A Brief Introduction to Building Information Modeling (BIM) and its interoperability with TRNSYS

Building maintenance is essential for the operation of the building to maintain the reliability and performance of the building to match its economic age. There are many buildings whose maintenance is inferior from a technical, administrative, and budgetary perspective, so an appropriate maintenance design model is needed according to the operational needs of the building. On the other hand, the development of digital information technology is getting faster and more widely used. One is Building Information Modeling (BIM), where the entire activity process works in collaboration and integration. Therefore, this study aims to develop a proper building maintenance design model using BIM. The method used is to apply building maintenance standards in Indonesia (Public Works Ministrial Regulation No 24/PRT/M/2008) in BIM supporting applications, namely Autodesk Revit (for visualizing 3D buildings) and Autodesk BIM 360 Ops (for maintenance management), as a case study using the Maintenance Management Design of Walini Station which is one of the Jakarta-Bandung fast train stations with very modern, complex and complicated building components. The maintenance design model is carried out through the following stages: (i) building modeling using Autodesk Revit based on shop drawings in 3D and can be applied to 4D and 5D needs; (ii) export Autodesk Revit results to the Autodesk BIM 360 Ops application because this application can store a database of all building operations; and (iii) conducting a maintenance design simulation using the Autodesk BIM 360 Ops application. The study results show that BIM technology can be used as a detailed, accurate, effective, efficient, and integrated maintenance design model. Keywords: Building Maintenance, Building Information Modeling (BIM), Autodesk Revit, Autodesk BIM 360 Ops, building maintenance model

Development of a Building Information Modelling Asset (BIMAsset) value realisation model

Building Information Modelling (BIM) is a revolutionary stride of technology in the orthodox construction and procedures in conventional Architecture Engineering and Construction (AEC) industry which is stressed upon for its delay on embracing new technologies. The strength of BIM has been disvalued in the eyes of many professionals, to think of BIM as just another ‘software’ which is in reality, a ‘process’ of attaining an outstanding collaboration among each and every stakeholder throughout a project’s life cycle. Hence, the philosophy of Supply Chain Management (SCM) in a construction project can be achieved effectively with the BIM’s promise of flexible and transparent interaction among Construction Supply Chain (CSC) contributors. However, the complexities in CSC of a conservative setup has been more composite with the intervention of BIM. Consequently, the BIM project stakeholders have encountered complications on the effective application of BIM on CSC while reaching the envisioned goals of BIM. Thus, the intention of this study is to develop a foreseeable information flow model related to construction supply chain in a BIM aided project. In order to attain the aim, an extensive literature synthesis was piloted to develop a conceptual informational flow model among CSC stakeholders of a BIM project. This contemporary research outlines that the CSC of a BIM project is much interactive and flexible with its collaborative effort of stakeholders when compared to the clashes among professionals in traditional setups. In a practical context, the roles and duties of BIM project stakeholders identified in BIM standards, have slightly differed due to real-world complications in construction industry. Besides that, BIM standards have laid down charismatic arrangements on information flows among BIM project stakeholders, which is in reality, a complex and random setup. Hence, the research outcome has successfully answered the complications by laying down guidelines for any outsider to the BIM field to recognise what would be the contribution of each stakeholder throughout the BIM project’s life cycle.

Building information modeling (BIM) technologies use precise geometry and relevant data to enhance and improve the maintenance performance of facilities integrated with 3D object-oriented computer aided design (CAD). Although most owners agree on the potential benefits of integrating BIM technologies with facility management (FM), they must overcome many problems to plan and develop effective BIM execution plans for FM implementation. This study proposes and develops a BIM execution plan for BIM model management for FM during the pre-operation phase. Through the application of the proposed BIM execution plan, BIM can be effectively implemented during the operation and maintenance phases. In order to verify the proposed methodology and demonstrate its effectiveness in practice, the BIM execution plan is then applied in a selected case study of a building project in Taiwan. The combined results demonstrate that the proposed BIM execution plan is an effective approach for operation and maintenance management. The advantage of the proposed BIM execution plan lies not only in improving the efficiency of maintenance management work when integrated with BIM technologies, but also in maximizing the value and benefits of BIM to support maintenance management. Finally, limitations, difficulties, and suggestions are summarized for further development of the BIM execution plan for BIM model management during the pre-operation phase.

Data exchange between different computer-aided design (CAD) systems is a major problem inhibiting information integration in collaborative engineering environments. Existing CAD data format standards such as STEP and IGES enable geometric data exchange. However, they ignore construction history, features, constraints, and other parametric-based CAD data. As a result, they are inadequate for supporting modification, extension and other important higher-level functionality when accessing an imported CAD model from another CAD system. Achieving such higher-level functionality therefore often requires a time-consuming, error-prone, tedious process of manually recreating the model in the target CAD system. Based on techniques adapted from programming language research, this paper presents an approach to exchanging parametric data between CAD systems using formally-defined conversion semantics. We have demonstrated the utility of our approach by developing a prototype implementation that automates the conversion of 2D sketches between two popular CAD systems: Pro/ENGINEER and SolidWorks. We present examples showing that our approach is able to accurately convert parametric CAD data even in cases where models were constructed using operations from the source CAD system that have no direct counterpart in the target CAD system. Although the case study focuses on 2D interoperability, our approach provides formal foundations for supporting 3D and semantic interoperability between CAD systems.

Integration of the structural project into the BIM paradigm: A literature review

In the realm of civil engineering, the evolution of drafting software has significantly transformed the design and construction processes. This research delves into a comparative analysis of Building Information Modeling (BIM) and Computer-Aided Design (CAD), two paramount tools in modern civil drafting. By employing a combination of literature reviews, case study evaluations, and expert interviews, this study aims to discern the core functionalities, efficiencies, and applications of both BIM and CAD in various civil engineering projects. The findings reveal that while BIM offers an integrated design approach fostering enhanced collaboration and reduced errors, CAD excels in precision and versatility across diverse engineering disciplines. The study concludes by emphasizing the importance for industry professionals to judiciously select between BIM and CAD based on project requirements, underscoring the unique strengths and limitations of each system.

More than traditional computer-aided design (CAD), Building Information Modeling (BIM) can include a lot of additional information about the various products and systems in the design. It was noticed that BIM had unbalanced applications among different types of construction. BIM has been shown to provide a significant cost savings to the design firms and clients by its use in residential construction. Yet, it has limited use on a very small number of industrial construction projects. Rather than performing a theoretical cost analysis on BIM usage to prove that it could save project cost, this paper explores the specific benefits that BIM provides from an industry perspective, and see how they would translate to the industrial construction sector. To do this, BIM users in industrial and commercial construction are surveyed. The first-hand survey results revealed that the two biggest benefits to BIM are clash detection and the large amount of information it can provide to the entire stakeholder in the project. Comparing these benefits to the current practices used in the industrial engineering and construction field leads to the conclusion that, BIM usage is probably not worth the cost investment for these firms. There are some additional considerations as to why including BIM capabilities in a company’s profile would be a good option, but cost savings is not the most important.

Enabling Building Information Modeling (BIM) Practices in the Canadian Construction Industry: A case for an academic programIn today’s construction industry, we are seeing a growing number of complex and high qualityconstruction projects all around the world using the BIM process. In order to get the most benefitout of BIM, there is a dire need for standards and efficient educational programs and courses totrain skilled professionals to support the implementation of BIM in the construction industry.Based on a preliminary environmental scan, there is a huge gap between industry BIM needs andavailable training/educational programs to facilitate effective implementation of BIM.Construction education needs to fill the gaps in BIM training for industry to remain current,responsive and relevant. Although an increasing number of educational institutions offeringarchitecture, engineering and construction programs have initiated to offer BIM related courses,there is no comprehensive curriculum developed by local academia to address the BIM relatedtraining needs of the construction industry in Alberta. Several researches and case studiesadvocate that industry stakeholders can use BIM technologies to save time and cost, whileimproving building quality. Integrating BIM collaboratively among stakeholders will also boostcompetitiveness and productivity in the building industry.BIM enables team collaboration, assisting project managers to more reliably communicateproject’s intent to all stakeholders in a timely fashion. It is therefore important for industry andacademic institutions to work collaboratively in order to understand the level and skillsetrequired for effective implementation of BIM practices in the industry.The paper aims to review the current state of BIM training programs; consult and solicitfeedback with various stakeholders with respect to training; and recommend appropriate trainingprograms that provides industry professionals with the fundamental skills and knowledge ofprinciples, terminologies, tools, and techniques related to BIM practices. The research utilizes aqualitative methodology to capture stakeholder’s experiences and understanding differentperspectives on BIM practices in the industry. The study suggests that a BIM certificate will helptraining our professionals better to address the needs of BIM practices in the constructionindustry. There is a dire need for a certificate program that provides the required skillset toproduce career ready professionals for enabling BIM practices in the construction industry. Thestudy findings would be of interest to BIM experts, construction professionals, and facultyinvolved with BIM education.

The rapid evolution of the metaverse is driving the development of new digital design tools that integrate Computer-Aided Design (CAD) and Building Information Modeling (BIM) technologies. Core technologies such as Virtual Reality (VR), Augmented Reality (AR), and Mixed Reality (MR) are increasingly combined with BIM to enhance collaboration and innovation in design and construction workflows. However, current BIM–VR integration often remains limited to isolated tasks, lacking persistent, multi-user environments that support continuous project collaboration. This study proposes a BIM-based Virtual World (VW) framework that addresses these limitations by creating an immersive, real-time collaborative platform for the Architecture, Engineering, and Construction (AEC) industry. The system enables multi-user access to BIM data through avatars, supports direct interaction with 3D models and associated metadata, and maintains a persistent virtual environment that evolves alongside project development. Key functionalities include interactive design controls, real-time decision-making support, and integrated training capabilities. A prototype was developed using Unreal Engine and supporting technologies to validate the approach. The results demonstrate improved interdisciplinary collaboration, reduced information loss during design iteration, and enhanced stakeholder engagement. This research highlights the potential of BIM-based Virtual Worlds to transform AEC collaboration by fostering an open, scalable ecosystem that bridges immersive environments with data-driven design and construction processes.

A virtual reality (VR) interface to a feature-based computer-aided design (CAD) system promises to provide a simple interface to a designer of mechanical parts, because it allows intuitive specification of design features such as holes, slots, and protrusions in three-dimensions. Given the current state of a part design, the designer is free to navigate around the part and in part cavities to specify the next feature. This method of feature specification also provides directives to the process-planner regarding the order in which the features may be manufactured. In iterative feature-based design, the existing part cavities represent constraints as to where the designer is allowed to navigate and place the new feature. The CAD system must be able to recognize the part cavities and enforce these constraints. Furthermore, the CAD system must be able to update its knowledge of part cavities when the new feature is added. In this paper, (i) we show how the CAD system can enforce the aforementioned constraints by exploiting the knowledge of part cavities and their adjacencies, and (ii) present efficient methods for updates of the set of part cavities when the designer adds a new feature.

Building Information Modelling (BIM) is the current trend in the construction industry globally, and Malaysia, is not an exception too. BIM has been in Malaysia for the past ten (10) years, and in the future, BIM will be an industry standard, instead of an optional service. Even though BIM is already in the industry for ten (10) years, many developers are still reluctant to implement it because they could not see the benefits of BIM especially in monetary terms. This paper aims to explore the understanding developers of BIM and its impact on Return on Investment (ROI). A literature review is carried out to review the linkage between BIM and ROI. The study engages qualitatively with four (4) respondents who held the title of BIM managers in their respective companies that have experience in BIM. Data was collected through face-to-face semi-structured interview sessions and was analysed using qualitative content analysis techniques. From the findings, the respondents do understand BIM and that BIM is not a tool for visualisation only. It is, in fact, able to help them in project control. The findings show that BIM had impacted on the ROI of both the project and organisation. At present, these findings support the argument that BIM does have an impact on the ROI both positively and negatively. However, the findings prove that BIM is worthy of its pricey initial investment. It is, therefore, suggested that Malaysian developers invest in BIM though the initial investment may seem pricey.

Building information modeling (BIM) has become an integral part of commercial construction processes in recent years. This article summarizes a research study undertaken to explore the frequency of BIM application, the advantages and effects of using BIM, and various other methods associated with developing and using BIM models in commercial construction. Executive, mid-management, and BIM practitioner-level employees from eighteen leading commercial general contracting firms (with regard to BIM use) were surveyed to determine how their companies utilized BIM. Thirty-two different applications of BIM use were identified for commercial construction, and those most commonly utilized included clash detection, 3-D modeling, team collaboration, constructability issues of design, and sales. Communication, scheduling, coordination, visualization, and clash detection were identified as the top advantages of using BIM. Regarding the effects of using BIM, companies reported a positive impact on profitability, time of construction, and marketing. Finally, this article discusses various processes for using BIM, how models were used internally and with trade partners, and the decisions affecting BIM use by leading commercial contractors.

Building maintenance is the responsibility of its owner which must use, whenever appropriate, a technician to perform the inspection. A good maintenance depends on the analysis of the anomalies detected during the inspection of the site. Building Information Models (BIM) have revealed themselves as a good tool when it comes to supporting maintenance actions, due to their ability to store enough information in one digital model. The aim of the proposed work was to implement the benefits provided by BIM on a software tool used as support to maintenance of buildings. During an inspection activity for maintenance purposes, the implemented application, containing a rigorous database, allows the user to identify each anomaly present in building components, directly onto the BIM model, automatically associating them with probable causes, repair methods and a photograph of the anomaly uploaded at the site. Therefore, gains in productivity and a decrease in the error probability can be achieved. The inspection data is stored in the BIM model, making it suitable for consultation when planning maintenance. Additionally, it was case study the interoperability between BIM modeling and visualizing software, regarding the preservation of information, especially in the standard format Industry Foundation Classes (IFC). This work contributed to demonstrate, not only that there are still problems concerning the interoperability between BIM software, but also the advantages of employing BIM for building maintenance purposes.

The constant progress of technique is inevitable nowadays and seems to be the same in a predictable future. The observation of this phenomenon leads us to formulate a few reflections on it. The use of advanced techniques causes a clearer detachment of production processes from human work. Robotics and automation were initially supposed to facilitate the production of elements, but over time they began to replace humans more and more. Will there be a place for human work in the future? It is already being pushed out of many bastions in which it was supposed to be indispensable. Autonomous cars and buses are the best example of this. Can similar phenomena be noticed in design? Will the machine replace the creator? The development of artificial intelligence (AI) shows that it is possible. Complicated algorithms are already able to compose a piece of classical music. In the case of architecture, architects are still in the lead, however, one has to take into account the conquest of this field by AI. At the moment, designers have various advanced techniques at their disposal to facilitate and accelerate their work. The most important among them are: digital 3D modeling CAD (Computer Aided Design), Building Information Modeling (BIM), visualizations, and computer animations mainly used to present ready-made ideas, but also useful at the concept stage. Apart from them, three-dimensional printing is also important, as well as three-dimensional design of structures. The above technologies are increasingly used in the design process. They are more compatible with each other than before. They allow you to save labour, accelerate the implementation of tasks, as well as to optimise the designed buildings in many respects related to construction, prefabrication or energy efficiency, to name just a few. An important, although not very common, advantage of technological innovations is their use not only during design and construction, but also during the maintenance of ready-made buildings. The best example of this is BIM, which facilitates the previous management of these technology designed objects. In the future, it will be much easier to design the adaptations of such buildings and to store information of changes which were made. This approach fits in with the idea of Management of Change, which can be included in an even broader aspect among the paradigm of sustainable development.