Which industrial camera is best suited for medical technology applications?

In diagnostic applications, cameras support the acquisition, documentation, and evaluation of visual information. Depending on the diagnostic application, different requirements may take priority. While high detail resolution and true-to-life color reproduction are important in dermatology or ophthalmology, high frame rates or low latency may additionally be required for motion analysis or image-guided examination systems.

Camera families such as uEye CP, uEye ACP, and uEye XCP are suitable for many diagnostic applications. They offer different designs and integration options as well as a wide selection of sensors and interfaces. This allows them to be flexibly integrated into medical devices and diagnostic systems. Choosing the appropriate camera family depends on factors such as image quality, size, interface and system architecture.

The choice of image sensor also plays an important role. Sony STARVIS 2 sensors offer high light sensitivity, low image noise and an extended dynamic range. These properties can be particularly advantageous in applications with limited ambient light or high contrast differences. Models with STARVIS 2 sensors are available today in various IDS camera families, including uEye XCP, uEye LE as well as selected variants of uEye CP, uEye ACP and uEye SE.

Depending on the diagnostic task, however, other sensor technologies can also be useful. Applications with moving objects, high frame rates or special requirements for geometric accuracy sometimes benefit from global shutter sensors or camera models designed specifically for these tasks.

The requirements in ophthalmology are among the highest within medical imaging. Applications such as retina screening systems or slit lamps must reveal the finest anatomical structures and reproduce colours as natural as possible.

The uEye CP, uEye SE and uEye XCP camera families are suitable for ophthalmological systems. Their high resolutions capture the finest vascular and tissue structures in great detail. They offer a large sensor selection as well as different interfaces for integration into medical devices. Depending on the lighting situation, STARVIS 2 sensors can offer advantages due to their high light sensitivity, extended dynamic range and low image noise. The compact design is suitable for space-critical medical devices. The board-level cameras of the uEye SE family can be integrated into medical devices with particular flexibility.

Endoscopic systems place special demands on size, heat generation, light sensitivity and ease of integration. Compact camera models such as uEye LE or custom-configurable variants of the uEye ACP family are particularly suitable for such applications. Depending on the system architecture, models from the uEye XCP series can also be used. Sensors with high light sensitivity and extended dynamic range support detailed imaging even in limited ambient light or strongly varying brightness conditions.

In laboratory automation, cameras are used to detect, sort and inspect samples. The uEye CP and uEye ACP provide high image quality and reliable color reproduction for this purpose. The fast USB 3 data transmission enables rapid image acquisition and evaluation.

In microscopic examinations, cells, tissues and other structures are displayed magnified. The high image quality of the uEye CP and uEye ACP supports detailed analysis. In particular, cameras with the high-resolution, square Sony IMX676 sensor are suitable for microscopy applications, as they can capture a large field of view with high detail accuracy. Reliable color reproduction makes it easier to distinguish between different structures.

Digital pathology enables the analysis of tissue samples directly on the screen. With whole slide imaging, microscope slides are digitized automatically. For systems with very high resolutions and high data throughput, models from the uEye Warp10 family can be a suitable solution. The 10GigE interface enables the transmission of large volumes of image data with low latency. Whether a global shutter sensor is required depends on the scanning method and the motion characteristics of the system.

In diagnostic applications, cameras support the acquisition, documentation, and evaluation of visual information. Depending on the area of application, different requirements may be of primary importance. While high detail resolution and true-to-life color reproduction are important in dermatology or ophthalmology, high frame rates or low latency may additionally be required for motion analysis or image-guided examination systems.

Camera families such as uEye CP, uEye ACP, and uEye XCP are suitable for many diagnostic applications. They offer different designs and integration options as well as a wide selection of sensors and interfaces. This allows them to be flexibly integrated into medical devices and diagnostic systems. The selection of the suitable camera family depends, among other things, on the requirements for image quality, size, interface and system architecture.

The choice of image sensor also plays an important role. Sensors of the Sony STARVIS 2 family are characterized by high light sensitivity, low image noise and an extended dynamic range. These properties can be particularly advantageous in applications with limited ambient light or high contrast differences. Models with STARVIS 2 sensors are available today in various IDS camera families, including uEye XCP, uEye LE as well as selected variants of uEye CP, uEye ACP and uEye SE.

Depending on the diagnostic task, however, other sensor technologies can also be useful. Applications with moving objects, high frame rates or special requirements for geometric accuracy sometimes benefit from global shutter sensors or camera models designed specifically for these tasks.