The Bolt-1335CRA is an AR1335 Color Autofocus MIPI CSI-2 Camera built on the Onsemi AR1335 sensor, and Vadzo is positioning it with the RK3588 Rockchip processor for pathology imaging in medical and life science applications. Pathology devices judge tissue by color and detail, and they photograph specimens, slides, and labels that sit at different heights and distances. A fixed lens must be refocused by hand each time, and a camera with weak color processing changes what a reviewer sees. As a 13MP Autofocus MIPI CSI-2 Camera, the Bolt-1335CRA focuses automatically from 100mm to infinity with a voice coil motor, finishes the image in an on-board ISP, and connects through 2-lane or 4-lane adapter boards. It supports the RK3588 and the NVIDIA Jetson Orin Nano, Orin NX, and AGX Orin platforms, so an instrument maker can choose compute separately from the camera. Designed for device makers building pathology and life science instruments, it supplies sharp, consistently colored images without manual focus.
FORT WORTH, TX / ACCESS Newswire / October 22, 2026 / Vadzo Imaging, a provider of embedded vision camera products for OEMs and system integrators, today positions the Bolt-1335CRA as an AR1335 Color Autofocus MIPI CSI-2 Camera for pathology imaging in medical and life science applications. Built on the Onsemi AR1335 sensor and part of Vadzo’s MIPI camera portfolio, the Bolt-1335CRA combines VCM autofocus from 100mm to infinity, an on-board ISP, and two adapter board variants, and it supports the RK3588 Rockchip processor and the NVIDIA Jetson Orin family. With this positioning, Vadzo presents a 13MP RK3588 MIPI CSI-2 Camera for digital microscopes, specimen imaging, and laboratory instruments, together with guidance on where its focus range fits and where microscope optics are required.
Why an AR1335 Color Autofocus MIPI CSI-2 Camera Suits Pathology Applications
Pathology depends on images that reviewers can trust. A stained section, a gross specimen, and a slide label all have to appear in the color and detail that a person would see at the bench, because a shift in color or a soft focus can change how a sample is read. Instruments that capture those images must also work for the people who operate them every day. Operators load slides of different thickness, place specimens at different heights, and move between objects of different sizes, and they do not want to refocus a lens by hand each time. Every manual step also adds a chance for variation between operators.
Fixed focus lenses fit this poorly. A lens set for one distance gives sharp images at that distance and soft ones at every other. Manual focus adds a step to every capture and introduces variation between operators. Autofocus solves the problem, but it comes with its own requirements. The focus mechanism must be reliable over thousands of cycles; it must settle quickly, and it must cover the range of distances the instrument actually needs. A camera that advertises autofocus without stating the range leaves the designer unsure whether it will cover the specimens in question. Designers need the range stated plainly, along with how the mode behaves while the subject moves.
Color is the second concern. Raw sensor data is not a finished image. It needs demosaicing, color correction, gamma, and noise reduction before it looks natural, and the quality of that processing decides whether stains look correct. If the processing happens on the host, every host platform may produce slightly different color unless it is tuned for the sensor. Instrument makers who plan to use more than one compute platform face this problem directly, and the problem grows when a product line spans several price points.
Compute choice completes the picture. Instrument makers increasingly add on-device analysis, and they choose between platforms such as the RK3588 and the NVIDIA Jetson family on cost, software ecosystem, power, and performance. A camera that works with only one of them narrows that choice. Teams that discover these limits late must change the camera, the host, or both after the instrument design is nearly complete, which is expensive in regulated product development. Choosing a camera that works across platforms at the start keeps those options open.
AR1335 Autofocus MIPI CSI-2 Camera: Focus, Color, and Platform Compatibility
The Bolt-1335CRA is built on the Onsemi AR1335, a 13MP (4208 x 3120) color rolling shutter sensor with a 1/3.2 inch optical format and 1.1 micron pixels. The module adds a voice coil motor autofocus assembly with a focus range from 100mm to infinity. The autofocus supports continuous, one-shot, and manual modes, so the design lets the camera track a moving specimen, focus once on command, or hold a chosen distance. This makes the module a 4K Autofocus MIPI Camera and a 13MP Autofocus MIPI CSI-2 Camera that stays sharp across the working distances of a benchtop instrument. A 13MP frame also leaves room to crop to a region of interest while keeping useful detail.
An on-board ISP finishes the image inside the module. It performs debayering, demosaicing, color correction, contrast correction, gamma correction, denoising, and lens corrections, and it supports auto exposure and auto white balance. Because that processing is part of the camera, the color behavior is the same on every host. That matters for an instrument maker who prototypes on one platform and ships on another, since the image reaching the analysis software does not change when the processor does. Teams that need raw data and custom tuning should discuss a raw sensor module with Vadzo. For most instruments, a finished image from the first day shortens the path to a working prototype.
The module connects through an adapter board, available in two variants, one for 2-lane MIPI CSI-2 and one for 4-lane. The 2-lane variant suits hosts with a simple camera connector, and the 4-lane variant provides the bandwidth for 4K video and full-resolution capture. Vadzo supports the RK3588 Rockchip processor and the NVIDIA Jetson Orin Nano, Orin NX, and AGX Orin platforms. The connector on each carrier board determines which adapter fits, and Vadzo helps teams match them. Planning the connector choice early also lets the carrier board and the cable routing be designed once.
Scope deserves a candid note. A 100mm minimum focus distance and a 13MP sensor behind a standard lens suit specimen photography, slide label and barcode capture, overview images of a slide, and the camera port of a digital microscope with suitable adapter optics. Whole slide scanning at diagnostic magnification relies on microscope objectives and precision stages, which a general-purpose camera module does not replace. Vadzo helps teams decide where the module fits in an instrument, and the device maker remains responsible for performance claims and the regulatory pathway of the finished device. Vadzo supports that work with evaluation units and engineering guidance.
Image consistency also depends on the rest of the optical and lighting setup, and Vadzo encourages teams to treat the camera as one part of that system. Stain color shifts with the color temperature of the light source, so the instrument should use a stable, controlled illuminator and should lock white balance for repeatable captures where the lighting does not change. Glare from glass slides and wet specimens can be reduced with polarizing filters or by adjusting the angle of the light. A lens with low distortion helps measurements, and a lens hood or enclosure keeps stray light away from the sensor. These choices are the instrument maker’s to make, and Vadzo can advise on lens selection, filters, and enclosure design so that the camera’s finished output reaches the reviewer unchanged.
Product Overview
The Bolt-1335CRA is a 13MP color MIPI module built on the Onsemi AR1335 sensor and positioned for pathology imaging with the RK3588 Rockchip processor. As a 13MP Autofocus MIPI CSI-2 Camera, it is built for device makers who need sharp color images of specimens at different distances without manual focus. The module combines the sensor, an on-board ISP, and a VCM autofocus lens assembly, and it connects over a 2-lane or 4-lane adapter board. As a 4K Autofocus MIPI Camera, it delivers 4K and full-resolution frames with automatic focus, and as a 4K Rolling Shutter MIPI Camera, it offers high resolution at reasonable cost for scenes that do not move quickly. The AR1335 On-board ISP MIPI Camera designation covers the finished image processing inside the module. The module also serves as an AR1335 Rolling Shutter Camera Module and a 4K On-board ISP MIPI Camera for designs that need a standard MIPI interface.
Key specs: 13MP (4208 x 3120) Max Resolution | Onsemi AR1335 1/3.2 inch Sensor Format | 1.1 micron Pixel | Color with Rolling Shutter | 2 Lane and 4 Lane MIPI CSI-2 Interface | VCM Autofocus Optics, 100mm to Infinity
Key Specifications of the AR1335 Color Autofocus MIPI CSI-2 Camera
VCM Autofocus from 100 mm to Infinity for Laboratory Imaging
Specimens, slides, and labels sit at different distances, and a fixed lens cannot serve them all. The voice coil motor moves the lens quickly and electrically across a focus range from 100mm to infinity, so the camera can refocus as the subject changes. The autofocus offers continuous, one shot, and manual modes, which lets a designer choose between tracking, a single focus on command, or a fixed distance. At close range, the depth of field is shallow, and the 13MP sensor resolves any error, so Vadzo recommends testing focus repeatability at the real working distances of the instrument. A test chart placed at several distances shows quickly how the focus behaves across the range.
On-board ISP for Consistent Color Processing
The on-board image signal processor turns raw data into a finished color image inside the module. It performs debayering, demosaicing, color correction, contrast correction, gamma correction, denoising, and lens corrections, and it applies auto exposure and auto white balance. Because the processing travels with the camera, stains and specimens look the same on every host, and the instrument maker does not tune an ISP for each platform. Manual control of exposure, gain, and white balance remains available for instruments with fixed lighting. Stain color is also sensitive to the illumination, so the light source should be chosen and held constant alongside the camera settings.
NVIDIA Jetson Orin Platform Compatibility
Instrument makers that want GPU-based analysis can use the module on NVIDIA Jetson Orin Nano, Orin NX, and AGX Orin, which run from compact to high-performance designs. The Bolt-1335CRA 13MP NVIDIA Jetson MIPI Camera Module connects through the MIPI CSI-2 interface, and Vadzo supports adapter selection for each carrier board. The same module serves as an NVIDIA Jetson Orin Nano Camera, NVIDIA Jetson Orin NX Camera, and NVIDIA Jetson AGX Orin Camera, which lets a team scale compute without changing the camera. It also works as a 13MP Jetson MIPI CSI-2 Camera and an AR1335 Jetson MIPI CSI-2 Camera in designs that start on a development kit. Teams can validate the camera once and reuse that work across several carrier boards.
Rockchip RK3588 Processor Compatibility for MIPI Camera Integration
The RK3588 is a popular choice for cost-sensitive instruments that still need on-device analysis. Vadzo supports the module on the RK3588, so it works as an AR1335 RK3588 MIPI Camera and a 4K Rockchip MIPI Camera from the first day of evaluation. Because the camera outputs a finished image, the RK3588 does not need a host ISP profile for the sensor, which saves tuning time that would otherwise go to the instrument’s own software. Teams can compare the RK3588 and the NVIDIA Jetson family on cost, power, and software, and keep the same camera for either. A short trial with the real analysis workload on each board usually settles the choice.
2-Lane and 4-Lane MIPI CSI-2 Adapter Board Options
The module is a two-board solution, with the camera board and an adapter board, and the adapter board comes in two variants, one for 2-lane MIPI CSI-2 and one for 4-lane. The 2-lane variant suits hosts with a simple camera connector and keeps wiring easy. The 4-lane variant carries more data, which supports 4K video and full-resolution capture. Teams choose the variant that matches their carrier board connector and the frame rate they need, and they can change it later without changing the camera board, which protects the investment in lens and enclosure design. The frame rates available depend on the lane count, so teams that need the highest rates should plan for the 4-lane variant.
Pathology Imaging Applications in Medical and Life Sciences
Digital Microscope Camera Integration for Pathology
Digital microscopes pair a camera with adapter optics so that a reviewer can see a sample on a screen. The Bolt-1335CRA works as a Digital Pathology MIPI Camera at the camera port of such a microscope, where its autofocus covers the small changes in distance between samples and its color processing keeps stains consistent. The magnification and the field of view come from the microscope optics, and Vadzo can help teams match the sensor to the adapter. Teams should confirm the image circle of the adapter optics so that the full sensor area is used, and they should check that the adapter does not vignette the corners of the 13MP frame.
Specimen and Gross Examination Imaging
Gross specimens are photographed at working distances of a few centimeters to a few tens of centimeters, with sizes that vary from one case to the next. The module serves as a Pathology Imaging MIPI Camera for these bench stations, where autofocus removes the manual step, and 13MP resolution captures fine surface detail. Consistent color helps reviewers compare cases and keep records that look the same over time. Fixed illumination around the specimen helps further, since it keeps color steady between captures, and a neutral gray background makes color comparison between cases easier.
Slide Label, Barcode, and Overview Image Capture
Slide scanners and slide handling systems capture labels, barcodes, and low-magnification overview images of each slide. As a Whole Slide Imaging MIPI Camera in a supporting role, the Bolt-1335CRA reads labels and barcodes sharply at the close focus range and provides the overview that guides scanning. High magnification scanning of the tissue itself relies on microscope objectives and precision stages, and device makers remain responsible for the performance of the complete scanner. Labels printed on glossy or curved surfaces benefit from the autofocus and from steady lighting, and a polarizing filter can cut reflections from glass.
MIPI Cameras for Life Science Laboratory Instruments
Life science instruments such as colony counters, gel imagers, and sample handling systems use camera modules to document and analyze samples. The module functions as a Life Science MIPI Camera and as a Medical Imaging MIPI Camera in those instruments, where a compact board, automatic focus, and finished color make integration straightforward. Device makers remain responsible for performance claims and the regulatory pathway of the finished instrument. Lab automation makers also gain from a single camera that works on more than one compute platform.
Frequently Asked Questions
Q: Can a 13MP autofocus MIPI camera be used in digital pathology?
A: Yes, in supporting roles and in microscope camera ports. Vadzo Imaging suggests it for specimen photography, slide label and barcode capture, overview images, and the camera port of a digital microscope with suitable adapter optics. Whole slide scanning at diagnostic magnification relies on microscope objectives and precision stages, which a general-purpose camera module does not replace. Vadzo Imaging helps device makers decide where the module fits, and the device maker remains responsible for performance claims and the regulatory pathway. A Digital Pathology MIPI Camera of this kind is most useful when its role in the instrument is defined clearly.
Q: Why does a focus range from 100mm to infinity matter in a laboratory instrument?
A: Samples sit at different distances, and a lens fixed at one distance is sharp only there. A voice coil motor autofocus that covers 100mm to infinity lets one camera focus on a label a few centimeters away and on an overview of a benchtop at a longer distance. Vadzo Imaging recommends testing focus repeatability at the real working distances of the instrument, because depth of field is shallow at close range. A 13MP Autofocus MIPI CSI-2 Camera with this range replaces a manual focus step in many benchtop designs.
Q: Should a pathology device use the Rockchip RK3588 or an NVIDIA Jetson board?
A: The choice depends on cost, power, software, and performance. The RK3588 suits cost-sensitive instruments that need on-device analysis, and the NVIDIA Jetson Orin family suits designs that rely on GPU software and a wider performance range. Vadzo Imaging supports both with the same camera module, so teams can compare them on their own workload without changing the camera. A short trial on each board gives the clearest answer. A 4K Rockchip MIPI Camera setup and an NVIDIA Jetson MIPI Camera Module setup can use the same optics and the same test samples.
Q: What do 2-lane and 4-lane adapter boards change?
A: They change how much data the camera can send to the board. A 2-lane adapter suits hosts with a simple connector and keeps wiring easy, while a 4-lane adapter carries more data, which supports 4K video and full-resolution capture at higher frame rates. The correct adapter depends on the connector on the carrier board. Vadzo Imaging offers both variants and helps teams match the adapter to their board, so the camera can stay the same if the board changes. That flexibility matters when a Pathology Imaging MIPI Camera design must move to a new processor during a product’s life.
Q: Why should instrument makers choose Vadzo Imaging as their 4K MIPI Camera Manufacturer for pathology and life science devices?
A: Vadzo Imaging offers more than a camera module built around a capable sensor. Instrument makers working with Vadzo Imaging receive a module with voice coil autofocus, an on-board ISP, support for the RK3588 and the NVIDIA Jetson Orin family, and two adapter board variants, along with candid guidance on where a 13MP camera fits in a pathology instrument and where microscope optics are required, plus engineering support for lens selection, firmware customization, and enclosure design. Vadzo Imaging maintains evaluation kits with no minimum order requirement, so teams can test on their own instrument before committing to volume production.
Availability
The Bolt-1335CRA AR1335 Color Autofocus MIPI CSI-2 Camera built on the Onsemi AR1335 sensor is available now for evaluation and production orders. Evaluation kits include the camera module, the 2-lane or 4-lane adapter board, and platform documentation, with no minimum order requirement. Instrument teams can test autofocus at their own working distances, compare color on their own specimens, and confirm streaming on the RK3588 or an NVIDIA Jetson Orin board before committing to a production bill of materials, which tells them more than a datasheet comparison alone. Teams that need a different lens or adapter configuration can ask Vadzo to review the setup. Evaluation also lets teams check how quickly autofocus settles between specimens of different heights and how stain colors look with their own illuminator, which are the questions that matter most in a pathology workflow. Browse the full range of MIPI camera options at Vadzo’s website or contact Vadzo at support@vadzoimaging.com to request an evaluation unit or discuss OEM integration requirements for pathology and life science programs.
About Vadzo Imaging
Vadzo Imaging is a global provider of embedded vision solutions and delivers high-performance camera technologies and imaging platforms for applications in robotics, industrial automation, UAVs, edge AI, and medical systems. Its products are designed for seamless integration with leading embedded platforms including NVIDIA Jetson, Rockchip, Raspberry Pi, and NXP i.MX. Vadzo supports customers through hardware customization, firmware development, and module-level drivers, enabling faster development and deployment of vision-based systems across MIPI, USB, GigE, Wi-Fi, and SerDes camera interfaces.
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Vadzo Imaging
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