Hamamatsu Photonics develops cameras utilizing image sensor technologies such as sCMOS and TDI sensors. In addition, through more than 100 optical measurement simulations conducted annually, we have accumulated extensive expertise in optical measurement. Leveraging this experience and knowledge, we also apply our proprietary simulation engine to OEM camera development, enabling efficient selection of cameras optimized for specific customer applications.
Selecting the most suitable image sensor technology is a key step in OEM camera development. For example, when imaging large-area objects, it is important to evaluate whether a tiling approach using two-dimensional sensors such as sCMOS, or a line-scan approach using a TDI sensor, will deliver better sensitivity and throughput under the customer’s actual operating conditions. However, these evaluations typically require significant time and cost to build test environments, and when multiple candidate approaches are available, there is a risk that prototype development may also proceed before the optimal imaging method has been definitively identified. Using our simulation engine, sensitivity and throughput can be modeled for scenarios in which a customer’s target object is imaged with different sensor technologies, as shown in Figure 1. This reduces development time and cost while supporting informed selection of the most appropriate image sensor technology.
Fig. 1: Image simulation of sensitivity and throughput across primary sensors
Furthermore, even within the same image sensor technology, differences in characteristics such as quantum efficiency, pixel size, readout noise, and readout speed make the selection of an optimal sensor a time- and effort-intensive process. Our simulation engine supports comparisons within the same technology, contributing to the efficient narrowing down of image sensors best suited to specific customer applications. For example, in applications where sensitivity is a critical factor, the sensitivity performance of different image sensor technologies can be compared, as shown in Figure 2. In addition, if customers are already using third-party cameras, those cameras can be set as target specifications and included in comparative evaluations. For further details, please contact us.
Fig. 2: Image simulation of sensitivity variations within the same sensor type
Our Camera Simulation Lab* lets you try a simple web-based simulator. This tool allows you to view simulated images by selecting the sample type and imaging conditions.
* This tool differs from the actual simulation engine used in OEM camera development.
Based on customer requirements, we carry out camera enclosure design and thermal simulations of cooling mechanisms from the early stages of camera development. After assessing the customer’s operating environment and requirements, we incorporate analysis results, such as temperature distribution and thermal fluid behavior, into the mechanical design to optimize performance, cost, and camera size from the outset of OEM camera development.
Fig. 3: Temperature distribution analysis
Fig. 4: Thermal fluid analysis
A routine camera with a back-illuminated sCMOS sensor. Although it is a routine model, it offers high sensitivity and resolution, as well as a wide field of view and low readout noise.
The C11440-52U30 is a camera equipped with a sCMOS image sensor based on the latest technology, achieving low noise, high resolution, and high-speed readout simultaneously. Its compact, OEM-ready board-level design makes it suitable for a wide range of applications, including embedded system integration.
InGaAs cameras fill the gap between NIR wavelengths in the 950-1700 nm range, where silicon detectors are no longer sensitive. Our products capture images with QVGA to SXGA resolution and our extensive experience with InGaAs sensors allows us to offer cameras with exquisite image contrast and quality.
The C12849-111U is a high resolution and high sensitivity X-ray sCMOS camera. The camera's high resolution of 33 lp/mm makes it ideal for X-ray imaging of micro objects. Its compact size makes it suitable for embedding into systems such as micro X-ray CT systems.
TDI-CCD captures clear, bright images even in low-light conditions. In TDI mode, the CCD captures an image of a moving object while synchronously transferring integrated signal charges, greatly increasing sensitivity for high-speed imaging. Its back-thinned structure also delivers high quantum efficiency across a wide spectral range from UV to near IR (200 to 1100 nm).
Optical devices comprised of a bundle of micron-sized optical fibers. Used as an alternative of a lens to transmit light or an image with high efficiency and low distortion. Ideal when designing and building compact optical devices.
FOS fiber optic plates with a CsI scintillator feature an x-ray shield and low energy x-ray detection. Suitable for applications such as mammography, and medical and industrial imaging.
Fairchild Imaging is a semiconductor manufacturer specializing in high-performance CMOS image sensors for the visible to near-infrared and X-ray spectral ranges, and possesses advanced CMOS image sensor design technologies with exceptionally low-noise performance. With Fairchild Imaging becoming a member of the Hamamatsu Photonics Group, the combination of Fairchild Imaging’s technologies with Hamamatsu Photonics’ existing capabilities has established a framework that enables flexible responses to a broader range of customer requirements. By delivering products and solutions with greater added value than ever before, we will continue to contribute to our customers’ innovation.
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