Application of Building Information Modeling for an Institutional Building

Download Full-Text PDF Cite this Publication

Text Only Version

Application of Building Information Modeling for an Institutional Building

Sam Joseph

VIT University- Department of Civil Engineering

Rahul Sasikumar

VIT University- Department of Civil Engineering

Malavika Anil

VIT University- Department of Civil Engineering

Abstract:- Building Information Modeling (BIM) is widely seen as a catalyst for innovation and productivity in the construction industry. While BIM is increasingly being adopted in developed countries, implementations in the developing country context are rare. Research has established how construction firms struggle from several limitations having to do with the socio-economic and technological environment found in developing countries. Case studies shows that BIM does enhance the traditional scheduling and cost estimating methods with a more reliable and automated technology.Due to numerous steps of construction industry and its complicated and extensive structure, errors and reworks often might happen in this section. As such, BIM (Building Information Modeling) is regarded as a beneficial tool in minimizing the waste and improving the efficiency of building construction. This project is an application of Building Information Modeling which is an upcoming topic in the field of construction planning and management.


Building Information Modeling (BIM) is a set of interacting policies, processes and technologies generating a methodology to manage the essential building design and project data in digital format throughout the building's life-cycle. As a key part in the project lifecycle, contractors play an important role in making sure the project will be delivered on time and within the budget. This project will show how BIM technology will benefit for Architect, Engineer and contractors for Estimating & schedule and cost controls. It begins with a general introduction of BIM technology and the different ways it works compared with traditional CAD (Computer Aided Design) method, and continues with evaluation of BIM tools. It then explains the uses of Scheduling and Cost Estimating in BIM respectively and provides a case study to show how BIM can work for architect, engineer and contractor.

Building Information Modeling (BIM) is an emerging technology throughout the world in the Architecture, Engineering, and Construction (AEC) industries. BIM technology provides users with accurate and consistent building/project data and information, accommodating the functions needed to model the building and provides a virtual view of it. Building information models are increasingly used, for several purposes by the diverse stakeholders during the different phases of the project and building lifecycle. BIM revolutionize the AEC industry, being not only a change between CAD and parametric modeling with 3D capabilities, but a change of workflows, methodologies, process, and relations. Basically it changes the way business is done throughout the industry. Although all of these changes may seem too much to be easily accepted by the industry, the benefits are much greater, making BIM the future for the industry. Nowadays, Construction and BIM technologies are built for the trailer and the office. To improve productivity and efficiency in construction, these technologies need to be built it for the field, where the work is done and money is spent. According to the Construction Industry Institute 75% of all construction dollars are spent in the field, however, 90 % of the technology is made for the trailer and the office. We selected an institutional building to show the application of Building Information Modeling using software like Revit (2018) and Navisworks Manage (2018). We wanted to show the application of BIM which would make the construction of a humungous project like an educational institutional building to be more precise and well managed within the limited time frame.

We collected data such as the floor plans and elevations of the new Gandhi Block (School of Architecture) in VIT, Vellore campus and created a 3-Dimensional model of the building using the Revit (2018) software. By creating a 3-D model we were able to give a real life representation of the building. We created the 3-D model according to the dimensions and specifications in the floor plan and elevation provided to us. We then transferred the model to the Navisworks Manage software for simulation the time constraint.

As majority of the building construction was completed at the time of the project, we collected the actual start and finish dates of construction of different components and parts of the building. We created a CSV excel file with the time schedule of the entire construction process including start and finish dates of each process. The file was then added to Navisworks manage. We created sets for each building components like flooring, walls, windows, doors and ceiling for each floor. We then linked the sets to the activity and their respective dates to create the time constraint simulation.

Creating this sort of a time constraint simulation will help us get a virtual idea or image of the completion of the entire project part by part and helps managing the construction more efficiently and precisely.


Building information modeling (BIM) is a process supported by various tools, technologies and contracts involving the generation and management of digital representations of physical and functional characteristics of places. Building information models (BIMs) are files (often but not always in proprietary formats and containing proprietary data) which can be extracted, exchanged or networked to support decision-making regarding a built asset. Current BIM software is used by individuals, businesses and government agencies that plan, design, construct, operate and maintain diverse physical infrastructures, such as water, refuse, electricity, gas, communication utilities, roads, railways, bridges, ports and tunnels.

The US National Building Information Model Standard Project Committee has the following definition- Building Information Modeling (BIM) is a digital representation of physical and functional characteristics of a facility. A BIM is a shared knowledge resource for information about a facility forming a reliable basis for decisions during its life-cycle; defined as existing from earliest conception to demolition. The best tool to simulate the construction project within a virtual environment is BIM.

In past, blueprints and drawings were used to express information about a particular building plan. This 2D approach made it very difficult to visualize dimensions and requirements. BIM objects, the components that make up a BIM model, are intelligent, have geometry, and store data. If any element is changed, BIM software updates the model to reflect the change. This allows the model to remain consistent and coordinated throughout the entire process so that structural engineers, designers and architects can work in a more collaborative environment.

Many construction projects suffer from poor design and from inconsistent time and cost management. This situation has led rethinking of the industrys performance and how it could be improved. Technology is breaking through design and management practices. Earned Value Management (EVM) enables better management of time and cost constraints. Building Information Modelling (BIM) is recognized to improve the planning and realization of a construction project. BIM improves technical work at the design stage by creating 3-D models that integrate all buildings features and it better represents the infrastructurs requirements. Those models can also be enhanced if linked with schedule or time (4-D) and costs (5-D); the construction can thus be better planned almost entirely at the design phase.

Time and cost controls are very important for any construction organization. In an effort to merge a time and cost management system with future construction best practices, the study objective was to develop an Integrated Time-Cost Management System (ITCMS) and to test it on a real-case scenario. The conceptual methodology revealed that this system would consist of four modules: time and cost estimating, scheduling, visualization, and EVM. A conceptual workflow was also presented and several tasks to be performed at the design and construction phases developed. Most of the work is to be performed with computer tools; pieces of software such as MS Project, Microsoft Excel, and Autodesks Revit, Quantity Take off, and Navisworks were used.

The ITCMS has the potential to improve the actual construction practices. Multiple benefits are identified from applying it to the actual project such as ability to associate detailed time and cost values to each of the building model components during the design phase; facilitated estimating process with automated outputs; creation of a time and cost baseline that serves as a reference for EVM performance reporting at any time during the construction; visual tool fostering better comprehension among the project team, particularly with people that have less technical or management knowledge.

Like other industries, the construction companies benefit from a range of Information and Communication Technology (ICT) solutions when delivering their projects. It has been suggested that construction projects will be more effective and productive with ICT applications. One of these ICT applications is Building Information Modeling (BIM), which could have many benefits in supporting construction. In terms of more effectiveness and productivity, BIM yields advantages for scheduling, design, implementation, and facility management. From a stakeholder perspective, BIM helps owners, designers, contractors, and management teams to collaborate, visualize and manage construction work better. Consequently, BIM technology receives significant attention from practitioners. In the light of improvement, increasing the use of ICT could help to address some of the currently experienced challenges.

BIM finds elements of a building for example windows, doors , slabs, stairs , and walls by applying their attributes such as usage, structures, and functions as well as utilizing parametric technology; Moreover, it can reflect any alterations in the elements of building instantly into the information about the building configuration by distinguishing the connections between those attributes. Accordingly, the building elements specifications and their relative information can be gotten by using a simulation model, which provides it possible for making quick decisions pending a construction project. Additionally, BIM not only prepares foreseeable information with regard to amount, expenses, schedules, and materials but furthermore provides it possible to perform analyzing data that can depend on the structure and ambience.

BIM supports optimization of building designs in order to aid selection of alternative design elements and materials before they are actually constructed. The BIM model provides platform for information integration. It is helpful for design evaluation and assist designer to verify drawing correctness and consistency.

An application of Building Information Modeling is called Asset Information Model. Asset Information Model (AIM) is a model that compiles the data and information necessary to support asset management, that is, it provides all the data and information related to, or required for the operation of an asset. It might include information outlining the original design intent, details of ownership, survey work undertaken, operational performance details as well as 3D models developed on the project.

The AIM is used by clients, and users and facility managers as a building enters the operation and in use phases of the project lifecycle. Building owners/occupiers will use the data and information contained in the AIM to answer the Organizational Information Requirement (OIR) to support business operations. Asset Management suppliers will use the data contained in the AIM to manage their activities effectively. The AIM should deliver a fully-populated asset data set that can, if required, be used by computer-aided facility management systems (CAFM). This software allows facility managers to plan, execute and monitor activities required to deliver proactive and reactive maintenance, explore space configuration and manage moves.

Autodesk Revit is a building information modeling software for architects, landscape architects, structural engineers, mechanical, electrical, and plumbing (MEP) engineers, designers and contractors. The original software was developed by Charles River Software, founded in 1997, renamed Revit Technology Corporation in 2000, and acquired by Autodesk in 2002. The software allows users to design a building and structure and its components in 3-D, annotate the model with 2-D drafting elements, and access building information from the building model's database. Revit is 4-D building information modeling capable with tools to plan and track various stages in the building's lifecycle, from concept to construction and later maintenance and/or demolition. Autodesk Revit is a building information modeling software for architects, landscape architects, structural engineers, mechanical, electrical, and plumbing (MEP) engineers, designers and contractors. The software allows users to design a building and structure and its components in 3-D, annotate the model with 2- D drafting elements, and access building information from the building model's database. Revit is 4-D building information modeling capable with tools to plan and track various stages in the building's lifecycle, from concept to construction and later maintenance and/or demolition.

Navisworks (known for a while as Jet-Stream) is a 3D design review package for Microsoft Windows. Used primarily in construction industries to complement 3D design packages (such as Autodesk Revit, AutoCAD, and Micro-Station) Navisworks allows users to open and combine 3D models, navigate around them in real-time (without the WASD possibility) and review the model using a set of tools including comments, redlining, viewpoint, and measurements. A selection of plug-ins enhances the package adding interference detection, 4D time simulation, photorealistic rendering and PDF-like publishing.


Our project deals with the application of Building Information Modeling in the construction of an educational institutional building, namely Mahatma Gandhi Block (VSPARC) in VIT University, Vellore. It is a building consisting of 5 floors (G+4), with a green architectural design. Being a multi-storey building spread across a vast area of land, the construction of the building would require detailed planning and management in order to achieve the best of use of all kinds of resources to produce the best result expected. This can be achieved with the help of Building Information Modeling where a virtual model and simulation would help the builders and the client to select the most suitable resources required for each component or stage of construction.

Creating a virtual 3-dimensional model of the building using Revit software would give a realistic image of the building after the construction. Linking the time schedules charted by the builder virtually with the 3-D model using Navisworks Manage software would give us a virtual simulation of the building through each stage of construction from the beginning to the end. This would help us make changes to the building through each stage of construction and also help us manage time very efficiently throgh construction. The 3-D model can also be linked to the cost of construction for each stage or component with the help of Navisworks Manage software. This model simulation consisting of five dimensions, namely three dimensions of measurement, time and cost would help us use all resources such as building materials, raw materials, time and money in the most efficient way.

Particularly linking time schedule and cost of each stage of construction to the model would help us determine the fastest and most cost efficient way of construction by simple simulation of the building construction using the software. In the world where computers have so much influence in almost everything we do in our daily lives, this could be an efficient application of computers and software in our construction industry. Such software is uses for basic activities such as sketching the plan for the building. Now with the increased influence of software, we can get a complete virtual simulation of the entire construction

process which will help us rectify mistakes that could take place during construction and make improvements in construction well in advance. Application of modern technology in such a way will help us save a lot of time and money, which are considered to be two of the most important resources in todays world. If saving such precious resources with the help of computers and software is possible, we can achieve greater goals in this industry which is considered to be the base stone of life on earth. Our goal is to show that Building Information Modeling with the help of such software will help us achieve efficient and precise results in the construction industry that contributes to huge proportion of our countries economy.


We used two Autodesk software for our project, namely Revit (2018) and Navisworks Manage (2018). We were able to access the software with the help of student licenses. The Revit software was used to make the 3-dimensional model of the building according to the dimensions specified in the data collected. The Navisworks Manage software was used for the time constraint simulation according to the schedule collected.

Some of the tools and basic functions used in Revit software were:-

  • UNITS We set the dimensional unit as milli-meters (mm).

  • GRIDS It is a function mainly used to draw a grid for reference while drawing walls so that each floor is aligned correctly above each other respectively.

  • WALLS We used basic wall command to draw a layout of the floor plan for each floor. The height and width of the inner walls and outer walls were done according to the plan.

  • FLOOR We used floor option for flooring and selected the thickness according to the plan.

  • WINDOW The windows were done with the most suitable design offered in the Autodesk Material Library.

  • DOORS The doors were selected from the available Autodesk Materials Library.

  • CEILING – A similar function to flooring was selected according to specification in the plan provided.

  • 3-D VIEW It is a function used to the building as a 3-D model.

  • EXTERNAL TOOLS It is a tool used the transfer the Revit file (.rvt) to a Navisworks Manage file (.nwc).

  • PROJECT BROWSER It is a window that shows each component of the building.

    Some of the tools and basic functions used in the Navisworks Manage software were:-

  • SETS It is function used to select each component of the model like wall, floor, etc.

  • SELECTION TREE It is window showing each component or part of the transferred Revit 3-D model.

  • TIMELINER It is a window used to link the task and each set and for simulation.

  • CSV File CSV format files are used to transfer task schedules to the software for simulation. It is similar to MS Excel.

  • REBUILD TASK HIERARCHY It is a command used to extract the task and schedule from the CSV file into the software.

  • SIMULATE It is a command used to simulate the entire construction process or part of it with respect to the time constraint.


    The methodology used here is direct application of Revit software and Navisworks Manage software. The main application of Revit software is of creating the 3-dimensional model of the building and all its components structure to even the furniture.

    We first made grid lines that could be used as reference while drawing the floor plan of each floor. The grid line mainly outlines the outer walls of the ground floor. This helps us use a reference point in the space dimension to find the exact position of walls in the higher levels. These grid lines are reference points and do not have direct involvement in the 3-D model description. The grid line is used only as reference for two dimensions such as length of the room and width or breadth of the room. It does not become a reference for height of the floor or room.

    Once the grid lines were made exactly according to the dimensions of the outer walls of the ground floor, we start to make a 2- dimensional floor plan using walls function. We draw the exact dimensions as mentioned in the floor plan and complete the floor plan for each floor by also maintaining the reference grid lines. These grid lines need to be maintained in order to get each floor aligned correctly as there is no structural component provided for our project. The grid lines act as a substituent to the points where the columns would come into existence in real life.

    On completion of the floor plans of each floor, we aligned the sectional view and elevation view of the building by entering the correct dimensions of wall height for each floor. The 3-D model then comes into picture as we complete the final dimension of height of each floor and align each floor correctly.

    Now we added windows and doors to each room at their respective position. Once the windows and doors were fixed, the stairs were aligned and designed. The stairs had to be aligned for all floors from ground floor to 4th floor uniformly. Stairs need to be designed separately with the correct number of stairs, width and inclination and then later fixed into place within the 3-D model.Now we added flooring and ceiling to each floor according to plan and also provided roofing for the topmost floor. This completes the 3-D model. The final 3-D model is then transferred to Navisworks Manage by using external tools in Revit and saving it as .nwc file rather than .rvt file.

    On opening the 3-D model in Navisworks Manage software, we first provide sets to the model. This is done by creating sets in such a way in which we would like to link each stage or component of construction to their respective task consisting of the time constraint. We selected components like flooring, walls, doors, windows and ceilings of each floor as a set from the selection tree. We created a total of 26 sets that includes various components of the building. We also created a MS Excel workbook consisting of the entire schedule task by task and also with their planned start and finish date, actual start and finish date, duration, cost and IDs. These are arranged chronologically from start to finish of the entire construction of the building.

    Now we convert the schedule into an MS Excel worksheet and then saved it as a CSV file. This CSV file is opened in Navisworks Manage by adding it through the data source option. Then we rebuilt the task hierarchy shown in the schedule which transfers the entire schedule and tasks with their respective start and finish dates into the software. Each task is then linked to its respective sets with the help of attachments. Once each task was linked to their respective set correctly the task type was set to construct.

    We now simulate the entire model with respective to time to show how the construction would take place stage by stage as mentioned in the schedule in a short period of time. We set th interval size as 15% and playback duration for 20 seconds. On beginning the simulation, the entire construction of the building will be shown advancing virtually stage by stage with respect to time.


    We have carried out the entire program using computer software and programs. Screenshots were taken at each stage of the project for demonstration. We used the Revit software to create the 3-dimensional model of the building.

    Figure 1 Front View

    Figure 2 Back View

    Figure 3 Left Side View

    Figure 4 Right Side View

    Figure 5 Aerial Front View

    Figure 6 Aerial Back View

    Figure 7 Top Front View

    Figure 8 Floor Plans

    We then transferred the 3-D model from Revit software to Navisworks Manage software for linking the time constraints and its simulation.

    Figure 9

    We then transferred the MS Excel file consisting of the construction schedule, tasks and their respective details such as start and finish dates in the CSV file format

    Figure 10

    Sets are created by selecting each component from the selection tree. Sets are created for an ease of linking each component to their respective task and dates. Sets are also created for the ease of searching a component quickly. It would be difficult to find small components in a huge construction project, so creation of sets will gather components of similar properties and group them. This makes it easier to link them to a schedule or search for them.

    Figure 11

    We then rebuilt the task hierarchy into Navisworks Manage which means transferring the schedule from the CSV file to the software. Then they are linked to the respective sets created earlier for simulation. The task type is set as construct.

    Figure 12

    The simulation is carried out after linking each set with their respective tasks according to the following settings where playback duration is 20 seconds and interval size as 15%.

    Figure 13

    Once the settings are fixed according to choice the simulation is carried out. The interval size denotes the time period for the next activity to start. This can be set according to different units such as percent, days, hours, minutes or seconds.

    Figure 14

    The above figure shows the simulation of the construction after the completion of the ground floor of the building. The green components are the components next in queue for construction after the completion of the current component.

    Figure 15

    As shown in the above figure, the white components are the ones that are under construction at the given point of time and ones shown in their original color format are completed.

    Figure 16

    Figure 16 shows the construction of the third floor and shows green faded components on the fourth floor that are in queue for construction after the completion of the current. In such a way the entire construction process can be visualized virtually from start to finish and time schedules can be revised for improvements that help in optimized and effective usage of resources available for construction.

    Figure 17

    This figure shows the queue components of the top-most floor that is to be constructed as soon as the current construction process of third floor is completed.

    Figure 18

    The above figure shows the final image of the whole building once the whole construction process is completed according to schedule. We can compare simulation of planned as well as actual schedules of construction and compare them for improvements in construction and time management for upcoming projects of similar capacity and volume. This helps us use the available resources in the most effective way and hence help us create sustainability and maximum productive without compromising the quality and standards of construction.

    Figure 19

    This shows the construction process in progress from another angle of view as shown in figure 12 above. The building can be viewed from any angle of choice at any given point of time frame during the simulation.

    Figure 20

    Figure 20 gives us a glimpse of the construction process in progress for a different viewing angle as that shown in figure 16. In such a manner we can view the entire construction process virtually from any angle of choice and thereby evaluate the process of construction of each component or stage in detail. This helps us reduce errors or disasters that could happen in real life.

    Figure 21

    This figure shows us a different viewing angle of the completed building similar to the image shown in figure 18. We can view the building from any angle of choice in the provided three dimensions and evaluate the construction process. This helps us evaluate each component or stage of construction of the infrastructure in detail from every angle and help us make necessary changes to improve the quality, save time and also to avoid mistakes that could happen. Hence building information modeling is an essential topic of further studies that could provide ease of management of huge construction process like these.


    The project shows an application of a 4-dimensional modeling of an institutional infrastructure. The building selected here is Mahatma Gandhi Block (School of Architecture, VSPARC) located within VIT University, Vellore campus. The building is a multi-storey infrastructure spread over a vast area of land. The project shows the ease of construction planning and management of huge construction projects like these.

    A 3-dimensional model of the building was created according to specifications as shown in figures 1-8 above. The virtual model gives us a glimpse of the image of the building after construction. Such a view of the building helps us select various materials and components that are best suited by repeated trial and combinations such as wall paint color, tiles furniture, management of

    space within the building, etc. Some parameters added to the 3-D model are walls, flooring, ceiling, doors, windows and roofing.

    The 3-D model is then given its fourth dimension as time constraints. The fourth dimension, namely time constraint consists of task and its corresponding start and finish dates. A total of 27 activities were selected to show the construction process floor by floor. On simulation of the fourth dimension through Navisworks Manage software, we can virtually assess the entire construction project from start to finish. This helps us make improvements in time management for the project. It also helps us make improvements in various components or stages of construction for better and efficient use of valuable resources.

    BIM can be used by engineers ,architects, project managers ,etc. in order to achieve these goals : To decrease design errors, To reduce clash detection, To boost the integration of cost and time, To improve the integration of design and construction phase, To increase the collaboration between different construction sections and finally to improve recycling.

    BIM platform is not only providing the visualized 3-dimensional graph previous for participants but also including series of construction information. It promotes interactive communication and feedback for the design results. The point is the building project plan, design, construction and operation are carried out in a visual state. The BIM is implemented because the construction project demand sustainable, efficiency and cost improvements throughout project life cycle. Many of the 3-D visualization display are only for rendering in the earlier stage. The communication gap existed in construction parties, because the traditional drawing contained limited information lead to difficulty to execute in construction stage.

    The BIM model is not only integration of the component information, but also provides a three-dimensional communication platform. The traditional construction work schedule management is based on 2D drawing which has poor visibility problems. It leads to communication difficulty between different participants. As a result, the actual construction progress often deviated from the work schedule plan. The BIM visualization technology simulate the project construction work process and establish the 4D management system, such as monitoring the entry time of construction manpower, material, equipment and other resources. The BIM 4D function guide the each section work sequence in the construction period. This method is modeled as a powerful visualization and communication tool provide the project construction implementation details to the project participants.

    BIM helps in visualizing the sequence of creation building elements leading to save time and cost over the project life-cycle and visualizing construction sequence. Models of Building information are dramatically increasing to be popular with the tasks of facilities management (FM). The ability of BIM for containing vast visual information quantities has absorbed a huge amount of interest from units of facilities managers, operations and maintenance. The advantages are homogeneous to those listed for the other project stages. It can be frequently simpler for managing the tasks visually; utilizing the three dimensional (3D) model, to enable to view definite features of management, helps one in visualizing it oneself, and to connect it to others.

    Limited attention is given to BIM implementations in infrastructure and facilities projects in developing countries. Revit works exactly opposite to AutoCAD. In Revit first to create direct 3D model and then get directly 2D drawing with material quantity and many more which is essential to manage construction of building. In an effort to merge a time and cost management system with future construction best practices, the study objective was to develop an integrated time-cost management system (ITCMS) and to test it on a real-case scenario.

    The core purpose of BIM is to solve the problem of information creation, information management and information sharing in the whole life cycle of construction engineering. It embodies the idea of digital design information management and sharing. BIM uses virtual prototype technology as the key technology, establishment of the information sharing model of the whole life cycle of construction project.

    BIM is a field in civil engineering that is still not known to many around the world and is also a topic or area for further research and studies that will help improve construction planning and management. As shown in the project, BIM will create an ease of construction process as we can see the construction process happen virtually according to schedule and make improvements in them. In such a way huge construction projects that require a lot of time, money, resources and manpower can be done in a very organized and efficient way with the help of BIM.

    The whole process of Building Information Modeling consumes lesser time and resources as compared to the consumption of time and resource in the correction or improvement would take. BIM also helps asset management after occupancy of the building that will help us drastically reduce the expense of maintenance. BIM also has various applications in the building maintenance such as energy consumption and asset information. Energy consumption of the infrastructure can also be calculated using BIM. The asset information of all assets within the building can also be visualized and maintained using BIM

    applications. Hence, Asset Information Modeling is a field within BIM that has a major application in construction and real estate field that also opens a wide window for further study and research.


    Our motivation to do this project was to show the advantages of involving modern technology and computer software in the field of construction planning and management. Being in a world where time and money are considered as the most valuable resources, we have to use them efficiently in a reduced manner as much as possible. In order to save time and money we can use computer software to help us virtually. It also helps us rectify mistakes or make the construction process more easily sorted.

    We took an educational institution building as an example for Building Information Modeling. The building consists of five floors. Our first step was to create a 3-dimensional model of the building with the help of the Revit software. We created the 3- D model with reference from floor plans, elevation plans and sectional plans collected as raw data. The 3-D model was dimensioned according the plan. Each basic components of the building such as flooring, walls, doors, windows, ceiling and roofing was created within the 3-D model.

    On completion of the 3-D model, we dealt with the fourth dimension in Building Information Modeling time constraints. This was achieved with the help of Navisworks Manage software. A task schedule was created which consisted of various stages of construction of the building along with their start and finish dates respectively. We linked these tasks and dates with each of their respective stage or component of construction with the help of the software. As a result, a simulation of the entire construction process from start to end was virtually created as a function of time. This virtual simulation of the construction project will help us manage time and cost of each stage or component of construction efficiently and choices of selection can also be improved. This in return would help us save and efficiently use valuable resources such as time and money. Overall, the project shows the application of Building Information Modeling of an educational institution building using computer software such as Revit and Navisworks Manage.


  • Some or all data, models, or code that support the findings of this study are available from the corresponding author upon reasonable request floor plans of the building used to create the BIM model.

  • Some or all data, models, or code generated or used during the study are proprietary or confidential in nature and may only be provided with restrictions AutoCad drawings of the floor plans used to create BIM model.


  • Creative Construction Conference 2016, CCC 2016, 25-28 June 2016 A review of Building Information Modelling for construction in developing countries Nam Bui, Christoph Merschbrock, Bjørn Erik Munkvold

  • Building Information Modeling (BIM) Shrikant Bhuskade e-ISSN: 2395 -0056 p-ISSN: 2395-0072 Volume: 02 Issue: 02 | May-2015

  • Research Article on An Integrated BIM System to Track the Time and Cost of Construction Projects: A Case Study Ahmad Jrade and Julien Lessard Received 25 June 2015; Revised 28 September 2015; Accepted 27 October 2015

  • Review of Building Information Modeling (BIM) Application in Construction Industry Yin Rui ISSN: 2278-3075, Volume-8, Issue-6C2, April 2019

  • Research on Building Information Model (BIM) Technology Tianqi Yang and Lihui Liao

  • Soltani, S. (2016) The Contributions of Building Information Modelling to Sustainable Construction. World Journal of Engineering and Technology

  • Sampaio, A. (2017) BIM as a Computer-Aided Design Methodology in Civil Engineering. Journal of Software Engineering and Applications

  • Zhang, C. , Zayed, T. , Hijazi, W. and Alkass, S. (2016) Quantitative Assessment of Building Constructability Using BIM and 4D Simulation. Open Journal of Civil Engineering

  • Seo, M. and Kim, J. (2012) Analysis of Awareness and Utilization of BIM in Civil Engineering. Open Journal of Applied Science


Leave a Reply

Your email address will not be published.