Case studies
Our case studies provide examples of BIM in use for health and safety, across a range of projects in New Zealand.
Watercare: Digital engineering to support health and safety on infrastructure projects
Watercare, a water utility company in New Zealand, has implemented a digital engineering program to improve health and safety, reduce carbon footprint, and decrease cost and time on their infrastructure projects. Using BIM and data-driven approaches, Watercare aims to enhance awareness, collaboration, and consistency across their supply chain and project lifecycle.
Auckland Airport: Seeing the unseen
At Auckland Airport, the digital engineering team has utilised BIM and gaming software to improve underground utility mapping, visualisation, and construction site safety planning. By combining existing data with 3D scans, creating interactive models, and simulating various scenarios, the team has been able to reduce risks associated with underground services, enhance project team collaboration, and optimise site safety management.
ACC Ōtepoti: Designer & contractor model interaction for safety planning
On the ACC Ōtepoti project, the use of BIM has enabled effective collaboration between the structural steel subcontractor, John Jones Steel, and the permanent works engineer to address health and safety and buildability concerns. By sharing model files of their bolting tools, John Jones Steel has allowed the engineer to test and validate the design of frame braces to ensure safe and efficient construction.
ACC Ōtepoti: Contractors using BIM for health and safety
On the ACC Ōtepoti project, BIM models help the site team to identify and mitigate potential hazards and pinch points early. By allowing contractors and subcontractors to improve the accuracy of site set-out and communicate work plans and safety constraints effectively with the project team, BIM is helping to increase awareness and reduce rework on site. The ability to use mobile devices for digital access to project information also improves supervision and reduces the need for supervisors to leave the work area to get information. Combined, these benefits are leading to improved hazard management and safety performance.
ACC Ōtepoti: Collaborative use of BIM in reinforcing
On the ACC Ōtepoti project, multiple consultants and contractors have collaborated using Building Information Modelling (BIM) to improve the design, coordination, and construction of reinforcing steel. By using BIM to model the reinforcing in 3D, the project team was able to anticipate connections between different elements, detect clashes, and prefabricate reinforcing cages in a controlled environment. This has led to improved efficiency, quality, and safety on the project.
ACC Ōtepoti: Collaborative use of BIM in safety planning for foundation reinforcing
On the ACC Ōtepoti project, consultants and contractors have collaborated using BIM to improve safety planning, particularly for the complex reinforced concrete foundation beams. By using 3D models to visualise the dense reinforcement, coordinate the penetrations, and assess the prefabrication opportunities, the project team has been able to reduce manual handling risks, improve the quality of the work, and streamline the construction process.
ACC Ōtepoti: Visualisation for project communication in piling
On the ACC Ōtepoti project, the use of reality capture and BIM has improved project communication, clash detection, and quality control during the piling phase. By combining surveyed as-built data with design models, the project team has been able to identify and resolve issues before they impact the construction schedule or safety on site. The team’s approach has focused on reducing the gap between as-planned and as-built, ensuring that work is thoroughly planned before activities start on site, and in particular minimising the need for workers to operate under pressure with heavy elements suspended on the crane.
ACC Ōtepoti: Health and safety in design
On the ACC Ōtepoti project, the use of Building Information Modelling (BIM) and collaborative processes enabled the project team to focus on potential health and safety hazards that could occur during building operation and maintenance, and to use design approaches to mitigate or eliminate them. By leveraging the 3D model and facilitating open communication among stakeholders, including contractors, consultants, and end-users, the team could thoroughly investigate and address potential risks before construction began, to create a safer building for users and operators once it is completed.
ACC Ōtepoti: Reducing plant room risks in installation
On the ACC Ōtepoti project, the use of Building Information Modeling (BIM) and collaborative processes enabled the project team to focus on potential health and safety hazards that could occur during building operation and maintenance, and use design approaches to mitigate or eliminate them. By leveraging the 3D model and facilitating open communication among stakeholders, including contractors, consultants, and end-users, the team could thoroughly investigate and address potential risks before construction began, to create a safer building for users and operators once it is completed.
ACC Ōtepoti: Project manager’s perspective using OpenSpace and BIM
On the ACC Ōtepoti project, reality capture has become a useful tool to support the health and safety objectives of the client and the site team. Combining video and BIM models using OpenSpace has allowed the extended project team to engage in virtual tours of the construction site. Communication, collaboration, quality control, and stakeholder engagement have all improved as a result, with clear benefits for improved health and safety management.
ACC Ōtepoti: A BIM Manager’s view on using BIM for construction planning
On the ACC Ōtepoti project, the construction team has leveraged Building Information Modelling (BIM) to enhance health and safety practices on site. By integrating the BIM model into the construction planning process, the team has been able to visualise and plan for potential hazards, optimise site layout, and improve communication with workers and subcontractors.