High Resolution 0.75m PushBroom Camera China Factory and Suppliers
The SpaceNavi Push-Broom Camera is a state-of-the-art imaging system specifically engineered for high-precision aerospace and industrial mapping. Featuring a sophisticated coaxial folding optical system, this camera delivers a sharp resolution of 0.75m from a 535km orbit, providing critical geospatial intelligence with unmatched clarity and speed. Designed for rapid deployment, the system can be completed and delivered in as little as 10 months, ensuring your mission stays on schedule.
By integrating advanced linear sensor technology, the push-broom architecture overcomes the inherent distortions and stitching errors found in traditional area-array cameras. Whether used for energy infrastructure monitoring, construction site tracking, or large-scale agricultural assessment, our system transforms vast landscapes into actionable, high-resolution data, maximizing operational efficiency while minimizing costs.
| Product Code | CG-PL-HR-0.75m-17km | Imaging Mode | Push-broom imaging |
|---|---|---|---|
| Resolution | 0.75m | Swath Width (Nadir) | ≥17km |
| Spectral Coverage | Pan: 450-700nm, B: 430-510nm, G: 510-580nm, R: 630-690nm, NIR: 740-895nm | Signal-to-Noise Ratio | 38dB |
| Data Rate | 2.13Gbps | Dimensions | Φ440mm x 710mm |
| Power Consumption | 85W | Weight | 10kg |
Unlike curved lenses, our linear sensor records pixels in parallel, ensuring 1:1 geometric accuracy from center to edge.
Accelerated production cycle allows for product completion and delivery in as little as 10 months.
Captures strips up to 17km wide, reducing the number of required passes by up to 60% compared to conventional systems.
Dynamically adjust the field of view from broad site planning to detailed inspection without swapping hardware.
Comprehensive spectral coverage across Panchromatic, Blue, Green, Red, and NIR bands for diverse analytical needs.
No moving lenses means fewer failure points, increasing reliability in high-vibration or harsh environments.
Seamless integration with platforms like Pix4D and DroneDeploy for distortion-free mapping.
Real-time adjustment of zoom angles to switch between broad overviews and detailed close-ups.
Advanced processing of NIR and RGB bands for vegetation health and material identification.
Optimized pathing leveraging the 17km swath width to reduce flight time and energy use.
High-fidelity data capture suitable for creating millimeter-precision 3D infrastructure models.
Precise synchronization of imaging data with satellite/UAV positioning for accurate georeferencing.
| Metric | Traditional Area-Array | SpaceNavi Push-Broom |
|---|---|---|
| Mapping Efficiency | High overlap required | 60% fewer passes needed |
| Edge Accuracy | Curved lens distortion | 1:1 Geometric precision |
| Field of View | Fixed/Limited (84°) | Ultra-wide continuous scan |
| Operational Cost | High (longer flight time) | Low (rapid area coverage) |
| Reliability | Complex moving lenses | Solid-state linear sensor |
Traditional area-array cameras capture a static frame, often resulting in edge distortion and requiring extensive stitching. Push-broom cameras use a linear sensor to scan continuously as the platform moves, providing a seamless, distortion-free image across a much wider swath.
A 0.75m resolution from a 535km orbit allows operators to identify significant structural features and changes across vast areas, balancing the need for wide coverage with the precision required for industrial-grade monitoring.
Yes. The system covers Panchromatic, Blue, Green, Red, and Near-Infrared (NIR) spectral bands, making it ideal for agriculture, forestry, and environmental monitoring.
SpaceNavi has optimized its manufacturing pipeline to complete and deliver the push-broom camera system in as little as 10 months.
Absolutely. The distortion-free output is designed to be interpreted effortlessly by leading industry software such as Pix4D and DroneDeploy.
With a power consumption of only 85W, the camera is designed for high energy efficiency, ensuring it does not overtax the satellite's power subsystem during long-duration missions.