Level: Ph.D.
Areas of research : Artificial intelligence, BIM, Digital twin.

AI-powered digital matching for the built environment

Abstract

The contemporary landscape of Building Information Modeling (BIM) has undergone a substantial transformation, now embodying a vast repository of contextual and operational data relevant to the lifecycle of built assets. This broad and complex spectrum of data represents a challenge for the assimilation of compartmentalized multisource information and the extraction of usable information. My doctoral research addresses this complexity by proposing a new framework that synergizes knowledge graphs (as a backbone for data integration), virtual reality (VR) and artificial intelligence (AI)-driven interfaces. This integrative approach aims to revolutionize user interaction with digital twins, facilitating more intuitive and immersive engagement with virtual representations of built environments.

Areas of research : Artificial intelligence, BIM, Digital twin.
Key words : BIM, Data analytics, Data integration, Digital twins, Internet of Things (IoT).

Project results

With the aim of advancing interactivity in the field of building information models (BIM), one of the main outcomes of my doctoral research was the development of a prototype BIM-based virtual reality (VR) tool. This tool integrates live streams of sensor data from buildings and renders them in a virtual environment. This feature is essential for professionals planning simulation scenarios, as it provides a dynamic, responsive interface that simulates potential real-world changes and their impacts. The ability to visualize and manipulate building data in real time in a VR space marks a significant leap forward in scenario analysis and decision-making processes in building management. From a data integration and analysis perspective, research has explored the field of unsupervised learning to facilitate machine understanding of built asset lifecycle data through knowledge graphs. Relying on unsupervised learning algorithms, the system can autonomously interpret complex graphical representations of data relating to the built environment, discovering patterns and associations without human supervision.
This method considerably reduces the time and resources required for BIM data analysis, and thus streamlines the management and operation of built assets. The culmination of these efforts is the development of an AI-powered interface that enables intuitive interactions with digital twins or BIM models. This interface exploits the potential of open BIM standards, enabling broad compatibility with various BIM software and data formats. What’s more, thanks to the integration of advanced natural language processing (NLP) techniques, users can interact with BIM data using conversational language, making the system more accessible and user-friendly for professionals, whatever their level of technical expertise. This AI-driven interface acts as a bridge, translating complex BIM data into usable information through a more natural and intuitive user experience.

Project contributions

From a research perspective, exploring unsupervised learning to interpret knowledge graphs in the context of built assets improves understanding of data analysis in BIM and opens up avenues for future research in autonomous data model recognition. In addition, the research makes a substantial academic contribution by merging natural language processing (NLP) and BIM. It offers an insightful perspective on harmonizing advanced IT techniques with the pragmatic constraints of the construction industry, such as cost-effectiveness and system responsiveness. From a practical point of view, the VR tool developed as part of this research offers industry professionals powerful decision-making capabilities, by visualizing sensor data and potential changes in a virtual environment. The AI-powered interface created as part of this research makes BIM models more accessible to a wider range of professionals. By using NLP and open BIM standards, the barrier to entry for interacting with complex BIM data is lowered, enabling wider adoption of BIM technologies across the industry.

Publications

Publications from this project are available below:

Poirier, E., and Susan Keenliside. “Project context – Roles and responsabilities”. In Canadian Practice Manual for BIM, 45-63. Canada: buildingSMART Canada, 2016. https://espace2.etsmtl.ca/id/eprint/20303/.

Keenliside, Susan, and Erik Poirier. “Organizational context – Roles and responsibilities. In Canadian Practice Manual for BIM, Dickinson, J. / Woodard, P., 91-101. Canada: buildingSMART Canada, 2016. https://espace2.etsmtl.ca/id/eprint/20304/.

Poirier, Erik, Staub-French, Sheryl, and Forgues, Daniel. “Understanding the impact of BIM on collaboration: a Canadian case study”. Building Research and Information 45, no. 6 (2017): 681-95. https://doi.org/10.1080/09613218.2017.1324724.

Poirier, Erik, Staub-French, Sheryl, and Forgues, Daniel. “Understanding the impact of BIM on collaboration: a Canadian case study”. Building Research and Information 45, no. 6 (2017): 681-95. https://doi.org/10.1080/09613218.2017.1324724.

Cavka, Hasan Burak, Sheryl Staub-French, and Erik A. Poirier. “Developing Owner Information Requirements for BIM-Enabled Project Delivery and Asset Management.” Automation in Construction 83 (2017): 169-83. https://doi.org/10.1016/j.autcon.2017.08.006.

Cavka, Hasan Burak, Sheryl Staub-French, and Erik Poirier. “Levels of BIM compliance for model handover”. Journal of Information Technology in Construction 23 (2018): 243-58.

Research team

The project team :

Ali Motamedi
Partners : BESLOGIC.
Team

The project team

Ali Motamedi
Partners

This project was supported by :

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