Summary of existing research on digital twin implementation for predictive maintenance in facility management
| References | Focus area | Methodology/approach | Key findings/contributions | Relevance to predictive maintenance (PdM) in FM |
|---|---|---|---|---|
| Li et al. (2023) | Integration of IoT-enabled DTs for predictive maintenance in HVAC systems | Case study and simulation-based validation | Demonstrated energy savings up to 30% through real-time monitoring and predictive analytics | Showed tangible performance and cost benefits of DT-driven PdM in building systems |
| Desogus et al. (2021) | DT-based predictive models for maintenance decision support | Conceptual framework and FM system integration | Highlighted data-driven decision-making and continuous monitoring for early fault detection | Validated DT’s potential to reduce unplanned downtime in FM |
| El-Din et al. (2022) | BIM-IoT integration for maintenance management | Empirical study using BIM-based digital models | Improved interoperability and data visualization between maintenance and asset systems | Enhanced PdM workflows via automated data capture and visualization |
| Shuhaimi et al. (2024) | AI-augmented DT systems for predictive maintenance | Quantitative model evaluation | Proposed AI algorithms for anomaly detection using DT data streams | Advanced predictive capability through intelligent analytics |
| Gispert et al. (2025) | Transition from reactive to predictive maintenance using DT | Literature synthesis and framework development | Introduced “predict-and-prevent” paradigm leveraging DT data integration | Emphasized long-term shift toward proactive facility operations |
| Madubuike et al. (2022) | DT integration in facility management for maintenance efficiency | Mixed-method approach (survey + case analysis) | Reported improved decision-making, efficiency and reliability in FM | Demonstrated practical DT benefits in FM contexts through PdM use cases |
| Cespedes-Cubides and Jradi (2024) | Energy management and PdM through DT platforms | Simulation and experimental validation | Validated DT-driven optimization of energy performance and maintenance scheduling | Linked PdM with sustainability goals in building operations |
| AlBalkhy et al. (2024) | Barriers to DT adoption in FM | Literature review | Identified high implementation costs, lack of expertise and limited standardization | Highlighted critical challenges hindering PdM realization |
| Hauashdh et al. (2024) | Organizational readiness for DT-based FM | Qualitative interviews with FM stakeholders | Found that digital maturity and cultural acceptance are key for DT success | Emphasized the human and organizational dimension of PdM adoption |
| Godager (2024) | Data management frameworks for DT in FM | Theoretical framework proposal | Proposed standardized data handling aligned with ISO 19650 | Provided foundation for structured data critical for PdM performance |
| De Rubeis et al. (2023) | Practical implementation strategies for DTs in buildings | Comparative case study | Noted lack of standardized practical guidance and varying DT definitions | Addressed implementation barriers to PdM-oriented DT systems |
| References | Focus area | Methodology/approach | Key findings/contributions | Relevance to predictive maintenance (PdM) in |
|---|---|---|---|---|
| Integration of IoT-enabled DTs for predictive maintenance in | Case study and simulation-based validation | Demonstrated energy savings up to 30% through real-time monitoring and predictive analytics | Showed tangible performance and cost benefits of DT-driven PdM in building systems | |
| DT-based predictive models for maintenance decision support | Conceptual framework and | Highlighted data-driven decision-making and continuous monitoring for early fault detection | Validated DT’s potential to reduce unplanned downtime in | |
| BIM-IoT integration for maintenance management | Empirical study using BIM-based digital models | Improved interoperability and data visualization between maintenance and asset systems | Enhanced PdM workflows via automated data capture and visualization | |
| AI-augmented | Quantitative model evaluation | Proposed | Advanced predictive capability through intelligent analytics | |
| Transition from reactive to predictive maintenance using | Literature synthesis and framework development | Introduced “predict-and-prevent” paradigm leveraging | Emphasized long-term shift toward proactive facility operations | |
| Mixed-method approach (survey + case analysis) | Reported improved decision-making, efficiency and reliability in | Demonstrated practical | ||
| Energy management and PdM through | Simulation and experimental validation | Validated DT-driven optimization of energy performance and maintenance scheduling | Linked PdM with sustainability goals in building operations | |
| Barriers to | Literature review | Identified high implementation costs, lack of expertise and limited standardization | Highlighted critical challenges hindering PdM realization | |
| Organizational readiness for DT-based | Qualitative interviews with | Found that digital maturity and cultural acceptance are key for | Emphasized the human and organizational dimension of PdM adoption | |
| Data management frameworks for | Theoretical framework proposal | Proposed standardized data handling aligned with | Provided foundation for structured data critical for PdM performance | |
| Practical implementation strategies for DTs in buildings | Comparative case study | Noted lack of standardized practical guidance and varying | Addressed implementation barriers to PdM-oriented |
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