Amid the trend of medical endoscope diagnosis and treatment evolving toward "high precision, three-dimensionalization, and intelligence," endoscope camera modules, as the "visual core" of the equipment, their technological breakthroughs directly determine the accuracy of diagnosis and treatment as w
On April 8th, the 91st China International Medical Equipment Fair (CMEF) opened at the National Exhibition and Convention Center (Shanghai). Shenzhen SonoScape Medical made a grand appearance with a series of smart endoscope innovations, including the debut of its new-generation smart endoscope plat
Recently, the news that the Second Affiliated Hospital of University of South China completed a high-difficulty skull base minimally invasive surgery using Karl Storz’s 4K ultra-high-definition (UHD) endoscope system has once again brought high-end endoscope technology into the industry spotlight. A
Medical imaging devices are becoming smaller, smarter, and more integrated than ever.
Across many regions of the world, especially in developing countries and isolated communities, access to advanced medical diagnostics depends on how effectively local clinics can connect with remote specialists.
Advances in medical imaging are redefining what surgeons can achieve during minimally invasive procedures.
In modern clinical practice, imaging precision defines treatment accuracy. Choosing the right Medical Endoscope determines how well surgeons and diagnosticians visualize tissue structures, identify abnormalities, and perform minimally invasive procedures safely.
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As a core tool in modern dental diagnosis and treatment, the performance of oral endoscopes directly depends on the technical level of their core component—the camera module. The OCH2B30 camera module launched by OmniVision Group in 2024 (with ultra-small size of 2.6mm×2.6mm, 2-megapixel resolution,
As the core optical component of an endoscope camera module, the lens's protective performance directly determines imaging stability and equipment service life. In scenarios pursuing miniaturization (e.g., lenses with a diameter of 1.5mm), adding a steel shell restricts spatial adaptability. Thus, a
As a key tool in dental diagnosis and treatment, dental endoscopes need to achieve high-definition imaging in the narrow spaces of the oral cavity (such as the posterior dental region and gingival sulcus), while meeting the requirements of frequent disinfection, flexible operation, and medical compl
As a key tool in dental diagnosis and treatment, dental endoscopes need to achieve accurate detail capture (such as early dental caries and plaque detection) in the narrow, low-light oral environment, while meeting requirements for ergonomic operation, medical compliance, and adaptability to diagnos
As a professional platform focused on robotic surgery team training, the VirtaMed RoboS Simulator derives its core value from creating a highly realistic simulation environment that enables seamless transition from skill training to clinical application. The endoscope imaging system, as the core car
Separated endoscope camera modules, characterized by the independent layout of "lens - DSP board", are widely used in scenarios such as medical minimally invasive procedures and industrial narrow-space inspection. The connection method between the lens and the DSP board directly affects the module’s
In the design of separated endoscope camera modules, the connection method between the lens and the DSP board directly affects the product’s miniaturization capability, transmission stability, and scenario adaptability. Currently, the mainstream connection methods—wire bonding, MIPI/DVP interface, a
The imaging quality of endoscope camera modules heavily depends on lighting conditions. Take the split-type module equipped with the OmniVision OH01A10 sensor as an example: its F4.0 aperture and 1.116μm pixels can handle regular lighting, but whether to opt for the integrated 4 0201-type LED fill l
Endoscopic camera modules, as the "visual core" of minimally invasive medical procedures and precision industrial inspections, require their structural design to balance imaging performance, environmental adaptability, and application-specific needs. The steel shell, an optional protective component
Modern medicine has transformed the way doctors diagnose and treat conditions inside the human body. Among the most powerful diagnostic tools available today is the Endoscope Camera, a device that allows physicians to look directly into internal organs without the need for large surgical incisions. From digestive health monitoring to preventive cancer screening, the endoscope has become essential for accurate, minimally invasive diagnostics.
In the rapidly evolving field of medical endoscopy, 4K ultra-high-definition display systems have become standard for high-end equipment. However, the image quality foundation of the entire system depends not only on the main controller or monitor, but more critically on its foundational "eye" – the
In pipeline inspection scenarios, the endoscope camera module is a core device for visualizing internal defects. As an "extension and protective structure" of the lens, the length of the module's steel shell directly affects the inspection range, operational flexibility, and environmental adaptabili
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SF-C0115USB-D2.8-PRO-TypeC V1.2
SINCEREFIRST
This 0.08MP LED separate Type C USB endoscope camera module combines miniaturization with plug-and-play versatility, making it ideal for applications where space constraints outweigh the need for high-definition imaging. The module features a 0.08MP (80,000-pixel) sensor, a 105° wide-angle lens, and an ultra-slim 2.8mm diameter probe, all powered by adjustable LED illumination for consistent visibility in dark or confined environments. Its innovative detachable design separates the camera head from the processing unit, allowing seamless integration into third-party systems via a standardized Type-C USB interface. Engineered for durability, the probe’s flexible yet rugged housing resists bending damage, while the corrosion-resistant lens suits wet or dusty conditions. | ![]() |
Product Advantage ◢
Ultra-Slim Form Factor: With a 2.8mm diameter, the probe accesses confined spaces unreachable by standard cameras.
Modular Flexibility: The Type-C USB interface and detachable structure simplify OEM integration and device compatibility.
Cost-Effective Imaging: Optimized for scenarios where basic visual confirmation suffices, reducing hardware costs.
Durable LED Lighting: Built-in LEDs ensure clear visibility in low-light environments.
1. Automotive Diagnostics: Inspect fuel injectors, cylinder walls, or transmission components without disassembly.
2. Electronics Repair: Examine PCB soldering, connector alignment, or internal wiring faults in smartphones/consoles.
3. HVAC & Plumbing: Navigate ductwork or pipe interiors to detect blockages/corrosion.
4. Veterinary Use: Assist in examining small pets’ ear canals or dental structures.
Technical Parameters ◢
Product Name | Separated Endoscope Camera Module |
Features | Micro Endoscope Camera Module |
Pixel | 0.08MP |
Sensor | CMOS Sensor |
Diameter | 2.8mm |
Interface | USB2.0 UVC |
FOV(D) | 105° |
TV Distortion | <-10% |
Formats | YUV&MJPEG |
Resolution | 240*320, 30fps |
FAQ ◢
1. How does the endoscope camera module work?
The endoscope camera module collects the internal image through the front optical lens, converts it into electrical signal by CMOS or CCD sensor, and then optimizes it through image processing chip for noise reduction and enhancement, and finally outputs high-definition video signal. Some modules support wireless transmission or fiber optic signal transmission, suitable for medical or industrial inspection scenarios.
2. How to control the transmission delay of wireless endoscope module?
By optimizing the coding algorithm and transmission in the 5GHz band, the delay can be controlled within 50ms, ensuring real-time operation. Some products use dedicated RF protocols to reduce interference.
3. What are the interface types of the module?
Common interfaces include USB3.0, HDMI, SDI, etc. Industrial scenarios may use PoE power supply interfaces, and medical devices are multi-integrated dedicated medical image interfaces.
4. Can the 0.08MP endoscope camera module clearly see the key details in practical applications?
The 0.08MP endoscope camera module is suitable for identifying macroscopic defects, such as carbon deposits larger than 0.5mm, foreign objects or loose parts, and can clearly see key details in scenarios such as vehicle maintenance and pipeline inspection. However, for microscopic defects less than 0.3mm, such as cracks in precision parts or lesions in medical tissues, the resolution is insufficient and the imaging effect is blurry. High-pixel modules need to be used as substitutes.
This 0.08MP LED separate Type C USB endoscope camera module combines miniaturization with plug-and-play versatility, making it ideal for applications where space constraints outweigh the need for high-definition imaging. The module features a 0.08MP (80,000-pixel) sensor, a 105° wide-angle lens, and an ultra-slim 2.8mm diameter probe, all powered by adjustable LED illumination for consistent visibility in dark or confined environments. Its innovative detachable design separates the camera head from the processing unit, allowing seamless integration into third-party systems via a standardized Type-C USB interface. Engineered for durability, the probe’s flexible yet rugged housing resists bending damage, while the corrosion-resistant lens suits wet or dusty conditions. | ![]() |
Product Advantage ◢
Ultra-Slim Form Factor: With a 2.8mm diameter, the probe accesses confined spaces unreachable by standard cameras.
Modular Flexibility: The Type-C USB interface and detachable structure simplify OEM integration and device compatibility.
Cost-Effective Imaging: Optimized for scenarios where basic visual confirmation suffices, reducing hardware costs.
Durable LED Lighting: Built-in LEDs ensure clear visibility in low-light environments.
1. Automotive Diagnostics: Inspect fuel injectors, cylinder walls, or transmission components without disassembly.
2. Electronics Repair: Examine PCB soldering, connector alignment, or internal wiring faults in smartphones/consoles.
3. HVAC & Plumbing: Navigate ductwork or pipe interiors to detect blockages/corrosion.
4. Veterinary Use: Assist in examining small pets’ ear canals or dental structures.
Technical Parameters ◢
Product Name | Separated Endoscope Camera Module |
Features | Micro Endoscope Camera Module |
Pixel | 0.08MP |
Sensor | CMOS Sensor |
Diameter | 2.8mm |
Interface | USB2.0 UVC |
FOV(D) | 105° |
TV Distortion | <-10% |
Formats | YUV&MJPEG |
Resolution | 240*320, 30fps |
FAQ ◢
1. How does the endoscope camera module work?
The endoscope camera module collects the internal image through the front optical lens, converts it into electrical signal by CMOS or CCD sensor, and then optimizes it through image processing chip for noise reduction and enhancement, and finally outputs high-definition video signal. Some modules support wireless transmission or fiber optic signal transmission, suitable for medical or industrial inspection scenarios.
2. How to control the transmission delay of wireless endoscope module?
By optimizing the coding algorithm and transmission in the 5GHz band, the delay can be controlled within 50ms, ensuring real-time operation. Some products use dedicated RF protocols to reduce interference.
3. What are the interface types of the module?
Common interfaces include USB3.0, HDMI, SDI, etc. Industrial scenarios may use PoE power supply interfaces, and medical devices are multi-integrated dedicated medical image interfaces.
4. Can the 0.08MP endoscope camera module clearly see the key details in practical applications?
The 0.08MP endoscope camera module is suitable for identifying macroscopic defects, such as carbon deposits larger than 0.5mm, foreign objects or loose parts, and can clearly see key details in scenarios such as vehicle maintenance and pipeline inspection. However, for microscopic defects less than 0.3mm, such as cracks in precision parts or lesions in medical tissues, the resolution is insufficient and the imaging effect is blurry. High-pixel modules need to be used as substitutes.
