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LiDAR surveying of terrain, buildings and infrastructure

Our LiDAR scanner captures dense 3D point clouds of terrain, buildings and infrastructure. Georeferenced data supports surveying, design, BIM modelling, volume calculations and existing-condition analysis.

Drone LiDAR surveying
Construction progress and condition documentation

3D point clouds for planning and construction

Airborne LiDAR surveying

The scanner emits laser pulses and measures distances to surfaces, producing dense point clouds of terrain, buildings and infrastructure. Pulses passing through gaps in vegetation may provide ground data. LiDAR does not penetrate opaque materials; results depend on the asset and conditions.

When is LiDAR useful?

LiDAR is useful where detailed spatial data is required:

  • Terrain and infrastructure surveys
  • DTM and DSM generation
  • Building and industrial documentation
  • Planning and BIM inputs
  • Linear infrastructure corridors
  • Forested and vegetated areas
  • Stockpile volume calculations

The LiDAR survey process

  1. Agree the area, accuracy, coordinate system, formats and required permissions.
  2. Capture data using a drone-mounted LiDAR scanner with RTK support.
  3. Process measurements into a 3D point cloud.
  4. Prepare agreed models and deliverables.

Your deliverables

According to the agreed scope:

  • LAS, LAZ or E57 point clouds
  • DTM and DSM models
  • Elevation data
  • CAD and GIS data
  • Orthophotos from additional imagery

Formats are matched to your software. BIM model production is agreed separately.

Your deliverables

Design teams, engineers, contractors and infrastructure operators can use the data for:

  • Terrain profile analysis
  • Building modelling
  • Planning base data
  • Volume calculations
  • Infrastructure documentation
  • Terrain change comparisons

Benefits of LiDAR surveying

Data for efficient project workflows
Drone LiDAR provides dense 3D data and complements conventional survey methods. We select the approach to suit project objectives and conditions.

Related surveying services

Related services

  • Photogrammetry example
    Drone surveying

    Drone surveying

    Georeferenced drone survey data for land, buildings and infrastructure.

  • Façade inspection
    Building documentation

    Building documentation

    Structured imagery, measurements and 3D data documenting building condition.

  • 3D construction-site point cloud from a LiDAR survey
    Point clouds

    Point clouds

    Detailed 3D point clouds of buildings, terrain and technical assets.
  • 3D existing-condition model of a building in Vienna
    3D models

    3D models

    Metric 3D building models from aerial imagery and laser data.

  • Drone thermal image
    Thermography

    Thermography

    Radiometric thermal data to support further specialist assessment.

  • Condition documentation before scaffolding installation
    Condition documentation

    Condition documentation

    Records of construction conditions, details and changes throughout a project.

LiDAR surveying FAQs

Typical outputs:

  • LAS/LAZ or E57 point clouds
  • Digital terrain models — DTM
  • Digital surface models — DSM
  • Elevation profiles
  • Data for CAD, GIS and BIM
  • Orthophotos from complementary imagery

Answers about LiDAR surveying

  • What is LiDAR?

    LiDAR stands for “Light Detection and Ranging”. It measures distances to surfaces using laser pulses to create a spatial point dataset.

  • How accurate is a LiDAR survey?

    Accuracy depends on the system, flight height, terrain, georeferencing and survey control. We agree the required accuracy and verification before capture.

  • How does LiDAR differ from photogrammetry?

    Photogrammetry calculates 3D geometry from overlapping photographs. LiDAR measures distances with laser pulses and is less dependent on illumination and surface texture. The methods can complement each other.

  • Which areas can be surveyed?

    Terrain, buildings, infrastructure, industrial assets, forests, vegetated areas and construction sites. Method suitability is assessed individually.

  • How quickly are results available?

    On-site capture is generally completed efficiently. Depending on project scope, processing and delivery usually take place within 24 hours.