StriX Satellite Capabilities
All-Weather Synthetic Aperture Radar Satellites for High-Resolution Global Monitoring
30 Synspective StriX Satellites within the Constellation by Late 2020s
About the StriX Synthetic Aperture Radar Satellite Constellation
The StriX satellites, developed by Synspective, are a constellation of X-band synthetic aperture radar (SAR) satellites designed for high-resolution Earth observation. Currently comprising four satellites, the constellation is planned to grow to 30 by the late 2020s, offering enhanced global coverage and frequent revisits.
Utilizing advanced SAR technology, StriX satellites achieve ground resolutions from one to three metres, operating primarily in Stripmap and Sliding Spotlight observation modes. Unlike traditional optical satellites, StriX can reliably capture images through cloud cover, smoke, and darkness, ensuring consistent monitoring regardless of weather or lighting conditions.
This makes the StriX constellation ideal for applications such as disaster response, land management, coastal monitoring, and infrastructure surveillance where all-weather, day-and-night imaging is crucial.
Comprehensive Land and Coastal Monitoring
Continuous monitoring of land, coastal, and urban areas for environmental management, conservation, and disaster mitigation.
Wide Swath Width & Multiple Observation Modes
Flexible operation in Stripmap and Spotlight modes allows capturing extensive areas with high spatial resolution.
Adaptive Imaging Resolution
Switchable between 1m and 3m resolution depending on swath width to balance detail and coverage.
Key Features and Benefits of StriX SAR Satellites
- Capable of penetrating clouds, smoke, and darkness for reliable all-weather, day-and-night Earth observation.
- High-resolution X-band SAR technology enables detailed monitoring of natural resources, urban development, and infrastructure.
- Rapid revisit capability supports timely disaster monitoring, including earthquakes, flooding, and other emergencies.
- Expanding constellation improves global coverage and revisit frequency for enhanced temporal resolution.
