Progress Mapping
Capture consistent aerial records at planned intervals to compare site conditions, communicate progress and maintain a visual project history.
Construction Intelligence Across Canada
Construction & Infrastructure Drones
Turn active jobsites, structures and transportation corridors into current, measurable information. Unmanned Canada helps teams connect enterprise aircraft, sensors, software, training and support around the deliverable their project actually requires.
Progress Mapping
Digital Twins
Infrastructure Inspection
UC Digital Twin Workspace
Dataset Synchronized
Earthwork Zone B
62% Complete
Model Status
Current
Change Review
4 Areas
Repeatable Capture
Comparable Site Records
Current Context
Maps, Models & Imagery
Safer Access
Remote Visual Inspection
Canadian Support
Configuration To Deployment
Jump To A Section
Start With The Deliverable
Where Drones Fit Construction & Infrastructure Workflows
The aircraft is only one part of the system. The useful result may be a current orthomosaic, a volume calculation, an inspection record, a 3D model or a repeatable dataset that supports project decisions.
Earthwork & Volumetrics
Build measurable surface models for cut-and-fill review, stockpile tracking, excavation context and material-management workflows.
Digital Twins & 3D Models
Create current spatial representations that can support design coordination, asset context, remote review and change documentation.
Structure Inspection
Collect detailed visual or thermal information from façades, roofs, bridges, towers and other assets while reducing difficult access.
Corridor Documentation
Record roads, rail, utilities and linear project areas with repeatable imagery, mapping or LiDAR workflows selected around the required output.
Remote Site Monitoring
Combine compatible docked aircraft, scheduled capture and fleet software where repeat frequency and site conditions justify a more automated program.
From Flight To Project Information
A Repeatable Construction Data Workflow
Reliable outcomes depend on planned capture, suitable positioning, disciplined processing and an agreed handoff into the project team's existing reporting, CAD, GIS or BIM environment.
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01
Define
Confirm the decision, measurement, record or inspection deliverable.
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02
Capture
Plan the aircraft, sensor, control and repeatable collection method.
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03
Process
Create the map, model, point cloud, measurement set or inspection record.
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04
Apply
Deliver information in a format that fits the project team's workflow.
Digital Twin Lab
Connect Field Reality To Project Decisions
A useful digital twin is more than an attractive 3D model. It starts with a defined reference system, repeatable capture and a clear understanding of how the model will be reviewed, measured, compared or connected to other project information.
Discuss A Digital Twin Workflow
Project Information Pipeline
Mission-Specific Configuration
Input 01
Field Capture
RTK imagery, LiDAR, inspection media and project control.
Process 02
Spatial Model
Orthomosaic, point cloud, surface, mesh or inspection record.
Output 03
Project Use
Progress review, measurement, documentation or asset context.
Decision Guide
Match The System To The Project Requirement
Platform selection should follow the operating environment, deliverable, accuracy requirement, capture frequency and way the information must enter the project workflow.
| Requirement | Typical Direction | Questions To Confirm | Potential Output |
|---|---|---|---|
| Routine Site Mapping | Portable RTK mapping aircraft with a repeatable flight and control workflow. | Site size, target resolution, control method, frequency and processing responsibility. | Orthomosaic, surface model, progress imagery or basic measurements. |
| Detailed Reality Capture | High-resolution mapping or LiDAR configuration selected around terrain and deliverable. | Vegetation, structures, accuracy target, point density, coordinate system and final format. | Point cloud, mesh, terrain model, contours or digital-twin input. |
| Asset Inspection | Enterprise inspection platform with zoom, thermal or specialized payloads where justified. | Defect type, standoff distance, access, lighting, thermal conditions and reporting method. | Visual record, thermal dataset, annotated findings or repeat inspection comparison. |
| Repeated Remote Monitoring | Compatible dock, remote-operations software and site infrastructure. | Connectivity, weather, airspace, security, oversight, mission frequency and authorization. | Scheduled imagery, alerts, remote review and centralized fleet records. |
Representative System Pathways
Build Around The Mission, Not A Preset Bundle
These are starting directions for consultation. The final aircraft, payload, positioning, software, training and support package should be confirmed against the actual site and required deliverable.
01
Portable
Daily Site Mapping
Compact RTK aircraft for efficient progress capture, mapping and documentation across active construction sites.
Explore Matrice 4 Series →
02
Multi-Payload
Complex Inspection & Mapping
A larger enterprise platform direction for projects requiring specialized payloads, longer endurance or broader capability.
Explore Matrice 400 →
03
Geospatial
LiDAR & Reality Capture
Aircraft, LiDAR payload, control, processing and training selected as one complete geospatial workflow.
Explore LiDAR Systems →
04
Remote
Docked Site Monitoring
Docked aircraft and fleet tools for suitable projects requiring repeat capture, remote oversight and scheduled operations.
Explore Drone Docks →Consultation note: A suitable system may combine equipment from more than one category. Accuracy, endurance, payload capability and automation should be evaluated against the operating environment rather than compared as isolated specifications.
Canadian Project Readiness
Plan The Complete Operational Program
Equipment is only one layer. Construction drone programs also need a clear operating concept, qualified personnel, site coordination, data standards and a support plan that can be sustained after the initial deployment.
Readiness Checklist
- Define the required map, model, inspection or reporting output
- Confirm site access, hazards, airspace and operational category
- Select aircraft, sensor, positioning and processing components
- Document capture, quality-control and data-handoff procedures
- Prepare operators, visual observers and project stakeholders
- Establish maintenance, support and program-expansion planning
Important: Operational requirements vary by aircraft, location, airspace, proximity to people, mission type and other factors. The operator remains responsible for confirming current Transport Canada requirements and obtaining any authorization required for the planned operation.
Implementation Path
From Initial Requirement To A Usable Program
Unmanned Canada can support the full path from early evaluation and demonstrations through configuration, onboarding, training and lifecycle support.
Discovery
Define the project, environment, deliverable, frequency and current process.
Validation
Review representative data, demonstrations or a practical proof of concept.
Configuration
Connect the aircraft, payload, control, software and accessories.
Enablement
Prepare the team with operating, processing and workflow training.
Lifecycle Support
Maintain the system, refine procedures and scale the program when required.
Frequently Asked Questions
Construction Drone Program Questions
Have a site, corridor, inspection or digital-twin requirement? Share the deliverable, location, project stage and current process so our team can recommend a practical starting direction.
Request A ConsultationWhat Can Construction Drones Produce?
Depending on the system and workflow, outputs may include current aerial imagery, orthomosaics, surface models, point clouds, 3D meshes, volumes, inspection media and repeatable project records.
Which Drone Is Best For Construction Mapping?
The answer depends on site size, required accuracy, terrain, capture frequency, payload needs and processing workflow. A compact RTK mapping aircraft may fit routine site work, while more complex projects may require a larger multi-payload or LiDAR platform.
Can Drone Data Be Used With CAD, GIS Or BIM?
Yes, when the capture, coordinate system, processing settings and export format are planned around the receiving software. The final integration method should be confirmed during workflow design.
Can Drones Measure Stockpiles And Earthwork?
Drone-derived surfaces can support volume and earthwork workflows. Appropriate ground control, checkpoints, processing and quality procedures are important when measurements will influence project decisions.
When Does LiDAR Make Sense?
LiDAR may be useful when terrain, vegetation, complex structures or the required point-cloud workflow make photogrammetry alone less suitable. The choice should follow the required deliverable.
Can A Drone Dock Monitor A Construction Site?
A compatible dock can support scheduled capture and remote oversight at suitable sites. Connectivity, weather, security, airspace, crew oversight and regulatory requirements must be evaluated before deployment.
Does Unmanned Canada Provide Training And Support?
Unmanned Canada can help with system selection, configuration, demonstrations, onboarding, training, software direction and ongoing enterprise support across Canada.
Start With The Project Requirement
Build A Construction Drone Workflow That Produces Useful Information
Tell us what needs to be mapped, measured, inspected or monitored. We will help organize the aircraft, sensors, software, training and support direction around the required outcome.
