Applications of 3D Models and Scanning
Mining
Drone-based LiDAR and high-resolution photogrammetry provide precise 3D models of mining areas, including pits, stockpiles, haulage networks, processing facilities and waste dumps. These models deliver survey-grade accuracy for volumetrics, compliance reporting and mine planning. They also support change detection, slope stability assessment and operational decision-making while reducing the need for personnel to enter hazardous environments.
Oil and Gas
LiDAR scanning and photogrammetry support detailed 3D modelling of offshore platforms, subsea structures, pipelines and topsides plant. Accurate models assist in inspection planning, corrosion evaluation, asset integrity, modification design and regulatory documentation. Drone capture removes or reduces the requirement for shutdowns, rope access or scaffolding, enabling faster, safer and more efficient inspection pathways across critical oil and gas assets.
Ports & Marine
Drone LiDAR and photogrammetry provide detailed 3D modelling of wharf structures, berths, dolphins, navigation aids, moorings, fenders and adjacent seabed conditions. These models support port planning, structural inspections, capacity upgrades and compliance documentation. High-resolution data also assists with corrosion assessment, asset integrity checks, and safe work planning in areas that are traditionally difficult or hazardous to access.
Renewable Energy
3D modelling is used to document turbine foundations, solar installations, transition pieces and associated infrastructure across wind and solar assets. Drone-based LiDAR enables accurate terrain mapping, cable route assessment and elevation modelling for new renewable developments. For operational assets, 3D data supports structural inspections, condition assessments, maintenance planning and performance monitoring with minimal disruption to production activities.
Road & Rail
LiDAR scanning and photogrammetry deliver survey-grade modelling of road corridors, bridges, overpasses, rail infrastructure and surrounding terrain. These datasets support design validation, alignment checks, earthworks planning and progress tracking during construction. Accurate terrain and clearance models help engineers review drainage, ballast condition, vegetation encroachment and impact zones without requiring extended track access or shutdowns.
Smart Cities
3D models support planning and asset management across transport corridors, utilities and public infrastructure. They help visualise existing conditions, assess future development impacts and manage complex infrastructure networks.
Construction & Civil Works
Drone-derived 3D modelling provides accurate representation of construction progress, earthworks, foundations, retaining structures and service corridors. LiDAR and photogrammetry deliver verifiable measurements for cut/fill analysis, progress reporting, as-built documentation and quality assurance. Models enable design reviews, clash detection and planning decisions to be made before works advance, reducing rework, improving site safety and supporting clear communication with stakeholders and contractors.
Benefits of 3D Scanning
Efficiency
Drone-derived 3D models provide an accurate record of current site conditions, giving engineers and supervisors reliable information before committing people or equipment. This cuts rework, shortens planning cycles and supports practical decision-making across mining operations, marine assets, offshore structures and industrial sites.
Asset Maintenance
LiDAR and photogrammetry models document real-world deterioration—corrosion, deformation, subsidence, wear points—without shutting down operations. High-accuracy models support planned maintenance strategies, integrity inspections, and regulatory documentation for vessels, port infrastructure, pipelines, conveyors and plant.
Innovation
3D modelling allows new layouts, asset modifications and operational changes to be evaluated off-site. Engineers can review clearances, access paths, mechanical interfaces and environmental constraints before committing to works. This avoids costly interruptions and improves the quality of design decisions, particularly in confined marine and industrial environments.
Risk Reduction
Detailed modelling improves hazard identification by showing exactly what exists on site—tight spaces, obstructions, uneven ground, overhead structures, damaged components, or restricted access. When planning work on mining equipment, wharf structures, vessel hulls or offshore platforms, a spatially correct model helps remove uncertainty and reduce risk to personnel and assets.