DS100T Specifications at a Glance

The following specifications summarize the pod’s imaging channels, stabilization platform, interfaces, power requirements, and environmental limits. Notably, the visible channels share the same Full HD frame rate but use different focal lengths and fields of view. Consequently, operators can switch between broad scene awareness and more focused observation.

The structural drawings present front, side, rear, top, and perspective views of the enclosure. Specifically, they show four M4 mounting holes positioned evenly around the circumference. The drawings also display measurements of 87, 116, and 75.30. However, the measurement units are not clearly identified, so installers should confirm dimensional requirements before designing a custom mounting interface.

Three Optical Channels for Flexible Observation

The DS100T uses three dedicated imaging apertures rather than relying on one general-purpose camera. Firstly, the 8 mm large-FOV visible channel provides a 38.3° × 22.1° view for broad situational awareness. Secondly, the 25 mm small-FOV channel narrows the view to 12.7° × 7.1°, making it better suited to focused observation. Both visible-light channels capture 1920×1080 video at 60 fps. Therefore, they can deliver smooth motion detail when the platform or target is moving.

Meanwhile, the 30 mm infrared channel records 1280×1024 thermal imagery at 50 fps with a 28.7° × 23.2° field of view. This high-resolution thermal imaging channel helps reveal heat sources that may remain difficult to identify with ordinary visible-light footage. In addition, dual-light thermal capture synchronizes visible details with temperature information. As a result, operators can compare object shape, color, position, and thermal contrast within the same observation workflow.

AI Tracking That Keeps Moving Targets Centered

The integrated AI tracking system continuously evaluates target features and movement trajectories. Once a relevant subject is identified, the pod can adjust its viewing angle and focal length in real time. Consequently, it reduces the amount of manual correction required to keep a moving target centered. The visible-light sensor also supports target recognition, target tracking, and image compression.

For instance, the system can assist with aerial-style tracking of pedestrians moving along a walkway. Similarly, it can lock onto a vehicle traveling through a road scene. However, mission planning and operator oversight remain important, particularly when the background is complex or several similar targets enter the frame.

Precision Dual-Axis Stabilization

A compact imaging payload must remain stable enough to make its optical performance useful. Accordingly, the DS100T platform adjusts pitch and yaw to compensate for shake and directional deviation. Its yaw range extends from -110° to +110°, while pitch movement covers -100° to +40°. Furthermore, a maximum angular velocity of at least 100° per second supports rapid repositioning during target acquisition.

The listed stability accuracy is 0.5 mrad under the specified test notation, and angular position accuracy is no more than 0.3°. Therefore, the platform can maintain more consistent framing during moving-platform observation. This capability is especially valuable when using the narrow-FOV camera, where small movements have a greater visual effect.

Designed for Harsh Operating Conditions

The metallic enclosure integrates the electronic components within an EMC-shielded casing. As a result, it provides structural protection while supporting operation in challenging electromagnetic environments. Moreover, the specified operating and storage range extends from -20°C to +60°C. A launch-shock rating of at least 200 g further supports deployment on platforms exposed to severe short-duration forces.

Power requirements are also practical for integration. Specifically, the unit accepts a 12–28 V DC input and consumes no more than 10 W on average or 20 W at maximum load. In addition, RS232 control and network video output provide established options for command and video-system integration.

Application Scenarios

Because it combines visible observation, thermal imaging, stabilization, and AI tracking, the pod can support several specialized workflows:

• Aerial surveillance: Track people or vehicles while maintaining a stabilized view from a moving installation.
• Firefighting and rescue: Locate heat sources from a safer observation distance and compare them with visible scene details.
• Industrial inspection: Identify abnormal thermal patterns in equipment, buildings, or infrastructure.
• Long-distance observation: Combine broad scene coverage with a narrow visible-light field of view for closer inspection.
• Border and perimeter monitoring: Use AI tracking to assist operators following moving targets.
• Wildlife and environmental surveys: Observe distant subjects while reducing disturbance to the monitored area.
• Thermal analysis: Detect temperature variation that may indicate insulation faults, energy loss, or developing maintenance issues.

Ultimately, suitability depends on the aircraft, mounting arrangement, control system, and mission requirements. Nevertheless, the combination of low weight, three optical channels, and stabilized tracking gives integrators a versatile foundation for compact imaging systems.