities within VCST have been published. Such a formalization, however, can ease the creation of training developers and enable them to simulate scenarios from real-world construction sites. This research proposes that VirtualSafeConDM formalize such concepts using existing ontologies. VirtualSafeConDM is developed using an existing data schema development method based on the Linked Open Term methodology. It comprises four steps: (a) Specification of requirements as Competency Questions (CQs), (b) knowledge acquisition and conceptualization from existing ontologies such as IfcOwl or a hazard ontology, (c) implementation in a C# library for the game engine Unity, and (d) the evaluation of the proposed VirtualSafeConDM. The evaluation contains a manifold qualitative approach. The consistency of the VirtualSafeConDM is evaluated through consistency checks. The extendibility and clarity are evaluated using a qualitative criteria-based method. Last, the usability and coverage are evaluated using a task-based method of answering the CQs. This task-based evaluation approach includes the creation of a real-world hazard-integrated virtual training environment (RHI-VTE) based on a metro renovation project in Germany. The authors recreated a task where a worker and several machines were active. The case study demonstrates that VirtualSafeConDM connects to real-world data sources using an as-built Building Information Modeling (BIM) model and Real-Time Location System (RTLS) data to expose trainees to hazards based on historical real-world construction activities. This integration formalizes hazard entities, allowing for comprehensive behavior analysis. Secondly, VirtualSafeConDM ensures efficient knowledge transfer across construction domains and use cases.

Journal of Information Technology in ConstructionVol. 29
Denmark Technical College (US), Technical University of Denmark (DK)
European Commission, Horizon 2020 Framework Programme
Openalex Percentile: Top 32%
BIM and Construction Integration
0.53
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