Competitively priced BIM Modelling / Guaranteed quality / Fast turnaround

Competitively priced BIM Modelling / Guaranteed quality / Fast turnaround

Introduction

Building Information Modelling (BIM) technology has changed the ways of designing, constructing, and managing buildings in the Architecture, Engineering, and Construction (AEC) industry. The traditional approach to BIM involved the creation of a 3D model that showcases both the physical and functional aspects of a building, enabling stakeholders to make better decisions and avoid mistakes through improved collaboration. However, with the increasing demand for quick and efficient construction practices, cloud-based BIM is the only solution to fulfill these essentials.

Cloud-based BIM refers to the combination of BIM with cloud technology. Autodesk BIM 360 is a well-known platform for cloud-based BIM that allows stakeholders to manage projects efficiently through real-time collaboration and data storage with robust security measures, making the workflow smoother from design to on-site execution and beyond. This blog delves into understanding the concept of cloud-based BIM, its benefits, and how BIM 360 helps in enhancing the management of construction projects in real-time.

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Understanding Cloud-Based BIM

The main difference between traditional BIM and Cloud-Based BIM is that, unlike traditional BIM, Cloud-Based BIM stores and manages data online without relying on local servers or computers for storage. This allows authorized stakeholders to collaborate easily by having an internet connection from any location to access up-to-date data related to the project.

Cloud-Based BIM provides access to everyone with the latest information about the project, keeping stakeholders such as architects, engineers, and clients on the same page, reducing errors and miscommunication, fostering collaboration, and instantly updating any changes made to the project. Authorized users with access can view and make changes to the data in real-time.

Primary Functionalities of Cloud-Based BIM

  • Improved Collaboration

Cloud-Based BIM enables teams to collaborate remotely in a seamless manner. They are authorized to make changes to the project that are immediately updated or reflected in the model, ensuring that everyone involved in the project is provided with the latest, up-to-date information rather than outdated data. This prevents the chance of miscommunication and delays, optimizing overall project outcomes through efficient collaboration, which is a key characteristic that traditional BIM lacks.

  • Centralized Data Storage

Platforms like BIM 360 serve as a centralized digital data storage location in Cloud-Based BIM, allowing the storage of project-related data such as models, documents, and schedules that are essential for the execution. Keeping the data in one place prevents the chances of fragmented data and avoids conflicts like working with outdated data by enabling stakeholders to access and update information instantly. This reduces rework, delays, and increases project efficiency.

  • Remote Access

Cloud-Based BIM has a key characteristic, which is remote access, allowing project stakeholders to access crucial information regardless of their location, simply by having an internet connection, whether operating on-site or from any office. It improves collaboration by enabling teams to operate remotely from different time zones, keeping a close eye on project updates in real time.

  • Version Tracking

Unlike conventional BIM workflows, Cloud-Based BIM makes version tracking easy by maintaining a record of updated model or document versions and allowing easy retrieval of previous versions if needed for inspecting decisions or changes made. This ensures the validity of the information stakeholders are using, reducing the risks of relying on invalid or conflicting information, which can lead to project delays and rework.

  • Enhanced Security

Protecting sensitive data from breaches and changes is crucial and a major concern in the construction industry. To ensure security, two-factor authentication and robust encryption techniques are implemented by Cloud-based BIM, so unauthorized users cannot access any project-related information, reducing the risks of exposure to confidential data and providing access only to authorized personnel for data management and sharing.

Key Outcomes of Cloud-Based BIM

  • Better Communication and Collaboration

By leveraging cloud-based BIM, stakeholders can contribute to the project seamlessly, regardless of geographical location and time zones, improving communication and coordination through instant access to the model and documents. Changes made within it are visible globally to authorized personnel, reducing delays and fostering collaboration while keeping everyone on the same page.

  • Reduced Delays and Increased Efficiency

The availability and accessibility of data in a centralized location through cloud-based BIM enable stakeholders to coordinate more efficiently, rather than relying on redundant communication and the transfer of project-related files or documents, avoiding issues with version control and waiting for the data. This proactive approach refines the entire workflow, reduces delays, and keeps track of costs.

  • Reduced Rework and Errors

Cloud-based BIM synchronizes changes or updates within the model so that everyone has the latest information, minimizing the risk of errors, such as potential design clashes or working with outdated or incorrect material information, which can lead to delays and costly rework. With the help of version control and updated data, teams can avoid confusion and ensure that they are using accurate, up-to-date information.

  • Increased Project Transparency

Cloud-based BIM provides access to the same information for all team members or stakeholders working on a project, increasing transparency, awareness, and elevating insights into the project. This keeps stakeholders notified about the project’s status, whether it is completed or in progress, while monitoring every activity to meet deadlines by following the schedule.

  • Cost Optimization

With the availability of cloud services, the need to invest in expensive hardware and enormous IT servers is reduced. Methods such as pay-as-you-go and subscriptions ensure that you pay for what you use. Cloud-based BIM optimizes the budget by identifying errors and delays and reducing rework.

  • Better Decision-Making

Well-informed decisions can be made by teams by accessing real-time data and utilizing improved collaboration, leading to better planning, risk avoidance, and boosting the overall outcomes of the project. Visualization and interaction with the 3D models are key elements that empower stakeholders to make sustainable design choices that effectively contribute to the success of a project.

The Role of Autodesk’s BIM 360 in Enhancing Cloud-Based BIM

Autodesk’s BIM 360 is a cloud-based construction management platform leveraged by companies to achieve optimized workflows through improved collaboration, document management, and monitoring real-time progress throughout the entire project while ensuring quality. BIM 360 includes the following features:

  • BIM 360 Docs

It is a tool offered by BIM 360 for managing documents efficiently, centralizing all documents in an organized manner while keeping version control, so that stakeholders can work with the latest information instead of outdated data.

  • BIM 360 Design

This tool is used by architects and engineers to make design changes in the BIM model that are instantly reflected in the model and visible to stakeholders. It fosters seamless collaboration and communication while working on a project.

  • BIM 360 Build

BIM 360 Build is a tool that helps contractors maintain field data and monitor project progress in real-time while ensuring safety inspections and compliance with quality standards.

  • BIM 360 Coordinate

BIM 360 Coordinate is a tool widely leveraged by clash detection teams to detect clashes within a model ahead of time by coordinating construction and design information. It helps identify potential conflicts early and reduces costly rework and project delays by addressing them.

  • BIM 360 Glue

BIM 360 Glue helps teams streamline workflows by connecting the entire team, and it supports several file formats, ensuring stakeholders have access to the up-to-date version of every model.

Conclusion

Cloud-based BIM platforms, such as BIM 360, play a vital role in levelling up the design and management of complex construction projects by streamlining workflows, improving collaboration and coordination, and reducing project delays and costly rework. They foster innovation and improve overall outcomes in the AEC industry. BIM 360 offers a wide range of tools that provide accessibility, scalability, and security of information.

Introduction

Challenges and complexities within a project are the elements that make the construction industry a technical and challenging field. However, these barriers have become easier to tackle by implementing BIM technology throughout the entire process. This revolutionary technique involves creating a 3D digital model that provides far more information than just the geometric aspects. It offers detailed information about the project execution and management across every stage, including the estimated cost, time schedules, and necessary materials for its construction, as well as the maintenance facilities required to keep the asset operational throughout its long lifecycle, even after completion.

For efficient implementation of this technique, it is essential to understand the comprehensive concept of BIM dimensions, which are a key aspect of BIM. In this blog, we will thoroughly review how BIM dimensions elevate a construction project, ensuring cost-effectiveness, efficiency, sustainability, and the overall outcome of the project.

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Understanding BIM Dimensions and their Outcomes

BIM dimensions refer to layers of information organized to represent specific aspects involved in a construction procedure, embedded within a BIM model to enhance team collaboration, visualization, and management. Key BIM dimensions are as follows:

3D BIM (Geometry)

BIM 3D typically includes the 3D model of the building, which enables stakeholders to visualize the building’s geometric aspects and functionality in real time instead of relying on traditional 2D drawings. It helps analyse clashes before on-site execution, ensuring efficiency, improving collaboration, and preventing miscommunication throughout the project.

3D BIM Outcomes

    • Better Visualization

It allows stakeholders to view the final output—the building—ahead of time for better decision-making and understanding of the project.

    • Clash Detection

BIM 3D makes the identification of clashes easier by providing a 3D model, which enables designers to make decisions to remove potential issues, preventing project delays and costly reworks in advance instead of addressing them on-site.

    • Efficient Design

With the help of BIM 3D, designers can ensure the completion of an efficient design phase in terms of both functionality and aesthetics before the execution process begins.

4D BIM (Time)

BIM 4D involves linking the 3D model with the schedule to enhance visualization, enabling stakeholders to observe the building’s construction step by step while understanding each activity in the construction process.

4D BIM Outcomes

    • Visualization of project stages

4D BIM, after integrating the 3D model with the project schedule, helps teams keep a close eye on each activity, coordinating the efficient use of labour and resources, avoiding workflow conflicts and project delays, and increasing the overall efficiency of the execution phase.

    • Delays Identification

Using 4D BIM to simulate each activity involved in the construction phase helps teams spot project delays, such as task overlapping and resource or labour allocation issues, ahead of their execution in real-time.

    • Efficient Planning

Streamlining the timelines of all activities enables teams to allocate resources, such as machinery, labour, or materials, wisely, minimizing asset wastage and maximizing overall project efficiency.

5D BIM (Cost)

5D BIM enables stakeholders to monitor the project budget and cost at every stage and fosters efficient outcomes throughout the project by managing expenses and generating accurate estimated cost schedules.

5D BIM Outcomes

    • Precise Budget Prediction

By utilizing 5D BIM, enterprises or companies can generate accurate bills of quantities and estimate costs based on the required materials, resources, and labour. This method reduces material waste, promotes efficient resource allocation, and increases the overall efficiency of the project.

    • Expense Monitoring

BIM 5D is helpful in tracking expense changes that occur when material or design adjustments are made, avoiding surprises and keeping stakeholders notified about the changes by updating the 3D model immediately.

6D BIM (Sustainability)

6D BIM promotes sustainability by designing and constructing a building in compliance with sustainable building standards and using sustainable materials that optimize energy consumption and reduce environmental impact.

6D BIM Outcomes

    • Energy consumption analysis

6D BIM provides stakeholders with a digital environment to run simulations and generate evaluated data for energy consumption, which helps design optimized and smarter buildings with low energy usage that aids in reducing costs and environmental consequences.

    • Achieving green certifications with sustainable materials

6D BIM helps teams monitor energy efficiency and the use of sustainable materials and their environmental impact, ensuring the building remains compliant with standards essential for earning certifications such as LEED (Leadership in Energy and Environmental Design).

7D BIM (Facility Management)

7D BIM ensures the maintenance and management of systems like HVAC, plumbing, and electrical systems within a building to track building performance, which is essential for ensuring the building’s safety through daily routine inspections by facility managers. It helps increase the lifecycle and sustainability of an asset even after the building is constructed.

7D BIM Outcomes

    • Facility Management

7D BIM makes it easier to monitor and maintain complex systems within a building, keeping the building equipment serviced and up to date, which increases operational performance and optimizes energy consumption.  

    • Improving efficiency

Having all information related to maintenance and operation in one place, it’s easier to manage the building efficiently, reducing unnecessary pauses and ensuring smooth performance.

Conclusion

BIM dimensions play a pivotal role in leveling up the construction industry. Every dimension has its specific area of scope, like 3D, which serves to provide a detailed model to ensure the project meets the stakeholders’ expectations. Then, moving to 4D, which is essential because of the time management factor in the construction industry, by adding a timeline to the model, keeping the stakeholders monitoring the project deadlines, preventing delays, and improving workflow. 5D, afterward, adds the cost factor to the model, enabling the stakeholders to stay within a feasible budget and allocate resources wisely, which is crucial for achieving high-quality outcomes. At the same time, 6D plays its role in keeping the buildings compliant with standards to achieve sustainability and to optimize energy usage. Finally, after the construction ends, 7D helps facility managers maintain the operational performance of the building throughout its lifecycle by keeping the systems up to date for efficiency and reducing downtimes. Incorporating these dimensions and having a detailed digital record of all aspects empowers the teams for better collaboration and visualization, elevating the construction industry with the help of modern practices.

Introduction

In this revolutionary era, where the construction sector is evolving at a fast pace, optimizing costs and efficiently managing projects have become non-negotiable. BIM (Building Information Modelling) clash resolution, in this regard, stands out as an innovative approach to fulfilling these essentials. It helps in the identification and resolution of clashes during the design phase, before the construction even begins, ensuring a smooth workflow by avoiding costly reworks and time delays, resulting in the efficient execution of the project on-site. The central focus of this blog is to understand the importance of BIM clash resolution in construction projects for managing time and cost constraints by thoroughly explaining its concept.

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Definition: BIM Clash Resolution

The process of identifying clashes is known as clash detection, while resolving or addressing those clashes is referred to as resolution. Therefore, the identification and resolution of clashes that emerge in a federated BIM model, which includes all disciplines such as architectural, structural, and MEP (Mechanical, Electrical, and Plumbing), is known as BIM Clash Resolution.

Types of Clashes

  1. Hard Clashes

When two or more elements within a building design conflict, the clash is known as a hard clash. For instance, an electrical conduit running through a column is considered a hard clash.

  1. Soft Clashes

Unlike a hard clash, a soft clash is related to spatial issues rather than a physical conflict, such as insufficient space for important tasks. For instance, a lack of adequate space around equipment is considered a soft clash.

  1. Workflow Clashes

A workflow clash takes place due to the overlapping of different tasks at the same time, causing conflicts and disruptions in the workflow and sequence of activities. For instance, if a crane is needed for two different construction tasks on-site at the same time, it leads to workflow clashes.

Importance of BIM Clash Resolution

Identifying these clashes is crucial for enabling stakeholders to resolve these issues ahead of time, ensuring a smooth workflow without interruptions, reducing costs, avoiding project delays, and optimizing the overall outcomes of the project. For this, BIM clash resolution is an essential approach for addressing issues digitally before the construction even starts, saving both time and money.

Role of BIM Clash Resolution in Saving Time

  • Minimizing Rework

During construction, field professionals often encounter many potential issues, and rework is one of them. However, BIM now ensures the minimization of rework by providing a digital environment that creates a replica of an asset, helping to spot conflicts ahead of time in the design phase, saving valuable time and making the whole process smoother and more efficient.

  • Improved Collaboration

BIM improves coordination among stakeholders by keeping them on the same page and providing access to up-to-date information for everyone. This fosters collaboration and reduces the chances of miscommunication and confusion, resulting in less time wasted on resolving issues.

  • Optimized Scheduling

Apart from identifying clashes and resolving them, BIM also aids in optimized scheduling. BIM helps stakeholders plan all activities in a sequence more efficiently, preventing workflow clashes that might occur during the construction phase and lead to project delays.

Role of BIM Clash Resolution in Saving Cost

  • Efficient Resource Utilization

Accurate cost estimations are derived from an accurate 3D model. BIM detects every clash and resolves it, ensuring the accuracy of the model. This model is then used by quantity estimators to generate a precise budget for the entire project, which is crucial for efficiently allocating resources by knowing where and when each material needs to be used on-site. It saves costs and reduces material waste.

  • Minimal Labour Costs

Addressing the clashes early in the design phase avoids costly reworks and the need for unplanned labour before construction begins. This plays a vital role in cost reduction by preventing issues that require additional labour hours, leading to increased costs.

  • Enhanced Facility Performance

By using BIM clash resolution technology, we can design the building with better planning by allocating systems like HVAC and Plumbing for easier installation, avoiding wasting space, and fixing issues related to the spatial information of systems so that they fit properly without overlapping. This is a crucial step for the future maintenance of systems by placing them in the right spots, making the maintenance process more cost-effective and smoother, leading to reduced costs.

Conclusion

Building Information Modelling (BIM) Clash Resolution plays a vital role in transforming the construction industry by identifying potential issues earlier, reducing downtime, project delays, saving costs, and optimizing the overall project. In the past, when construction projects were carried out in conventional ways, these approaches resulted in the emergence of potential conflicts during construction, leading to costly reworks and delays that affected the overall quality and productivity of the building. These issues occurred due to the lack of this technology at that time, and they were not detected earlier, which prevented changes that could have avoided later on-site problems. However, it has now become easier and more cost-effective to resolve those issues with the help of BIM clash resolution rather than addressing them during construction. It has become an essential tool instead of a choice for professionals to achieve better outcomes and make the workflow smoother and faster in this fast-paced, evolving industry.

Building Information Modeling (BIM) has revolutionized the construction industry and now an indispensable part of modern buildings, enabling teams to collaborate more effectively and streamline the project delivery. Despite the benefits, BIM tasks involve numerous repetitive and time-consuming tasks that consume a lot of your productive time and divert attention to meet the deadline rather than focusing on quality and more sustainable alternatives. AI has potential to automate the routine BIM tasks, fostering efficiency and precision across the industry.

Role of AI in BIM Automation

Artificial intelligence offers unparallel opportunity to simplify and accelerate BIM tasks by leveraging machine learning, generative AI, natural language processing (NLP) and computer vision. It gives an opportunity to analyze vast amounts of data, identify patterns, and make data driven decisions that automate the task which previously took hours.

  1. Data Validation and Quality Assurance
    AI – powered tools are making it easier to validate models under set compliance policies and ensure data accuracy. AI platforms like DeepBlocks assess and analyze designs in real time, flagging issues like clashes, noncompliance to regulatory and information gaps.  It can combine financial data with 3D model to get the development analysis which can be customized on parameter of parking, setbacks, expenses and any other assumptions. The 3D model integrated with financial data gives return on cost (ROC) projection in real time using AI algorithms. It helps to calculate the minimum desired return on construction investment which can be exported in the required format like PDFs or CSV.

  2. Clash Detection & Resolution
    Currently, coordinating a BIM model takes a lot of time in manually checking the models and assigning each clash to relevant team or person, where it is resolved and updated in common data environment. AI powered plugins and tools can be developed to automate clash resolution in BIM. Federated BIM models incorporate a couple of separate models from various disciplines like architecture, structure, MEP, external services etc. BAMROC is another emerging AI based tool which fix the clashed and provide the Clash resolution Diagnosis Report (CRDR), a compliance report at unparallel speed. It transforms BIM design by automating MEP clash resolution by moving, bending and adjusting MEP fixtures. Such AI tools utilize machine learning, rule-based systems, optimization algorithms and natural language processing (NLP) techniques to automate required tasks. Such tools aim to streamline MEP coordination process, reduce manual intervention and enhance overall project timeline and efficiency.

  3. Generative Design
    AI can be a great assisting tool to produce generative design by creating multiple design iteration depending on predefined constraints. The constraints can be the site conditions, sustainability goals and cost on the project. Such AI tools allow professionals to explore optimal solutions, which would have taken ages to generate manually.
    Spacemaker by Audodesk is an AI powered solution that provides assistance to architects and urban planners to design site proposals. It creates 3D mass models of the site and its surroundings using automatic data sets. It tests the site proposals and gives accurate analyses depending on more than 100 constraints like noise, sun, water management and more. It helps you to make better decisions, accelerate site planning and improve collaboration as it is a cloud-based AI solution.

  4. Documentation and Reporting
    Previously, there had been a separate designation of document controller for each discipline of the project who was responsible for saving every document and recording updates and revisions. This work has now been automated by using a common data environment but still involves manual work of drafting reports and other project documents. Documentation can be automated by utilizing artificial intelligence, tools like testfit can provide generative design and the relevant documents for proposal. AI is far more efficient in spotting errors and anomalies.

  5. Automating sheet and view creation
    AI and machine learning can be leveraged using rule-based programming and APIs to get more intelligent and adaptable to sheet and view creation. Tagging and dimensioning in 2D view consumes a lot of time for BIM professionals, using AI plug ins can speed up the view creation and designers can save time for more productive tasks. Rule based view setting can be applied to get the required views on the sheets. AI can learn from the previous data so it can make context aware decisions based on previous practices reducing the repeated actions. Similarly, algorithms can be developed to spot and fix errors of overlapping text or annotation categories.

  6. Clash Tolerance/Soft Clashes
    Depending on the project and equipment fitted in specific space, required clearances must be ensured to keep the equipment safe and provide enough space for maintenance. It is achievable using clash detection software like Navisworks by setting the tolerance parameter, but it involves a lot of manual work and requires you to visualize each collision separately. AI – powered tools can automate this manual process in which they can highlight the fixtures and equipment with not enough tolerance or move it as per the set instructions. Tolerance thresholds are preset for each type of equipment and can be changed as per the circumstances.

  7. AI Based Renders and AR/VR
    Showing visualization of BIM model is important for business growth and stakeholder satisfaction. AI based renderings are far more optimized with the hardware and faster as compared to manual rendering in Lumion and Twinmotion, it demands high spec hardware and time. AI has the potential to optimize BIM files into a format supported by Augmented reality headsets. This can be later used for marketing purposes and gives a coherent narrative to the project to give it more value. Similarly, walk through can also be developed to show a broader view of an area or complete project, it can either be used for design presentation, validating emergency routes and visualization to spot errors. Virtual reality integrated with artificial intelligence can be much faster than manual workflow and can add adjacent building blocks to get a clear view of project well before the start of onsite construction.

Automating BIM tasks is not just about saving time, it’s more about empowering the professional to focus on more innovative and productive tasks. Integrating AI with BIM can make BIM workflow smarter, faster and sustainable.

 

Building Information Modelling (BIM) has revolutionised the way construction projects are designed, planned, and executed. It is fair to assert that that BIM coordination is an essential feature, as it ensures a smooth workflow, avoids mistakes, and saves resources and time among teams working on a project, such as architects, engineers, and builders. The central idea of this blog is to understand the essence of BIM coordination, its benefits and the tools required, while adopting it for seamless construction workflows.

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Understanding the concept of BIM Coordination

The integration and management of multiple models into a single federated model, created by different disciplines such as architects, structural engineers, MEP (Mechanical, Electrical, and Plumbing) engineers, is known as BIM coordination. The sole motive is to resolve clashes and conflicts ahead of construction execution to enhance smooth workflow and collaboration among the stakeholders.

BIM coordination in the UK functions under the guidance of BS EN ISO 19650, an internationally recognized standard that provides guidelines for effective information management throughout the asset lifecycle.

Steps in BIM Coordination

  • 3D Model Creation

Different discipline teams create detailed 3D models of their respective disciplines according to a predefined BIM Execution Plan (BEP), ensuring a smooth workflow and compliance with standards.

  • Federation

The next step after 3D model creation is the federation (the process of unifying into a single entity) of each discipline’s model. It provides a better overview for improved decision-making.

  • Clash Detection

Federation enables us to spot potential clashes and conflicts between different elements. Performing automated clash detection using tools like Navisworks which speeds up the coordination process and ensures accuracy.

  • Clash Resolution

After spotting potential clashes, addressing those clashes is an essential step in the BIM coordination process, which prevents project delays and costly rework.

  • Continuous Updates

The next step is updating the federated model according to the most up-to-date information after resolving the clashes. It also ensures that the model is aligned with different stages of on-site construction, reducing the chance of errors and miscommunication.

Widely used tools for BIM Coordination

For improved collaboration, accurate clash detection, and precise data management, BIM coordination depends on advanced software tools. Some of them are listed below:

  • Autodesk BIM 360

BIM 360 provides a Common Data Environment (CDE) platform to interdisciplinary teams for sharing and managing project-related data, ensuring that everyone has access to up-to-date information instead of relying on outdated data. It fosters communication and improves collaboration.

  • Autodesk Navisworks

After the integration of different models into a federated model, Navisworks is a tool widely used for identifying conflicts visually and resolving them in an efficient way, ensuring accurate clash detection to prevent costly delays on-site.

  • Autodesk Revit

Revit enables interdisciplinary teams to create a detailed 3D model of their respective disciplines, making it easier to manage parametric data efficiently. It allows seamless integration of different discipline models into a single federated model.

Key outcomes of BIM Coordination

  • Clash Detection and Resolution

In Building Information Modelling (BIM) coordination, the term clash detection refers to identifying problems, and resolution refers to addressing them. It is an important aspect of BIM coordination, as it allows for the detection and resolution of conflicts that may arise during the construction process. Clashes are usually categorized as:

    1. Hard Clashes
      Hard clashes refer to the intersection of two elements within a building. For example, a pipe intersecting a beam is considered a hard clash, as they physically overlap. It is crucial to address these types of clashes before construction begins on-site because they will lead to significant time delays.

    2. Soft Clashes
      Soft clashes are usually spatial issues rather than physical collision-related issues. For example, a lack of space around machinery or equipment can make maintenance or daily routine use difficult. Addressing these clashes is important to ensure sufficient space and proper functioning of systems.

    3. Workflow Clashes
      The conflicts that arise during the execution phase related to scheduling and sequencing, where different activities overlap and create a clash, are known as workflow clashes. For example, the installation of electrical conduits in the ceiling area by the electrical wiring team and the plumbing team, which needs access to the same space at the same time for duct installation, creates a workflow clash. Ignoring these clashes can lead to project delays and increased labour costs.
      By addressing these clashes early with the help of clash detection software like Navisworks, you can optimize the overall project, saving time and money.
  • Improved Collaboration

BIM coordination improves collaboration by providing access to up-to-date information for all stakeholders working on a project within a Common Data Environment (CDE). Having access to the latest information about the project reduces errors and conflicts, and improves communication and collaboration, which are crucial for an efficient project delivery.

  • Cost and Time Optimization

With the help of BIM coordination, we can resolve potential conflicts during the design phase, which reduces errors and costly delays, saves both time and money, and ensures the smooth execution of the project without any interruptions.

  • Compliance with BIM Level 2

In the UK, compliance with BIM Level 2 is mandatory for all projects. This means that the federation of different disciplines through BIM coordination must align with certain rules to ensure that the project meets industry standards. In essence, BIM Level 2 ensures a smooth workflow, reduces delays, reduces costs, and improves communication between interdisciplinary teams in accordance with legal guidelines.

  • Enhanced Sustainability

BIM coordination plays a vital role in designing and analysing energy consumption to foster early sustainable practices. By doing so, the waste material ratio is significantly reduced, which is crucial for achieving the UK’s Net Zero 2050 goals. It ensures the minimisation of carbon emissions and the wise allocation of materials to save energy and reduce environmental impact, promoting a more sustainable future.

Conclusion

Ensuring a smooth construction workflow is vital, as it enables teams to identify and address problems early in the design phase. This proactive approach enhances project quality and ensures that the projects are completed on time without any interruptions and within budget.

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