Stratobotic builds stratospheric robotic platforms that provide ultra-high-resolution Earth observation from altitudes above 20 km. Using nature-inspired flight modes, the company's systems can drift passively like a jellyfish or hold position like a seagull, enabling continuous monitoring with ground resolution under 10 cm. The technology serves environmental, agricultural, and asset monitoring applications.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional Earth observation methods face a trade-off between coverage and resolution: satellites offer wide coverage but limited detail, while drones provide high resolution but only over small areas and for short durations. This gap leaves customers without a cost-effective way to continuously monitor large assets or environments from high altitudes with centimeter-level precision.
Solution
Stratobotic develops stratospheric robotic platforms that operate at high altitude to deliver ultra-high-resolution imagery with ground resolution under 10 cm. The system uses two nature-inspired flight modes: a jellyfish approach that changes altitude to catch wind layers for passive, near-zero-energy drifting, and a seagull approach that actively flies against the wind for precise station-keeping within a few hundred meters. This dual-mode capability enables continuous monitoring over extended periods—demonstrated by an 8-hour continuous drifting flight over Turin—while remaining silent and energy-efficient. The platform provides persistent, high-resolution insights that make customers more aware of their assets and environmental conditions.
Target Audience
Primary customers include organizations in environmental monitoring, agriculture, and asset management sectors that require persistent, high-resolution aerial observation over large areas.
Features
- Dual flight modes: aerostatic drift mode for passive, silent, near-zero-energy flight and aerodynamic hold mode for active, precise station-keeping within hundreds of meters
- Ground resolution under 10 cm from stratospheric altitudes, enabling ultra-high-detail observation
- Continuous operation capability demonstrated through 8-hour drifting flights, supporting long-duration monitoring missions
- Nature-inspired control algorithms that optimize energy consumption by leveraging wind layers at different altitudes
- Applications spanning environmental monitoring, agriculture monitoring, asset monitoring, and change detection