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Aerial LiDAR Mapping & Surveying

Enterprise mapping drone carrying a LiDAR sensor above a railway infrastructure project

AERIAL LIDAR MAPPING

Map complex terrain and infrastructure from above

Enterprise airborne LiDAR combines rapid field capture with survey-grade positioning, imagery and disciplined processing—creating current spatial data for engineering, reconstruction and asset management.

Explore the mapping workflow

FROM AIRCRAFT TO DELIVERABLE

A complete data-acquisition system, not a payload in isolation

Useful results depend on the aircraft, LiDAR and camera payload, GNSS strategy, control network, mission plan, processing software and quality checks working as one architecture. TS2 Space helps define that architecture around the site and the decisions the data must support.

Terrain models
Corridor mapping
Powerline surveys
Construction progress
Forestry analysis
Reconstruction planning

Engineers reviewing a registered point-cloud model of an infrastructure site
CAPTURE, CONTROL, PROCESS

Plan backwards from the required output

Flight altitude, speed, overlap, scan pattern, point density and control strategy should be selected from the deliverable—not copied from a generic mission template.

  • Define the area, coordinate system, accuracy target and required outputs
  • Plan flight geometry, ground control and RTK or PPK positioning
  • Acquire LiDAR, RGB imagery, navigation and calibration data
  • Process, register, classify and verify the point cloud
  • Deliver terrain models, orthomosaics, vectors, CAD/BIM inputs or web access

CURRENT PLATFORM EXAMPLE

DJI Matrice 400 with Zenmuse L3

A current enterprise configuration for demanding aerial mapping combines a heavy-lift aircraft with a dedicated long-range LiDAR and dual RGB mapping cameras. Final performance remains dependent on the mission, surface, atmosphere, positioning and processing method.

Enterprise aircraft

Matrice 400 provides a multi-payload platform with integrated obstacle-sensing technologies and a dedicated connector for Zenmuse L3. Aircraft, batteries, communications and payload capacity must be configured for the operating environment.

LiDAR and imagery

Zenmuse L3 combines long-range laser scanning with dual 100 MP RGB mapping cameras. Multiple scan modes and return options support different terrain, vegetation and infrastructure tasks.

Positioning and processing

RTK or PPK workflows, base-station data, control points and documented quality checks turn raw capture into defensible project data. DJI Terra can export standard point-cloud formats for downstream use.

Published manufacturer accuracy figures are based on defined laboratory and test conditions. TS2 Space does not present them as a guarantee for every site. The project specification should define the verification method, checkpoints and acceptance criteria.

PROJECT APPLICATIONS

Spatial evidence for planning, construction and operations

Transport corridors

Map roads, railways, bridges, embankments and surrounding terrain for preliminary design, construction coordination, clearance analysis and condition records.

Energy and utilities

Capture powerline corridors, substations, renewable-energy sites and access routes while designing the survey around vegetation, conductors and safety constraints.

Terrain and natural assets

Create elevation products for drainage, earthworks, forestry, stockpile assessment and environmental monitoring, including areas where imagery alone cannot describe the surface.

Recovery and reconstruction

Establish a current baseline for damaged or rapidly changing sites, support design teams remotely and document progress against an agreed spatial reference.

DELIVERY MODEL

Four decisions before selecting a configuration

Outcome

Define the engineering, survey or asset-management decision and the required data products.

Environment

Review terrain, obstacles, access, weather, airspace, communications and ground-risk conditions.

Quality

Set coordinate control, point density, imagery, accuracy expectations and independent checks.

Operations

Plan trained personnel, flight permissions, data handling, processing capacity and ongoing support.

Aircraft sale does not by itself authorise a flight. The operator remains responsible for registration, competency, airspace coordination, site permissions and any operational authorisation required by the mission. BVLOS and other higher-risk operations may fall within the EASA “specific” category. Destination and end use are reviewed before supply.

DISCUSS AN AERIAL MAPPING PROJECT

Tell us what must be mapped—and what the data must prove

Share the country, site type, approximate area or corridor length, required deliverables, coordinate system and expected timeline. TS2 Space will help define an appropriate capture and processing architecture.

Equipment availability, configuration, permitted use and delivery depend on destination, end use, local regulation and the agreed project scope. Technical performance and commercial terms are confirmed individually.