LENS DESIGN · INFRARED · ELECTRO-OPTICAL PERFORMANCE
Optical Design for UAV, Drone and Infrared Platforms
OptogonStudio creates precision lens designs for UAV, robotic, and space-based imaging. We optimize VIS, SWIR, MWIR, and LWIR optics by integrating sensor specs, spectral bands, thermal stability, and mechanical constraints into a single high-performance system, which is part of our comprehensive Optical System Design services.
UAV and Drone Camera Lens Design
We engineer UAV optics based on specific mission demands. By balancing sensor format, pixel size, FOV, and MTF against strict weight and volume limits, we deliver optical architectures perfectly suited for tactical platforms.
Expert sensor–lens matching converts raw detector resolution into superior system performance. Our drone optics are optimized for real-world environments and specific mechanical envelopes.
SWIR, MWIR and LWIR Infrared Lens Design
We develop advanced infrared optics for UAV and space systems. Our designs leverage specialized materials and wavelength analysis to optimize F-numbers, MTF, and thermal performance across the SWIR, MWIR, and LWIR bands.
SWIR Lens Design
SWIR optics optimized for detector response, spectral range, and compact footprints in UAV, robotic, and electro-optical systems.
MWIR Lens Design
MWIR systems designed for thermal stability and high image quality in airborne and electro-optical applications.
LWIR Lens Design
LWIR and thermal optics engineered for maximum detector resolution, athermalization, and tight mechanical envelopes.
Electro-Optical, UAV, Drone and Space Applications
UAV Camera Systems
SWIR UAV Cameras
Satellite Camera Systems
Custom lens design integrating detector specs, spectral bands, and mission-specific constraints into optimized imaging architectures.
Drone Camera Systems
MWIR Electro-Optical Systems
Spaceborne Imaging Systems
UAV Thermal Cameras
LWIR Thermal Imaging Systems
Electro-Optical Payloads
Drone Thermal Imaging
Robotic Imaging Systems
Compact EO Systems
Space and Satellite Imaging Optics
We engineer satellite optics for extreme thermal environments. VIS to LWIR architectures are optimized for mass, volume, and MTF, ensuring mission success in spaceborne applications.
Thermal Imaging Optics and Athermalization
We mitigate thermal drift by analyzing refractive index changes and material expansion. Using athermalization techniques, we maintain focus and image integrity across diverse operating temperatures.
We implement passive, optomechanical, or active focus solutions to meet rigorous thermal stability requirements.
Sensor–Lens Matching and Image Quality
We optimize the sensor and lens as a unified system. Analysis of CRA, Nyquist frequency, and image circles ensures our optics extract maximum performance from your selected detector.
This holistic engineering approach leverages the full spatial resolution and spectral sensitivity of the imaging sensor.
MTF, Distortion and Optical Performance
Performance is validated through MTF, distortion, and aberration analysis. For infrared bands, we apply spectral weighting and polychromatic MTF to ensure high-fidelity imaging.
Precision targets are benchmarked against detector capabilities and mission-critical performance standards.
Tolerance and Manufacturability
We design for production using Monte Carlo analysis and sensitivity studies. By optimizing element spacing and centering tolerances, we ensure high manufacturing yields and robust field performance.
Optomechanical Lens Development
Our team co-develops optical elements and housings. This integrated approach ensures alignment, vibration resistance, and thermal stability within a lightweight optomechanical frame.
