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Changes for page OWL Indoor Drone

Last modified by Tjalling Haije on 2025/09/08 09:48
From version 3.1
edited by Tjalling Haije
on 2025/09/08 09:48
Change comment: There is no comment for this version
To version 1.1
edited by Tjalling Haije
on 2025/07/07 07:35
Change comment: Imported from XAR

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1 -The OWL is an advanced indoor drone (UAV) designed to operate in swarms, providing real-time situational awareness in complex environments. Its small form factor and agility make it ideal for navigating indoor spaces where GPS signals might be unavailable. The drone is equipped with cameras and environmental sensors, allowing it to map interiors, monitor air quality, and support communication networks by relaying signals between different units. The swarm functionality ensures that multiple drones can work together to cover large areas efficiently, offering a comprehensive overview of the incident site.
1 +The OWL is an advanced indoor drone designed to operate in swarms, providing real-time situational awareness in complex environments. Its small form factor and agility make it ideal for navigating indoor spaces where GPS signals might be unavailable. The drone is equipped with cameras and environmental sensors, allowing it to map interiors, monitor air quality, and support communication networks by relaying signals between different units. The swarm functionality ensures that multiple drones can work together to cover large areas efficiently, offering a comprehensive overview of the incident site.
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3 3  * **Multi-Modal Sensor Fusion**: Integrates data from IMUs, LiDAR, and vision systems to navigate and map areas autonomously.
4 4  * **Collision Tolerance**: Built to withstand impacts, making it ideal for confined and cluttered spaces.
5 5  * **SLAM Capabilities**: Utilizes Simultaneous Localization and Mapping (SLAM) to create detailed 3D maps in real-time, which are crucial in SAR missions where visibility is low or GPS is unavailable​
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7 -=== Interview insights ===
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9 -Teams rely on **link health tiles** (RSSI/throughput/interference) and want **simple movement advice** (“move 10 m east”) to regain coverage. Connectivity can be a **show-stopper**; the UI should elevate comms warnings ahead of non-critical alerts. For resilience, enable **store-and-forward**, **mesh relays**, and **on-device caching** so robots continue tasks and synchronize once links return. Coverage planning should appear as a **map overlay** with recommended vehicle/node placements.