Carlos Mendieta
Agricultural Surveyor, Argentina
Push-Broom kaamera eraldusvõimega 0,75 m
Toote üksikasjad
The push-broom camera with a resolution of 0.75m adopts the coaxial folding optical system, and can obtain high-resolution images with a resolution of 0.75m in 535km orbit. It only takes 10 months to complete and deliver the product at the soonest.
Tootekood |
CG-PL-HR-0.75m-17km |
Pildistamisrežiim |
Push-broom imaging |
Resolutsioon |
0.75m |
Vaalu laius (Nadiris) |
≥17km |
Spektri katvus |
panchromatic: 450nm-700nm blue: 430nm-510nm green: 510nm-580nm red : 630nm-690nm NIR: 740nm-895nm |
Signaali-müra suhe |
38dB |
Andmeedastuskiirus |
2.13Gbps |
Välimus ja mõõtmed |
Φ440mmx710mm |
Energiatarve |
85W |
Kaal |
10kg heavyweight |
In industrial mapping, where precision and productivity are non-negotiable, the limitations of traditional cameras—narrow fields of view, tedious stitching, and inconsistent resolution—often stall progress. Enter SpaceNavi’s push-broom cameras, engineered with super wide-angle technology to transform how we capture vast landscapes, infrastructure, and industrial sites. By merging the panoramic reach of a super wide-angle camera with the precision of push-broom scanning, our systems eliminate inefficiencies, reduce operational costs, and set a new standard for large-area data collection.
The Shortfalls of Conventional Imaging in Industrial Mapping
Most industrial cameras, even those labeled "wide-angle," typically offer 70–110° fields of view, requiring multiple overlapping shots to map large areas. This not only increases flight time for drones or ground vehicle passes but also introduces stitching errors that compromise data integrity. Even wide-screen camera systems, designed for panoramic displays, often sacrifice resolution at the edges or struggle with geometric distortion—critical flaws for applications like power line inspection or agricultural land mapping.
SpaceNavi’s push-broom architecture solves these issues by leveraging a linear sensor array that scans continuously as the camera moves, creating seamless, high-resolution images with a super wide angle equivalent to over 180° in traditional terms. Unlike static wide-angle lenses that bend light at the edges, our linear scanning ensures uniform sharpness across the entire field of view, making every pixel—from the center to the far corners—equally reliable for measurements.
How Push-Broom Technology Redefines Wide-Angle Efficiency
1. Continuous Scanning for Unmatched Coverage
Our super wide-angle camera setup captures strips of imagery up to 10 km wide (at 500m altitude), reducing the number of passes needed for a typical 100 km² site by 60% compared to conventional systems. This is ideal for mapping wind farms, coastal zones, or highway networks, where speed and completeness are essential.
2. Zoom Camera Wide Angle Flexibility
Built-in adaptive zoom technology lets operators adjust the field of view without compromising resolution. Need to inspect a detailed section of a pipeline? Zoom in to 50mm for sub-millimeter precision while maintaining a 120° wide-angle base—no need to switch lenses or reposition equipment.
3. Wide Screen Clarity Without Compromise
The resulting images mimic wide-screen camera quality but with industrial-grade accuracy: 16-bit color depth, 0.5m ground sample distance (GSD), and zero geometric distortion. Whether stitching into 3D models or analyzing orthomosaics, users get a seamless, distortion-free canvas that software platforms like Pix4D or DroneDeploy interpret effortlessly.
Applications Where Wide-Angle Efficiency Shines
Energy Infrastructure Mapping: Survey solar farms in a single flight, capturing panel alignment and soiling with enough detail to identify 2cm defects, all while covering 5x more area per mission than standard drones.
Construction Site Monitoring: Create daily progress maps with 180°+ coverage, tracking material stockpiles, equipment movement, and earthwork volumes with millimeter precision—no blind spots, no manual stitching.
Forestry & Agriculture: Assess crop health or tree density across thousands of hectares in hours, using multispectral wide-angle data to detect stress zones earlier than ever before.
The Future of Large-Area Imaging Is Wide—and Wise
SpaceNavi’s push-broom cameras prove that super wide-angle technology isn’t just about seeing more; it’s about working smarter. By combining panoramic coverage with industrial-grade resolution and adaptive zoom, we’ve eliminated the trade-off between speed and accuracy. In an era where mapping projects demand both scale and precision, our systems don’t just meet expectations—they rewrite the playbook for what wide-angle industrial imaging can achieve.
When your mission is to capture the big picture without missing the smallest detail, choose a camera built for the breadth of industry’s challenges. Choose SpaceNavi: where super wide angle meets supercharged efficiency.
In industrial imaging, the choice between push-broom and traditional area-array cameras often hinges on one critical factor: how much you can see—and how clearly. While conventional cameras rely on fixed lenses to capture a static field of view (FOV), SpaceNavi’s push-broom technology reimagines wide-angle imaging through dynamic scanning, addressing the limitations of legacy systems head-on. Let’s break down the key differences in wide-angle degree, adaptability, and precision that make push-broom the smarter choice for demanding industrial applications.
The Static Limits of Traditional Area-Array Cameras
Most camera wide systems—even those labeled "wide-angle"—are bound by their lens geometry. A typical 24mm wide-angle lens on an area-array camera might offer an 84° FOV, but this comes with inherent trade-offs:
Distortion at the Edges: Curved lenses stretch pixels at the corners, causing geometric errors that skew measurements in applications like infrastructure inspection.
Fixed Zoom Angle: Changing the FOV requires swapping lenses, a cumbersome process that halts workflows and risks contamination in harsh environments.
Limited Panoramic Reach: Stitching multiple shots to create wide images introduces alignment errors, especially in fast-moving scenarios like drone mapping.
In contrast, SpaceNavi’s push-broom architecture eliminates these constraints by using a linear sensor to build images pixel by pixel as the camera moves, achieving ultra-wide camera capabilities that traditional systems can’t match.
How Push-Broom Redefines Wide-Angle Flexibility
1. Unlimited Effective Field of View Through Scanning
While a single frame from an area-array camera is confined by its lens, our push-broom sensors scan continuously, creating effective FOVs equivalent to 270°+ in traditional terms, without distortion. For example, at 500m altitude, our cameras capture 12 km-wide swaths in a single pass, compared to 2km for a typical wide-angle area-array setup. This seamless coverage is ideal for mapping vast sites like mining complexes or coastal ecosystems in record time.
2. Precision Control Over Zoom Angle
Built-in adaptive optics let operators adjust the zoom angle dynamically without changing hardware. Need a 150° FOV for broad-site planning? Or a 50° zoom for detailed tower inspections? SpaceNavi’s system maintains a consistent 0.5m ground sample distance (GSD) across all zoom levels, ensuring edge-to-edge sharpness whether you’re capturing a stadium or a single wind turbine blade. Traditional cameras either lose resolution when zoomed or require costly lens upgrades to achieve similar flexibility.
3. True Wide Angle Degree Accuracy
Unlike curved lenses that misrepresent wide-angle degree measurements at the edges, our linear sensor records each pixel in parallel, maintaining 1:1 geometric accuracy from the center to the far corners. This is critical for applications like autonomous vehicle mapping, where misrepresented angles could lead to dangerous navigation errors.
The Bottom Line: When Every Degree Counts
For Large-Area Mapping: Push-broom’s ultra-wide camera capability reduces flight time by 50% compared to stitching area-array shots, with zero alignment errors.
For Precision Inspection: Adjustable zoom angle lets you switch from 180° overview to 30° close-up in seconds, without compromising measurement reliability.
For Harsh Environments: No moving lenses means fewer failure points, making our cameras 30% more durable in dusty, wet, or high-vibration settings than modular area-array systems.
In industrial imaging, "wide-angle" shouldn’t mean "compromised precision." SpaceNavi’s push-broom technology delivers the best of both worlds: the expansive view of an ultra-wide camera and the metrological accuracy that traditional systems can’t achieve. When your work demands seeing further and seeing clearer, the choice is clear—choose a technology built for the width of your challenges.
Please provide specifications and pricing.
Võtke meiega ühendustRemote sensing thrives on seeing the big picture—with fine detail. A super wide angle Push‑broom camera does just that, capturing broad terrain in each pass while maintaining high ground resolution. This makes it especially cost-effective for large-area mapping, monitoring agricultural land, or tracking environmental phenomena.
By leveraging the line‑by‑line scanning approach, these systems avoid the geometric distortions that traditional frame cameras might introduce at the edges. That means more accurate wide panorama imagery, ideal for applications such as urban planning, disaster response, or infrastructure monitoring. It’s both expansive and trustworthy.
Organizations building a Satellite Platform can trust such a setup to deliver consistent, distortion‑free data across long swaths—great for applications demanding both wide zoom coverage and precise spatial integrity. It keeps the visual context clear while preserving practical accuracy.
A push-broom camera is designed specifically for linear image acquisition, making it a top choice for capturing expansive landscapes. Unlike frame-based cameras that take one image at a time, the push-broom system uses a continuous line of sensors to build an image line by line as the satellite moves forward. This scanning method eliminates stitching errors and geometric distortion, resulting in a flawless wide panorama.
Because the platform moves consistently, and the sensor collects continuous image data, there are no gaps between frames—this ensures structural accuracy in mapping terrain, coastlines, or large agricultural zones. Such smooth wide-area imaging is especially useful for cartographic applications where spatial precision is critical.
For agencies and private sector users requiring both detailed and panoramic satellite visuals, this camera type is unmatched. Paired with advanced optical design, it captures very high resolution images with uniform quality throughout the swath. Those in need of a proven remote sensing solution can explore options offered by SpaceNavi Co., Ltd., whose technology helps elevate panoramic imaging performance.
While the trend has been toward higher resolution, there’s also increasing demand for compact, miniature optical cameras that can provide camera wide or ultra wide camera capabilities. These smaller units are ideal for micro- and nano-satellites, allowing them to perform meaningful imaging without requiring a massive payload. When built with precision optics and advanced stabilization, these miniaturized systems can rival larger counterparts in image quality.
The benefit lies in flexibility. A constellation of small satellites equipped with wide panorama or super wide angle mini cameras can provide high revisit rates, ideal for dynamic monitoring of cities, coasts, or sensitive environmental regions. The reduced weight and power requirements make them affordable and fast to deploy, especially when rapid data turnaround is needed.
As satellite platforms become smaller and more agile, integrating high-performing miniature optical cameras becomes a smart strategy. For those looking to develop or source compact imaging systems, entities like SpaceNavi Co., Ltd.—with expertise across the satellite production chain—are well-positioned to deliver solutions that meet both technical and operational demands.
Carlos Mendieta
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