A BIM-enabled information infrastructure for building energy Fault Detection and Diagnostics

• Published in: Automation in construction Vol. 44; pp. 197 - 211
• Main Authors: Dong, Bing, O'Neill, Zheng, Li, Zhengwei
• Format: Journal Article
• Language: English
• Published: Kidlington Elsevier B.V 01.08.2014; Elsevier
• Subjects: Applied sciences; Building failures (cracks, physical changes, etc.); Building Information Modeling; Buildings; Buildings. Public works; Computation methods. Tables. Charts; Construction; Data schema; Diagnostic systems; Durability. Pathology. Repairing. Maintenance; Energy conservation; Exact sciences and technology; Exchange; Fault Detection and Diagnostics; Information infrastructure; Infrastructure; Modules; Real-time implementation; Structural analysis. Stresses; Tasks; Types of buildings; Real-time implementation; Building Information Modeling; Information infrastructure; Fault Detection and Diagnostics; Data schema; Energy analysis; Data analysis; Buildings; Building information modeling; Information management; Maintenance; Real time; Modeling; Implementation; Case study; Simulation; Energetic efficiency; Barrack; Detection; Fault diagnostic; Quantitative analysis
• ISSN: 0926-5805; 1872-7891
• DOI: 10.1016/j.autcon.2014.04.007

Although energy-efficient building technologies are emerging, a key challenge is how to effectively maintain building energy performance over the evolving lifecycle of the building. Field experience shows that energy savings of 5–30% are typically achievable simply by applying energy Fault Detection and Diagnostics (FDD) and correcting faults diagnosed in buildings. Model-based FDD in buildings is a challenging task, not only because the task itself is difficult, but also because the workflow and information exchange behind the task is very complex and error prone. This complexity arises from several aspects. Firstly, creating a baseline building energy performance model suitable for FDD is both time and labor consuming. Secondly, the FDD module typically has its own ad-hoc platform, and the integration of this platform with the existing Building Energy Management System (BEMS) is technically challenging due to the incompatible interoperability. Finally, the information exchange itself is complex due to the existence of multiple functioning modules to make FDD workflow happen. To perform an efficient and effective FDD with the BEMS in buildings, information is needed to flow among an as-built building static information module, a building energy performance simulation module, a building operational data acquisition module and a FDD module. In such a complex process, it is challenging to ensure the information integrity and consistence. In this paper, we propose a Building Information Modeling (BIM) enabled information infrastructure for FDD, which streamlines the information exchange process and therefore has the potential to improve the efficiency of similar works in practice. The proposed information infrastructure was deployed and implemented in a real building for a FDD case study. •Developed a BIM enabled information infrastructure for FDD.•Integrate static and operational information based on BIM I2.•Real-time implementation of BIM I2 for FDD, and detect HVAC faults.