Visible and UV camera modules (OEM)
Compact imaging cores for OEM integration
Our visible and UV camera modules are compact imaging cores designed to give engineers a flexible starting point for building their own vision systems. From industrial inspection and robotics to scientific imaging and specialist detection, they provide the core imaging technology needed to capture reliable visual data and integrate it into a larger system.
The right camera depends on what you need your system to achieve. Factors such as resolution, sensor type, shutter, frame rate, optical configuration, spectral response, interface, and operating environment can all influence the final choice.
Our portfolio includes options such as high-resolution sensors, global and rolling shutter configurations, and digital interfaces including USB, MIPI, and GigE. For UV applications, specialised sensors, optics, and filtering provide the spectral sensitivity needed to capture information that conventional visible cameras cannot.
Rather than simply choosing the camera with the highest specification, it is important to consider how the camera will work as part of the complete imaging system. The optical design, processing requirements, available bandwidth, lighting conditions, mechanical constraints, and environment can all affect performance and integration.
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Technical overview
Visible and UV camera modules are designed as compact, integration-ready subsystems that bring together key imaging components such as the sensor, optics, and processing. Although the different camera types may look similar, they are built to address very different engineering requirements.
Visible camera modules are the most versatile option for general-purpose imaging. Typically using fixed optics, they offer a balance of image quality, compactness, and straightforward integration across a wide range of applications.
Visible zoom block cameras incorporate motorised optics, allowing the field of view and magnification to be changed remotely. They are well suited to systems where the ability to view objects at different distances or levels of detail is important.
FPV cameras are designed with speed in mind. Their streamlined signal paths minimise latency between the scene and the operator, making them a strong choice for drones, robotics, remote operation, and other applications where an immediate live view is critical.
UV camera modules extend imaging beyond the visible spectrum. Using sensors and optics optimised for ultraviolet wavelengths, they can reveal features such as fluorescence, surface contamination, corona discharge, or other phenomena that are difficult or impossible to detect with standard visible imaging.
These differences are not simply variations in specification. Each camera type represents a different approach to solving an imaging problem — whether that means keeping a system compact and simple, adding optical flexibility, reducing video latency, or detecting information outside the visible spectrum.
Finding the right camera for your application
Choosing the right camera starts with understanding the system rather than the specification sheet. Consider what you need to see, how quickly you need to see it, how the camera will be integrated, and the conditions in which it will operate.
Our in-house imaging specialists can help you work through these requirements and identify the most suitable technology from our portfolio. Where an off-the-shelf camera does not provide the right combination of performance, interface, optics, or environmental capability, we can also work with our camera partners to develop a solution around your specific requirements.
Together, these technologies provide the building blocks for developing reliable, high-performance imaging systems tailored to the needs of your application.
Key selection factors
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Imaging objective (general vs specialised): Visible camera modules are ideal for standard imaging tasks, while UV camera modules are designed for spectral-specific applications such as fluorescence imaging, material analysis, and surface inspection.
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Field-of-view flexibility: Visible zoom blocks provide adjustable focal lengths for applications requiring variable coverage, whereas fixed-lens modules prioritise simplicity, compactness, and stability.
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Latency requirements: FPV cameras are preferred where real-time response is critical, delivering significantly lower latency than conventional processed imaging systems.
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Optical and mechanical complexity: Fixed camera modules are typically simpler to integrate, while zoom systems introduce additional mechanical components, control requirements, and calibration considerations.
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Interface and data handling: Different module types place varying demands on bandwidth and processing resources. High-resolution or multi-stream imaging can quickly increase system complexity if data handling requirements are underestimated.
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Environmental and spectral constraints: UV imaging systems require specialised optics, coatings, and controlled illumination conditions to maintain accuracy, while visible imaging systems generally offer greater flexibility across lighting environments.
Whether you’re developing an industrial inspection platform, an embedded vision system, or a specialist spectral imaging application, selecting the right camera architecture is critical to achieving reliable, high-quality imaging performance from concept through to deployment.
FAQ’s
They are used as embedded imaging components in systems ranging from industrial automation to scientific analysis. Visible modules provide general imaging, while UV modules enable specialised inspection tasks. They are designed for integration into OEM systems.
The key difference is optical flexibility:
- Visible camera modules: fixed optics, simpler integration
- Visible zoom blocks: variable focal length, higher complexity The choice depends on whether adjustable field of view is required.
FPV cameras are preferred when low latency and real-time response are critical. Visible camera modules are better suited for applications where image quality and processing are more important. The decision depends on system priorities.
Integration complexity varies by subtype. Fixed visible modules are relatively straightforward, while zoom blocks and UV systems introduce additional challenges. Proper system design helps manage these differences.
Typical trade-offs include:
- Flexibility vs simplicity (zoom vs fixed)
- Latency vs image processing (FPV vs standard modules)
- Spectral capability vs integration complexity (UV vs visible)
These influence overall system design.
Yes, multi-camera systems often combine visible, UV, or low-latency modules. This enables complementary imaging capabilities. The trade-off is increased system complexity and integration effort.
Typical issues include:
- Choosing the wrong module type for the application
- Ignoring interface and bandwidth requirements
- Underestimating optical and environmental constraints
These can lead to suboptimal system performance if not addressed early.