Bare-Earth Terrain & Elevation
Collect multiple returns through suitable vegetation conditions, classify ground points and build terrain surfaces for engineering, drainage, forestry, environmental and planning workflows.
DTM · DEM · ContoursCapture terrain, structures, corridors and vegetation as measurable three-dimensional data. Unmanned Canada configures the aircraft, LiDAR payload, positioning, processing, training and field workflow around the deliverable your team actually needs.
Flight altitude, point density, returns, scan pattern, RGB capture, control and processing should be selected around the final measurement—not around a single headline specification.
Collect multiple returns through suitable vegetation conditions, classify ground points and build terrain surfaces for engineering, drainage, forestry, environmental and planning workflows.
DTM · DEM · ContoursMap roads, rail, powerlines, pipelines and right-of-way terrain with repeatable geometry.
Profiles · ClearancesSeparate canopy layers and ground returns for height, structure and terrain analysis.
Canopy · GroundCapture pits, stockpiles, slopes and site change for measurement and planning.
Volumes · SurfacesRecord complex geometry where laser measurements and RGB context complement one another.
Point Cloud · 3DReliable results come from an integrated collection and processing chain. Each link affects field efficiency, point-cloud quality and whether the final deliverable can be trusted.
Payload compatibility, endurance, stability, speed and operating environment.
Range, pulse rate, returns, scan geometry, timing and orientation accuracy.
RTK or PPK strategy, base data, coordinate system and control.
Trajectory, point-cloud generation, strip alignment, colourization and classification.
Checkpoints, accuracy reporting, completeness review and deliverable acceptance.
Published accuracy figures are measured under defined test conditions. Real results depend on mission design, surfaces, positioning, calibration, processing and independent validation.
L3 is the flagship long-range, high-output system for Matrice 400. L2 remains an established and lighter integrated workflow across Matrice 400, Matrice 350 RTK and supported Matrice 300 RTK configurations.
Long-range 1535 nm LiDAR, dual 100 MP RGB mapping cameras, high-precision POS and up to 16 returns for high-efficiency terrain, corridor, forestry and large-area acquisition.
Published values are manufacturer specifications under defined test conditions. Configure altitude, rate, returns and overlap around the project requirement.
Integrated frame LiDAR, high-accuracy IMU and 20 MP 4/3 RGB mapping camera for dependable terrain, construction, mining, forestry and asset-mapping workflows.
Matrice 300 RTK support requires DJI RC Plus. Compatibility, firmware, accessories and software licensing should be confirmed for the complete configuration.
A quotation can include the aircraft, payload, batteries, charging, positioning, storage, processing, protection, training and deployment support required to start operating.
High-output system for large sites, corridors, forestry, mining and demanding survey programs, configured with D-RTK 3, DJI Terra, batteries, storage and onboarding.
Configure L3 Package →Field-proven aircraft and integrated LiDAR workflow for organizations prioritizing portability, payload flexibility, repeatable mapping and mature accessories.
Configure M350 + L2 →Combine L2 collection with the endurance, payload capacity and broader enterprise capability of Matrice 400 for mixed LiDAR and inspection programs.
Configure M400 + L2 →Add compatible LiDAR, positioning, DJI Terra licensing, processing guidance and mission training to a supported aircraft already in your fleet.
Review My Existing Fleet →The equipment purchase is only one step. Define how each project moves from requirement and control through collection, processing, validation and delivery.
Set the coordinate system, accuracy, density, classifications, coverage and final formats.
Choose altitude, speed, scan mode, returns, overlap, control and terrain strategy.
Complete checks, confirm RTK status, monitor conditions and protect source data.
Generate trajectories and point clouds, align strips, colourize and optimize.
Separate ground, vegetation, structures and noise according to project needs.
Check completeness and independent points before creating accepted deliverables.
These methods often complement each other. The decision should reflect the surface, vegetation, geometry, desired output, environmental conditions and required confidence.
LiDAR actively measures distance and can capture multiple returns along a laser path.
Photogrammetry derives geometry by matching overlapping images of visible surfaces.
Ask how the project will be referenced and independently checked, not only what number appears on the payload specification sheet.
RTK/PPK source, base coordinates, checkpoints and coordinate transformations.
Altitude, speed, overlap, scan direction, terrain and line length.
Reflectivity, incidence angle, moisture, visibility and environmental conditions.
IMU behaviour, boresight, time synchronization and warm-up procedures.
Trajectory solution, strip alignment, optimization, filtering and classification.
Checkpoints and completeness checks appropriate to the accepted deliverable.
Unmanned Canada can help organize the technical and operational pieces so the team receives a supportable collection system rather than a box of disconnected components.
Confirm terrain, area, vegetation, accuracy, density, outputs, frequency, crew capability and operating environment.
Match aircraft, LiDAR, positioning, storage, workstation, software, batteries, protection and accessories.
Cover equipment setup, mission planning, collection discipline, data handling, processing and quality review.
Document the configuration, responsibilities, repeatable field process, maintenance and next-step support.
Short answers to the questions that usually come up before system selection.
L3 is DJI's flagship long-range system for Matrice 400, with greater range, up to 16 returns, higher pulse frequency and dual 100 MP RGB cameras. L2 is lighter and supports a broader aircraft list, including Matrice 400 and Matrice 350 RTK, making it practical for established and portable enterprise workflows.
LiDAR does not see through solid material. Some laser pulses can pass through gaps in vegetation and produce returns from lower canopy layers or the ground. Results depend on canopy density, leaf conditions, scan angles, pulse characteristics, altitude and processing.
No. The payload is one part of the accuracy chain. Positioning, control, mission design, calibration, processing, coordinate systems and independent validation all affect whether the deliverable meets its intended standard.
DJI Terra supports processing data collected by DJI LiDAR systems and can export common point-cloud formats. Additional classification, analysis, CAD, GIS or specialist software may be required depending on the deliverables.
Possibly. L2 supports Matrice 400, Matrice 350 RTK and Matrice 300 RTK with DJI RC Plus. The exact aircraft, controller, firmware, mounting, storage, Terra licensing and accessory configuration should be checked before purchase.
Share the site size and terrain, vegetation, required accuracy and density, deliverable formats, operating location, project frequency, existing equipment, software experience and whether training or processing support is required.
Start with the site, accuracy, terrain, vegetation and required deliverable. We will help match the aircraft, LiDAR payload, positioning, software and support around the mission.