ND-T600 Thermal Inspection System

This multirotor drone is configured for professional thermal and visual inspection work. The combined thermal and RGB payload allows operators to document visible conditions and temperature patterns during the same inspection workflow. Typical uses include commercial roofs, solar installations, electrical infrastructure, industrial facilities, and other assets where visual and thermal data are useful for assessment and documentation.

Yes. This configuration combines thermal imaging with an RGB camera, allowing the operator to collect thermal and visible imagery from the same aircraft. The RGB camera provides visual context and detailed documentation, while the thermal sensor is used to identify and record temperature differences that may require further review.

The system can be used for thermal inspection of assets such as commercial roofs, photovoltaic arrays, electrical equipment, building envelopes, and industrial infrastructure. The exact inspection method depends on the asset, environmental conditions, required measurement quality, sensor specifications, flight distance, and the reporting standard used for the project.

Radiometric capability is shown in the technical specifications for this configuration. A radiometric thermal sensor records temperature-related information at the pixel level rather than providing only a visual heat image. This makes the captured data more useful for workflows where temperature measurements and post-flight thermal analysis are required.

The aircraft can support repeatable inspection workflows when used with the available positioning and mission-planning capabilities. Repeatable routes and viewpoints can help operators capture comparable imagery during scheduled inspections. Actual repeatability depends on positioning quality, flight planning, environmental conditions, sensor settings, asset access, and consistent operating procedures.

The available positioning technologies are listed in the technical specifications for the aircraft configuration. GNSS, RTK, and PPK capabilities can support navigation, mapping, georeferenced data collection, and repeatable mission workflows. The positioning method used for a project should be selected according to the required accuracy and the type of final deliverable.

The stated maximum flight time for this configuration is 52 minutes. Actual flight time can vary with payload weight, battery condition, wind, temperature, flight profile, speed, and operating reserves. Mission planning should therefore use realistic working endurance rather than assuming the maximum stated value will be available during every flight.

The stated operating range is up to 32 miles for the aircraft and control-link configuration. This figure describes platform capability and does not by itself define the distance at which a particular mission may legally or safely be conducted. Operational range is also affected by communications, terrain, interference, regulatory requirements, weather, battery reserves, and the selected flight profile.

The aircraft has a stated payload capacity of up to 3 kg. Payload capacity is relevant when evaluating alternative sensors, mounting hardware, or custom equipment, but maximum payload should not be treated as the normal operating target. Added mass can affect flight time, handling, wind performance, center of gravity, and available safety margin.

Yes. The thermal and RGB configuration is suitable for collecting inspection data from photovoltaic installations. Thermal imagery can help identify temperature patterns that warrant further investigation, while RGB imagery provides visual context for panel condition and location. Flight timing, irradiance, weather, viewing angle, altitude, and inspection methodology must be controlled when reliable solar inspection data is required.

Yes. The system can collect both visual and thermal imagery of commercial roofing systems. Depending on the inspection method, thermal data may help reveal temperature patterns associated with areas requiring closer investigation, while RGB imagery provides detailed visual documentation of membranes, seams, penetrations, drainage areas, flashing, and other roof features.

Yes. The combination of thermal and RGB imaging can support inspection of electrical and industrial assets where safe-distance visual and thermal data collection is appropriate. Potential targets include electrical connections, switchgear, transformers, substations, building systems, and other infrastructure. Thermal anomalies should be reviewed in context by qualified personnel rather than treated as an automatic diagnosis.

The configuration should be selected around the required inspection result rather than a single aircraft specification. Important factors include the asset being inspected, required thermal resolution, RGB detail, working distance, temperature-measurement requirements, positioning accuracy, flight duration, software workflow, environmental conditions, and final report format. The complete aircraft, payload, software, and operating workflow should be verified for the intended task before deployment.