Every great camera starts on paper. At GNO-SYS, we believe that designing advanced imaging systems begins with first principles: understanding the end goal and building every component to serve that purpose.
In this case with IO Aerospace, the goal was clear: wide-area, high-resolution coverage from high altitude. Achieving that required designing a system capable of delivering consistent 10 cm imagery while maintaining stability, precision, and efficiency.
Rather than adapting existing designs, we started from the fundamentals, analyzing flight dynamics, vibration environments, and sensor geometry to define what the system needed to achieve. From there, we modeled how a single optical sensor could perform at altitude to test parameters such as ground sample distance (GSD) and signal performance. Each test informed the next design iteration, allowing the system to expand and scale with confidence.
Beyond the optical system itself, we developed designs for the supporting infrastructure that makes precision imaging possible. This includes the onboard computer, software, and data storage architecture, as well as integrated power distribution, positioning, and timing systems. Each component was engineered to work together, ensuring reliable synchronization and data integrity during flight operations.
This process is more than a design exercise. By starting with the imaging outcome in mind, we build systems that integrate seamlessly with aircraft and deliver the clarity and consistency required for advanced remote sensing missions.
Develop: Engineering for the Sky
Once the design is set, our team gets to work. Our engineers move from schematics to prototypes, mounting cameras, assembling hardware, and building custom mounting plates designed for the unique dynamics of high-altitude flight. We integrate control mechanisms and motors, connect power and data systems, and run vibration tests to ensure stability at jet speeds.
Every component is part of a larger system. The camera control software communicates directly with the sensor, sending precise instructions about how and when to fire, while the data systems ensure each image is logged and traceable. On top of that, we created mission planning software specifically for our jet and camera configuration, because none of the existing platforms could meet our operational needs.
This mission planning software optimizes flight lines and area coverage for maximum efficiency. It can process any shape or size of Area of Interest (AOI) and calculate the most effective way to capture full coverage. The resulting flight plans are then seamlessly integrated into the aircraft’s onboard systems, ensuring that every image captured is in the right place, at the right time.
From aligning lenses and calibrating sensors to developing the software that brings it all together, this is where engineering meets the sky.
This is where theory meets turbulence. We install the camera into IO Aerospace’s modified Learjet 35 and put it through vibration testing, power integration, and live data transfer checks.
During testing, we realized that vibration would be more of a challenge than we originally thought. Testing an optical camera in simulated environments on the ground is not the same as in-flight operations. We had to go back to the drawing board to design a system that provided greater stabilization for the camera during flight without adding significant complexity.
With added stabilization, IO Aerospace conducted a series of test flights close to home – our pilot project and proving ground. As the first images came in, we began optimizing the camera specifications: adjusting shutter speed to match flying height and speed, fine-tuning color processing, and streamlining in-flight operations.
Each iteration brought the system closer to readiness, bridging the gap between design intent and airborne performance, right in our own backyard.
The camera now delivers crisp, location-accurate imagery that’s driving wide-area mapping and vegetation management projects, including recent work for Manitoba Hydro. Each flight feeds new insight back into the engineering process, pushing the boundaries of what aerial imaging can do.
At GNO-SYS, we help transform that imagery into value. Data from systems like this integrate seamlessly into GNOde, where they can be stored, indexed, and analyzed at scale. Our team builds automated, cloud-native data pipelines that move information from raw capture to refined product, supporting large-scale mapping, environmental monitoring, and infrastructure management.
By combining advanced imaging hardware with scalable data systems, we help our partners like IO Aerospace turn innovation in the air into actionable intelligence on the ground, especially for industries like utilities who use wide-area mapping.
Design: The Blueprint for High-Altitude Imaging Every great camera starts on paper. At GNO-SYS, we believe that designing advanced imaging systems begins with first principles:
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