As the implementation of embodied intelligence accelerates, AI-specialized robots in various fields—including industrial inspection, emergency exploration, campus security, and underwater surveying—are entering a wave of large-scale mass production. Core operational functions such as autonomous navigation, environmental recognition, defect detection, and remote data transmission all rely on high-performance vision hardware as their underlying foundation. Currently, most robot manufacturers face significant challenges in adapting vision systems: incompatible protocols between zoom cameras and main control boards, degraded image quality when shooting at long distances, image distortion under complex lighting conditions, and high latency in multi-device coordination—these pain points severely limit the precision of autonomous robot operations and restrict their applicability across diverse scenarios. To address these challenges, Camore has launched a complete module featuring the CM8230DZ camera chip paired with the CM2001H control board. This integrated solution achieves deep synergy between imaging hardware and protocol-control hardware, directly tackling the key pain points in AI robot vision integration across various industries and providing a stable, high-definition, and easily adaptable perception hub for all types of intelligent robots.

1. CM8230DZ: A 30x optical zoom mechanism that lays a solid foundation for high-definition imaging at long distances by robots.

As the image acquisition terminal of the entire visual system, the CM8230DZ is equipped with a 1/2-inch CMOS image sensor offering native 2-megapixel full-HD resolution and comes standard with a 30x optical lossless zoom. It serves as the core hardware for long-distance observation by specialized robots. In scenarios such as pipeline inspections in industrial parks, high-altitude equipment surveys, and large-scale outdoor security patrols, robots can capture detailed images of critical information—including subtle equipment cracks, instrument readings, and safety signs—without needing to approach targets closely. The hardware features built-in wide dynamic range (WDR) and EX-SDI enhanced light-sensitivity technology, enabling it to automatically balance exposure levels in extreme lighting conditions, such as strong reflections from factory lights, dim lighting in underground tunnels, and backlighting during day-to-day transitions. This prevents overexposure and dark shadows, ensuring that AI algorithms can precisely identify object outlines in the captured images. The camera module supports high-frame-rate output at 60 fps, delivering smooth, lag-free video transmission that meets the dynamic capture requirements of high-speed mobile inspection robots. Its industrial-grade sealed housing provides excellent resistance to vibration and electromagnetic interference, allowing it to be continuously deployed on mobile robots around the clock—7 days a week—thus significantly reducing the failure rate of robots operating in outdoor and industrial environments. With a standardized body interface design, the device is compatible with various robotic pan-and-tilt mounts and fits snugly into the limited installation space inside robot bodies. Its lightweight design ensures minimal impact on the robot’s payload capacity, making it ideal for integration into small, portable, specialized exploration robots.

2. CM2001H Control Board: Fully compatible with the VISCA protocol, enabling seamless end-to-end control of robotic vision systems.

Simply having a high-performance camera module isn't enough to unleash its full potential. The CM2001H control board serves as the central hub for the entire module, and its key advantage lies in its comprehensive compatibility with the SONY VISCA standard protocol. It seamlessly integrates with various domestically produced HD cameras on the market, perfectly addressing the challenges of coordinating and adapting multiple camera devices in robotic systems. AI robots often come equipped with multiple visual devices to achieve panoramic monitoring, detailed image capture, distance measurement, and object recognition. The CM2001H can centrally manage all commands related to zoom, focus, image parameter adjustments, and pan-tilt movements of the CM8230DZ, enabling single-master control to synchronize and regulate multiple camera devices simultaneously. This simplifies both the internal circuit wiring and the software development process for robots. The board features integrated USB ports and multi-channel cable expansion interfaces, allowing direct connection to the robot’s embedded main controller. It provides low-latency signal forwarding, ensuring that zoom commands and image data are synchronized within milliseconds—eliminating any lag between the displayed image and the operator’s actions. Multiple industrial-grade processing chips perform layered computations, separating image processing from protocol translation tasks. This prevents a single chip from becoming overloaded and causing system slowdowns. The wide-voltage power supply design makes it compatible with various onboard power systems used in robots, including those powered by vehicle batteries or lithium batteries, ensuring stable operation even under conditions of high or low voltage fluctuations. It is particularly well-suited for specialized robots operating in remote environments without fixed power sources. Manufacturers no longer need to develop additional protocol conversion programs—simply plug in the camera module right out of the box to complete integration, significantly shortening the robot’s R&D and debugging cycle and reducing software development labor costs.

3. Dual-module collaborative adaptation for all-round compatibility with the diverse operational scenarios of AI robots.

When paired with the CM2001H, the CM8230DZ forms a closed-loop visual system that integrates data acquisition and control, covering the vast majority of AI robot deployment scenarios. An industrial inspection robot equipped with this module can perform fully automated equipment inspections in substations, chemical plants, and warehouse areas—enabling long-distance zoom-based identification of equipment faults while simultaneously transmitting image data and device coordinate information back to the control board. An outdoor security patrol robot, leveraging wide dynamic range imaging, ensures uninterrupted round-the-clock surveillance of campus perimeters; its multi-camera system is seamlessly coordinated without any adaptation challenges. A specialized emergency rescue robot, when deployed in tunnels or rubble sites with low-light conditions, uses high-definition imaging combined with stable control and remote zoom capabilities to locate trapped individuals from afar. Compared to standalone combinations of camera modules and control boards available on the market, Kaimorui’s complete module sets undergo factory-level collaborative debugging, with deep hardware-software parameter optimization that eliminates integration issues such as protocol conflicts or signal mismatches. Standardized mounting holes and unified power supply parameters allow robot manufacturers to directly scale production in a standardized manner, eliminating the need to separately modify structural and circuit designs for each component. This significantly reduces overall manufacturing costs and shortens delivery times. At the same time, Kaimorui offers customized hardware modification services, enabling adjustments to board interfaces and mounting accessories according to specific robot dimensions or unique communication requirements, making it ideal for developing niche research robots and custom-designed specialized exploration equipment.

4. A stable and long-term hardware solution to help robotics manufacturers achieve commercial deployment.

The commercial mass production of AI robots places stringent demands on hardware durability, supply-chain stability, and after-sales technical support. The Kaimor CM8230DZ and CM2001H are both manufactured using industrial-grade components and have undergone rigorous aging tests—including high- and low-temperature endurance, continuous vibration resistance, and prolonged power-on testing. As a result, these devices boast an average mean time between failures (MTBF) that significantly exceeds that of consumer-grade vision equipment, making them ideally suited for the year-round, non-stop operational requirements of commercial robots. The brand provides comprehensive technical development documentation and debugging routines, and its technical team offers end-to-end support throughout the robot integration and debugging process, swiftly addressing any issues encountered during adaptation and algorithm integration. In today’s increasingly competitive embodied intelligence landscape, the integration efficiency and imaging performance of visual perception systems directly determine the core competitiveness of robotic products. The Kaimor CM8230DZ + CM2001H complete vision module set features high-definition zoom imaging capabilities and full compatibility with the VISCA protocol control, enabling seamless software-hardware synergy and offering a one-stop solution to all challenges in AI robot vision development, integration, and mass production. Looking ahead, Kaimor will continue to iterate on its core image-sensing algorithms and expand the protocol capabilities of its control boards, constantly pushing the boundaries of environmental adaptability for robotic vision systems and empowering more AI robots in industries such as manufacturing, security, emergency response, and scientific research to achieve higher levels of autonomous perception and unmanned operations.