Exclusive Neuroject article: Building Information Modeling (BIM) constitutes a comprehensive approach to generating and overseeing information related to a constructed asset. Leaning on an intelligent model and facilitated by a cloud platform, BIM amalgamates organized, multidisciplinary data to formulate a digital portrayal of an asset throughout its entire lifecycle, spanning from initial planning and design to construction and ongoing operations.
Building Information Modeling (BIM) serves as the cornerstone for digital transformation within the architecture, engineering, and construction (AEC) sector. Autodesk, as a frontrunner in BIM, stands as the industry’s ally in achieving improved work methodologies and enhanced results for both businesses and the constructed environment.
Cities and countries are growing and developing at a high speed, and this growth is tied to the construction industry. But the construction industry is more than we know. In other words, we are only facing the tip of the iceberg. Behind the scenes of this industry, there are concerns and challenges such as sustainability, energy, intelligence, the environment, etc. But the main question is, how and by what means will we face these concerns?
In this article, we discuss one of the most used tools in the construction industry, i.e., BIM. We have found a correct answer to the question, what is BIM? Let’s look at its importance in the construction industry and examine its application.
Table of Contents
The Hidden Realities of the Construction Industry’s Growth
In the dynamic landscape of construction, the utilization of cutting-edge technologies has become paramount for enhancing efficiency, minimizing costs, and ensuring the longevity of built assets. At the forefront of this technological revolution stands Building Information Modeling (BIM), a comprehensive approach that has redefined the way we conceive, design, and manage construction projects. According to industry reports, BIM utilization has shown a consistent growth rate of 12% annually, underlining its widespread adoption in the construction sector.
As we delve into the Ultimate Guide of 2023, exploring “What is BIM and the Importance of BIM in Construction,” it’s imperative to understand the transformative power of this innovative methodology. BIM transcends traditional practices, offering a holistic digital solution that spans the entire lifecycle of a construction project – from inception to operation.
In the realm of collaboration, BIM has led to a staggering 30% improvement in inter-team communication, fostering a more integrated and streamlined construction process. A recent survey revealed that projects employing BIM technologies experienced a 20% reduction in overall project costs, emphasizing its significant impact on financial efficiency.
What is BIM? Building Information Modeling
BIM or building information modeling, one of the fundamental processes of the architecture, engineering and construction industry. It provides a tool for planning, designing, operating and building numerous projects from small and very simple to huge and very complex ones. But what exactly is BIM?
It is a collaborative platform based on cloud technology. It allows construction project team members to design dynamic 3D models of all the data obtained from the project. Building information modeling helps team members manage, evaluate, and improve the entire construction process from planning to design to operation and construction. This is done by allowing simultaneous and real-time access for all team members.
BIM is a holistic and collaborative process for producing and managing digital representations of construction project assets. This process, which is represented by computer files, facilitates decision-making about built assets by using various tools, technologies, and contracts.
Building information modeling provides a wide range of options for developing ideas and strategies for delivering well-being, increasing efficiency, and preventing unnecessary energy wastage. It also brings the opportunity for nested, simultaneous, and better collaboration between the design and construction team. This reduces errors and rework. Also, this can save costs, improve timelines, and produce better results.
Why is BIM Important in the Construction Industry?
In general, Building information modeling has revolutionized the construction industry. But how? By digitizing a normal physical process, Beam aligns all stakeholders in a construction project. It streamlines the schedule and minimizes surprises in the work process.
Now, thanks to the growth of technologies and advances such as artificial intelligence and the cloud space, BIM has become one of the main players in construction project management.
In the following, we discuss the 4 main reasons for the importance of Building information modeling in construction industry:
Increase Efficiency and Inter-Team Collaboration
Architects and designers use available and classified data to arrive at initial patterns. Templates that require synchronization with team members and employers. But the main issue is change! BIM becomes more critical when data or design changes. Because BIM eliminates the need to do repetitive tasks and go through the process from the beginning, and the changes are applied as a pattern in the entire project, from the data to the final design, another important point is the simultaneous communication of all team members about the project and its updates.
In general, BIM shows its importance in this matter: the possibility of entering different data into different phases of the project, avoiding repetition in the design and feedback process, reducing the duration of project development, reducing possible process errors, and monitoring its process. 4 main reasons for BIM importance in construction:
Facilitating 3D Modeling
Through the database it provides designers and architects, BIM opens their hands to achieve better results and faster results. Also, due to full access to this database, the designer can use his imagination and ideas and achieve a more unique result. But what options do we have?
- Changing the walls’ color and texture
- Added interior decoration and special features for them
- Setting the light and simulating the sun at different hours
- View the map before construction
Creating a Bridge Between Customers and the Project Before Construction
Clients of construction projects are concerned with aligning their ideas, architectural designs, and construction. Now, with BIM, data can be turned into a prototype and a feedback-driven process can be started. Modeling is a process that can be implemented with other software or technologies. However, the main difference is that Beam creates this modeling as an automatic part of the design process.
BIM makes it possible for the design process or other parts to be carried out in harmony by different people on the project. If needed, people can evaluate different aspects of the work or edit it. They can also share the results with all members.
The Building’s Life Span and the Post-Construction Process
A construction project doesn’t end once it’s built, it’s just the beginning. Whether this project is a residential apartment or a large hospital, it needs management and maintenance anyway. This is where BIM comes into action and through the information it can provide to the building manager, project manager, or any of the project’s stakeholders, it gives more and more dynamic transparency about the facilities, maintenance, and access to different parts of the building.
If there is a leak in the building, how should it be found and how are the accesses? Where is the water network? How is the electronic installation implemented? What route did the cabling go through? What case should be examined at what stage? This is what fear gives us!
Definition and Basics of BIM (Building Information Modeling)
Building Information Modeling (BIM) is a comprehensive, collaborative, and data-driven approach to the entire building and infrastructure lifecycle. It involves the creation and use of intelligent 3D models that enhance the planning, design, construction, and operation of buildings and infrastructure. BIM goes beyond traditional 2D representations, integrating multidisciplinary data to create a digital twin of the physical asset.
Key Basics of BIM
Here’s the list of key basics of BIM; in this list you will find out about the description and functionality of each key element.
Intelligent 3D Modeling
Description: BIM revolves around the creation of 3D models that represent the physical and functional characteristics of a building or infrastructure project.
Functionality: These models are not just visual; they contain intelligent data, enabling stakeholders to make informed decisions at every stage of the project lifecycle.
Collaborative Platform
Description: BIM relies on a collaborative platform where project stakeholders, including architects, engineers, contractors, and facility managers, can work together in real-time.
Functionality: This platform ensures seamless communication, simultaneous access to project data, and improved collaboration, reducing errors and enhancing efficiency.
Lifecycle Integration
Description: BIM covers the entire lifecycle of a building or infrastructure project, from conceptualization and design to construction, operation, and eventual decommissioning.
Functionality: It facilitates the integration of data across all stages, allowing for better decision-making, cost optimization, and efficient asset management.
Parametric Modeling
Description: BIM employs parametric modeling, where elements in the digital model are associated with parameters and rules, allowing for dynamic and interconnected changes.
Functionality: This enables quick adjustments to the model, automatic updates, and ensures consistency throughout the project.
Data-Driven Decision Making
Description: BIM is rooted in data-driven decision-making, leveraging structured data to inform choices related to design, construction processes, and ongoing facility management.
Functionality: Stakeholders can analyze information, assess potential impacts, and optimize various aspects of the project, leading to better outcomes.
Interoperability
Description: BIM emphasizes interoperability, ensuring that different software tools and disciplines can seamlessly exchange information.
Functionality: Interoperability reduces silos, enhances collaboration, and allows diverse stakeholders to contribute to the model using their preferred tools.
Cloud-Based Technology
Description: BIM often utilizes cloud-based technology for data storage, real-time collaboration, and accessibility from any location.
Functionality: Cloud-based solutions facilitate global collaboration, improve data accessibility, and provide a centralized platform for project coordination.
Facilities Management Integration
Description: BIM extends its utility beyond construction by integrating with facilities management systems.
Functionality: This integration ensures that accurate and up-to-date information about the building or infrastructure is available throughout its operational life, enhancing maintenance and efficiency.
Understanding these basics of BIM is crucial for professionals in the architecture, engineering, and construction industry, as it forms the foundation for efficient, collaborative, and data-driven project delivery.
Benefits of BIM in Construction
Although the advantages of BIM are many, in this part of the article, we have tried to examine some of its most important advantages.
1. Improving Collaboration and Inter-Team Communication on the Construction Site
Construction projects include different phases and many people with varying expertise. A project will not reach its original goal and plan if any of these phases or experts are not aligned. Now, thanks to BIM and its digital models, we can collaborate professionally at the same time. This is without the need for all people to be present at the workplace and in its different phases.
Cloud technology and tools such as BIM 360 degree AutoCAD or BIM Calibration can be used to achieve a project’s main objective. This technology enables people and team members to review all plans, documents, and lines from anywhere in the world and whenever necessary. It also enables them to make changes to them if necessary. Additionally, it provides project managers with the ability to evaluate the overall process and have a better relationship with their members.
2. Estimation and Estimation of Project Cost
One of the most difficult parts of construction projects is cost estimation. Many construction industry activists and more precisely AC industry activists, realizing the importance of this issue, have included BIM in their program. BIM provides model-based financial estimates using various tools such as Autodesk View and BIM 360 Doc.
3. Visualization Before Construction
What is more problematic than a project not approved by the employer? It could be a small architectural project or an international hospital project. BIM allows the construction team to create visualizations using the data they have. This is so that all stakeholders can understand and touch what is in the minds of the designer or the construction team.
On the other hand, these visualizations can be shared with other team members, from the designer to the smallest units of the project. If needed, updated information can be added and results can be viewed online and simultaneously.
4. Reduction in Construction Cost
One of the most terrible things that can happen to a project is when it progresses to significant stages. The architect realizes that structures conflict! This will incur serious costs, but also take time for the project team. Due to the facilities it provides to the project team, BIM reveals conflicts before construction and brings significant savings to projects; Save time and money.
5. Ordering and Improving the Construction Process
To the extent that the project dimensions become more extensive, we will need more people as a team. On the other hand, the number of documents, processes, and cases to be managed has increased, leading to more complications.
Consider a project where the architect changes one of the plans in the middle of the work. Now hundreds or thousands of team members, documents, and processes must be redefined and adjusted? Definitely not! Thanks to the step-by-step view program and its up-to-date model, all the people in the project have simultaneous access to all the changes connected and uploaded to the project at once, and the processes are very transparent and traceable.
6. Optimizing the Building Management Process
Collecting, classifying, organizing, and simplifying all building information is critical not only during the construction process, but also after completion; building management, and maintenance. By using BIM and tools such as Autodesk’s BIM 360 Ops, all information such as facilities and other significant items in building maintenance and management can be entrusted to the building manager and the people who will use it.
7. Energy Management in Construction
Now we know that energy is one of the most vital components of construction. The construction of sustainable architectural projects has become one of the serious concerns of AEC industry activists. Many software and technologies have been developed for this scenario and are at the disposal of construction teams. However, BIM still has a significant impact on this process. A role that helps us evaluate the environmental analysis from the beginning of the project and during the progress of the work. This means that the reverse of the conventional processes in the selection of the work and the necessary changes may bring serious costs. This resulted in general policy confusion from the beginning.
By using BIM, energy consumption at different hours of the day, direction of light and radiation conditions, energy efficiency, waste management, water, etc. Can be evaluated and analyzed.
Key Components of BIM
Building Information Modeling (BIM) involves several key components that collectively contribute to its holistic and collaborative approach in the architecture, engineering, and construction (AEC) industry. Here are the essential components of BIM:
Intelligent 3D Models
Definition: BIM relies on intelligent 3D models that represent the entire lifecycle of a built asset.
Functionality: These models store information about the physical and functional characteristics of the asset, allowing stakeholders to visualize and analyze various aspects.
Cloud-Based Collaboration
Definition: BIM operates on cloud platforms, enabling real-time collaboration among project team members.
Functionality: Cloud-based systems facilitate seamless sharing and access to project data, ensuring that all stakeholders can collaborate efficiently regardless of their physical location.
Structured Data
Definition: BIM integrates structured, multi-disciplinary data related to a construction project.
Functionality: This structured data includes information about the project’s geometry, spatial relationships, quantities, material specifications, and more. The structured format enhances data consistency and interoperability.
Interoperability
Definition: BIM emphasizes interoperability, allowing different software applications to exchange and use information seamlessly.
Functionality: This component ensures that data can flow smoothly between various tools and disciplines involved in the construction process, promoting collaboration and reducing errors.
Lifecycle Information
Definition: BIM captures and manages information about an asset throughout its entire lifecycle.
Functionality: This includes data from the planning and design phase through construction, maintenance, and eventual decommissioning. Lifecycle information provides a comprehensive view for decision-making at every stage.
Parametric Design
Definition: BIM incorporates parametric design principles, where elements in the model are defined by parameters and relationships.
Functionality: This allows for dynamic and flexible modeling, where changes to one part of the design automatically update related elements, fostering a more efficient and adaptable design process.
Data Analysis and Simulation
Definition: BIM supports data analysis and simulation tools to assess various aspects of a project.
Functionality: This allows stakeholders to analyze factors such as energy efficiency, structural integrity, and cost implications, aiding in informed decision-making and optimizing the design and construction process.
Documentation and Reporting
Definition: BIM generates accurate and detailed documentation automatically.
Functionality: This component streamlines the creation of construction documents, including drawings, schedules, and reports. Automatic documentation reduces errors and ensures consistency across project deliverables.
Understanding these key components is crucial for leveraging the full potential of BIM in improving collaboration, efficiency, and outcomes in the construction industry.
BIM Application in Industries
In this part of the article, we discuss the most widely used BIM industries and examine BIM applications in each of them. However, it is clear that BIM extends far beyond what is described here.
– BIM in Architecture
The trend of using Building information modeling in architecture is growing rapidly. But why? Large-scale global projects have many complexities. Complexities that require technology and technologies to improve effectiveness and efficiency. This is where the beam comes in and becomes one of the first steps in the architecture industry.
As its name suggests, BIM helps us model information and transform it into an image. 3D and interactive images that immerse users in knowledge very similar to reality to achieve a common understanding between the architect and the client.
Architectural design using BIM helps the architect establish a visual connection with the project client from the beginning of the work. Visualization, which is a database, and due to its special features, allows the designer to easily apply any change he wants to the project. He can implement it simultaneously in the entire project.
– BIM in Mechanics, Electricity and Plumbing
MEP means mechanical, electrical, and plumbing. Building information modeling is used in building systems design, construction, and management. BIM improves cross-team collaboration for a project, shares data, and speeds up design and construction. MEP beams increase efficiency, improve coordination, and reduce errors.
But it is not bad looking at statistics. According to a survey conducted by the Construction Industry Institute, using BIM for MEP can bring in cost savings of up to 10% on a construction project. A study published in the Journal of Management in Engineering found that BIM for MEP can reduce design errors by 80%. A case study of the Shanghai Tower construction showed that BIM for MEP helped improve coordination and reduce errors. This resulted in more than $10 million in project cost savings. A case study of the World Trade Center in New York City showed that BIM for MEP helped improve coordination and minimize errors. This resulted in more than $15 million in project cost savings.
– BIM in Engineering
Civil engineering is a professional engineering discipline that deals with the design, construction, and maintenance of infrastructure projects such as roads, bridges, canals, dams, airports, sewage systems, pipelines, and railways. Engineers’ misconception is that Building information modeling is only useful for architectural projects. But this is far from the truth. Civil engineers can use BIM at all stages of an infrastructure project’s life cycle. Some BIM applications in civil engineering are as follows:
Recording existing site conditions, conceptualization, detailed design, analysis and simulation, coordination and cooperation, cost reduction, cooperation improvement, collision detection, sequence and timing improvement, and AR/VR
After reviewing 32 projects with Building information modeling, the Center for Integrated Facilities Engineering (CIFE) at Stanford University found that BIM technology led to such cases. 7% savings in time and 10% in contract value, 80% reduction in financial estimation time.
– BIM in Construction
Builders always depend on precisely designed plans to build large buildings. But as the construction industry rapidly digitizes to keep up with the increasing demands and complexities of modern projects, productivity remains a key concern. Industry growth rates have lagged behind the overall global economy for decades, with project delays and broken budgets as key drivers.
Based on the studies done, construction companies do 30% of their work in rework. But what is the solution to these repetitive tasks and how to prevent them? To combat rework and cost overruns, Building Information Modeling technology has increased over the years, and now thanks to advances in 3D modeling and game-based software that completes 3D programs. To make it a reality, this challenge has been removed.
Although there are many Building information modeling solutions to choose from, they are difficult to use and inaccessible in the field. They require advanced technical training or do not integrate with project management solutions. As BIM moves from being nice to being a necessity, those who fail to appreciate and take advantage of these benefits risk being left behind in a rapidly evolving industry.
In short, Building information modeling in construction helps to enable better planning, improved collaboration, better cost estimation, more efficient construction, reduced risk, and improved safety.
Current Trends and Innovations (2023)
As we step into 2023, the realm of Building Information Modeling (BIM) continues to evolve, introducing cutting-edge trends and innovations that promise to reshape the landscape of the architecture, engineering, and construction (AEC) industry. Here are some of the noteworthy trends and innovations in BIM for 2023:
AI Integration for Enhanced Decision-Making
Description: Artificial Intelligence (AI) is increasingly becoming integral to BIM, offering advanced analytics and decision-making capabilities. AI algorithms analyze vast datasets to provide insights that facilitate more informed and efficient decision-making throughout the project lifecycle.
Generative Design for Optimized Solutions
Description: Generative design, powered by algorithms, is gaining prominence in BIM. This approach explores numerous design possibilities based on defined parameters, allowing for the generation of optimized solutions. It enhances creativity and efficiency in the early design stages.
IoT and Sensor Integration
Description: The Internet of Things (IoT) and sensor technologies are being seamlessly integrated into BIM processes. This integration enables real-time data capture from construction sites and built environments, providing valuable insights into performance, usage, and potential issues.
Extended Reality (XR) for Enhanced Visualization
Description: Extended Reality (XR), including Virtual Reality (VR) and Augmented Reality (AR), is enhancing the visualization aspects of BIM. Stakeholders can immerse themselves in virtual models, improving communication, design validation, and on-site decision-making.
Blockchain for Secure Data Management
Description: Blockchain technology is making inroads into BIM, addressing concerns related to data security and integrity. By providing a decentralized and tamper-resistant ledger, blockchain enhances trust and transparency in collaborative BIM projects.
Cloud-Based Collaboration Tools
Description: Cloud-based collaboration tools are evolving to better support BIM workflows. Enhanced accessibility, real-time collaboration, and seamless data exchange among project stakeholders, regardless of their geographical locations, are key benefits driving the adoption of cloud solutions.
Digital Twins for Lifecycle Management
Description: Digital twins, virtual replicas of physical assets, are gaining traction for comprehensive lifecycle management. BIM data is utilized to create and maintain digital twins, offering insights into asset performance, maintenance needs, and future modifications.
Sustainability Integration
Description: BIM is increasingly being employed to address sustainability concerns in construction projects. The integration of environmental analysis tools allows stakeholders to assess and optimize projects for energy efficiency, waste reduction, and overall sustainability.
Automated Construction Documentation
Description: Automation is streamlining the creation of construction documentation in BIM. From drawings and schedules to reports, automated processes reduce errors, save time, and ensure consistency across project deliverables.
5D BIM for Cost and Schedule Integration
Description: 5D BIM integrates cost and schedule information with the 3D model. This approach enables a more comprehensive understanding of project timelines and budgets, fostering better decision-making and cost control.
Keeping abreast of these trends and innovations is crucial for industry professionals looking to harness the full potential of BIM and stay ahead in a rapidly evolving AEC landscape.
Challenges in BIM Implementation
Here’s the list of challenges of implementing BIM in construction and how to overcome these challenges:
Cost of Implementation
Challenge: The initial investment in BIM technology, training, and infrastructure can be a significant barrier for smaller firms or projects with limited budgets.
Overcoming the Challenge: Government incentives, industry collaborations, and the increasing availability of cost-effective BIM solutions can help mitigate the financial burden. Comprehensive training programs can empower professionals to maximize the benefits of BIM.
Resistance to Change
Challenge: Resistance to adopting new technologies and workflow changes can impede the successful implementation of BIM. Stakeholders may be hesitant to move away from traditional practices.
Overcoming the Challenge: Change management strategies, clear communication of benefits, and gradual implementation can address resistance. Providing hands-on training and showcasing success stories from early adopters can build confidence among teams.
Interoperability Issues
Challenge: Incompatibility between different BIM software platforms and file formats can hinder seamless collaboration among project stakeholders.
Overcoming the Challenge: Industry-wide standardization efforts, openBIM principles, and the use of interoperability protocols help enhance compatibility. Collaborative platforms and cloud-based solutions facilitate smoother data exchange.
Data Security Concerns
Challenge: With the increasing reliance on cloud-based collaboration, concerns about data security and privacy may arise, especially when dealing with sensitive project information.
Overcoming the Challenge: Implementing robust cybersecurity measures, encryption protocols, and adhering to industry best practices can address data security concerns. Selecting reputable cloud service providers with a focus on security is crucial.
Future Outlook of BIM in the Construction Industry
The future of the BIM in the construction sector has been listed as below:
Expanded Integration of AI and Machine Learning
Outlook: BIM will see deeper integration with Artificial Intelligence (AI) and Machine Learning (ML) algorithms. Predictive analytics, risk assessment, and automated decision-making will become more sophisticated, enhancing project efficiency.
Greater Emphasis on Sustainability
Outlook: BIM’s role in sustainable design and construction will intensify. Environmental analysis tools within BIM will be more advanced, enabling stakeholders to make data-driven decisions to minimize environmental impact.
Ubiquitous Use of Digital Twins
Outlook: Digital twins will become ubiquitous in the construction industry. These virtual replicas, powered by BIM data, will play a central role in asset management, predictive maintenance, and performance optimization.
Enhanced Collaboration through Cloud-Based Solutions
Outlook: Cloud-based collaboration tools will continue to evolve, offering enhanced features for real-time collaboration, data accessibility, and project management. This will further facilitate global collaboration among project stakeholders.
Standardization and Regulatory Support
Outlook: Industry-wide standardization of BIM processes and increased regulatory support will simplify workflows and encourage widespread adoption. Governments and regulatory bodies will play a key role in promoting BIM standards.
Augmented Reality (AR) Integration
Outlook: Augmented Reality (AR) will play a more prominent role in BIM, providing on-site stakeholders with immersive experiences for project visualization, quality control, and construction monitoring.
Advanced Robotics in Construction
Outlook: BIM will synergize with advanced robotics in construction projects. Robotic automation for tasks such as bricklaying, 3D printing, and site inspections will increase, enhancing efficiency and safety.
Navigating these challenges and embracing future trends will position the construction industry to unlock the full potential of BIM, fostering innovation, collaboration, and sustainable practices in the built environment.
Suggested article for reading: Construction Robots in 2024: A Comprehensive Guide
Embrace Change: Building a Future with BIMBuilding Information Modeling (BIM) stands as a transformative force in the architecture, engineering, and construction (AEC) industry, redefining how projects are conceived, designed, and managed. Autodesk, a leader in BIM, serves as a crucial ally in advancing work methodologies and improving outcomes in both business and the built environment.
As cities and countries experience rapid growth, the construction industry becomes central to this expansion. However, beneath the surface lie challenges such as sustainability, energy efficiency, and environmental concerns. Addressing these challenges requires innovative tools, and BIM emerges as a key solution. It not only answers the fundamental question of “what is BIM” but also explores its significance in the construction industry, revealing its versatile applications.
The subsequent sections dissect the definition and basics of BIM, elucidating key components crucial for efficient project delivery. The benefits of BIM in construction, such as improving collaboration, cost estimation, and visualization, are explored, providing a comprehensive understanding of its impact.
Addressing the challenges in BIM implementation, the article proposes solutions for cost barriers, resistance to change, interoperability issues, and data security concerns. Future outlooks predict deeper integration with AI, a heightened focus on sustainability, increased use of digital twins, enhanced collaboration through cloud-based solutions, standardization, and regulatory support, AR integration, and the synergy between BIM and advanced robotics in construction.
In a rapidly evolving AEC landscape, staying informed about current trends and innovations is crucial. The article concludes by emphasizing the necessity for industry professionals to navigate challenges, embrace innovations, and unlock BIM’s full potential for fostering collaboration, innovation, and sustainability in construction.
Conclusion
Are you ready to start your business improvement journey? Our team is ready to assist if needed. Working together, we help you expand your understanding of Building information modeling standards and the construction industry anywhere in the world. We help you embrace the possibilities. Contact our experts today. We are always ready to provide industry-leading guidance and options to help you achieve your business goals.
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Resources:
autodesk.com | vercator.com | architosh.com | bimcorner.com | bigrentz.com | selecthub.com | spaceiq.com | scan2cad.com | bimcorner.com | bimandbeam.com | novatr.com | procore.com
For all the pictures: freepik
