Aircraft
Payload capacity, endurance, weather envelope, portability, redundancy and operating eligibility.
Unmanned Canada helps define and configure the aircraft, payload, positioning, communications, software, data flow, power, field equipment and support structure required to produce a dependable operational result.
A strong system begins with the deliverable and works backward through processing, collection, communications and field operations. A single incompatible component can limit the entire workflow.
Payload capacity, endurance, weather envelope, portability, redundancy and operating eligibility.
Sensor type, accuracy, resolution, range, field of view, mounting and data characteristics.
Command and control, cellular or site networking, correction services and remote access.
Mission planning, fleet management, processing, analysis, GIS and enterprise-system handoff.
Live intelligence, inspection evidence, map, model, point cloud, measurement or business record.
System design connects manufacturer capabilities with site conditions, operating requirements and the downstream systems your organization already uses.
Match aircraft interfaces, capacity, flight performance and supported sensors to the capture requirement.
Configure RTK, base-station, network-correction and control workflows around the accuracy target.
Review command links, site networking, cellular connectivity, Dock infrastructure and resilience.
Connect planning, collection, processing, analysis, storage and delivery without unnecessary handoffs.
Evaluate custom sensors, manufacturer SDKs/APIs, mounting, compute, telemetry and business-system connections.
Complete the system with transport, charging, spares, training, maintenance and acceptance planning.
Select the workflow closest to the mission. The result shows the system layers that normally require joint design and validation.
Design the capture and processing chain around accuracy, coverage, coordinate reference, site conditions and the format required downstream.
Match sensor performance, stand-off distance, environment, repeatability and reporting to the defect or condition being evaluated.
Design the Dock, aircraft, network, power, command platform and operating procedures as one remote system.
Screen the physical, electrical, communications, software, data and regulatory interfaces before committing to development.
The process closes technical assumptions early, then proves the system under controlled conditions before it becomes an operational dependency.
Translate the mission, environment, constraints and deliverable into measurable system requirements.
Map components, interfaces, data flow, dependencies and operational impacts before procurement.
Assemble the supported hardware, software, network, settings and field deployment package.
Test against defined scenarios and capture results, limitations, procedures and outstanding actions.
Confirm performance, train responsible users and transfer the system with its support pathway.
Acceptance criteria should be established before testing, with evidence that can be reviewed by both operators and the business owner.
Confirm supported interfaces, firmware, mounting, power, communications and software versions.
Measure the required range, coverage, data quality, accuracy, runtime and environmental response.
Test field setup, staffing, transport, charging, turnaround, abnormal events and recovery.
Trace files and information from collection through processing, review, storage and delivery.
Close actions, document limitations, train users and assign support and configuration ownership.
A component can be technically compatible and still be unsuitable for the intended Canadian operation. System design should consider aircraft declarations, weight, airspace, operating category, site conditions and accountable procedures before acceptance.
Confirm registration, declared capabilities and the effect of payloads or configurable elements.
Match the system to the intended category, location, proximity, visibility and authorization needs.
Validate power, network, weather, physical security, access and recovery arrangements.
Document roles, normal operations, contingencies, maintenance, records and user readiness.
Regulatory information is provided for general planning and is not legal advice or an operating authorization. Requirements must be confirmed for the specific system and operation.
Use the related pages to explore the payload, remote-operations and processing layers that may become part of the final architecture.
Questions to resolve before configuring or procuring a complete enterprise system.
Product selection compares individual equipment. System design connects the aircraft, payload, communications, software, data, field equipment, procedures and support model to a defined operational requirement.
Yes. Existing aircraft, payloads, software, positioning equipment and team capabilities can be reviewed for compatibility, remaining service life, workflow fit and integration gaps.
Potential third-party integrations can be screened for physical, electrical, communications, software, operational and support requirements. Feasibility depends on the exact aircraft, interface, manufacturer documentation, SDK/API access and integration partner.
Yes. A Dock design should include the compatible aircraft, site, power, networking, command platform, supervision, operating procedures, Canadian permissions and ongoing site support as one system.
The engagement can define file formats, data flow, storage, access and available integration paths. Implementation depends on the capabilities and interfaces supported by each platform.
Acceptance criteria are defined against the requirement, then tested through configuration checks, controlled field scenarios, sample datasets, operational workflow review and documented action closure.
Describe the mission, operating environment, expected deliverable, frequency, accuracy or performance target, project timing, existing equipment and any software or systems that must receive the result.
Share the practical details you already know. Unmanned Canada will use them to identify compatibility questions and the most useful technical next step.
Define compatibility, performance, data flow and field readiness before committing the system to operations.