If you are sourcing imaging components or developing a vision-based product, you have likely come across two terms: endoscope and camera module. They are closely related, but they are not the same thing. Mixing them up can lead to the wrong purchasing decision or unnecessary development work.This ar
In both modern medicine and high-end industrial maintenance, the ability to see into inaccessible spaces is critical. Whether a surgeon is performing a minimally invasive procedure or an aerospace engineer is inspecting a turbine blade, the primary tool at work is the endoscope.At the heart of these
IntroductionIn industrial nondestructive testing, medical device development, and embedded vision systems, a recurring challenge arises when the target lies on the sidewall of a pipe or within narrow cavities, particularly at millimeter-scale diameters. Traditional forward-view endoscopes fail in su
IntroductionAn endoscope camera module is the small imaging system inside every borescope or medical scope. It lets you see into tight spaces—inside engines, behind walls, or inside the human body. Despite its tiny size, this module contains several precision parts that work together to capture and
IntroductionA USB endoscope camera module is a small camera designed to look into tight spaces. Plumbers use them to check inside pipes. Mechanics use them to inspect engines without taking things apart. Homeowners use them to see inside walls. If you need to see somewhere you can't physically fit y
OV9734 Sensor 3.6mm Micro HD Endoscope Camera Module: Engineering Guide for Confined-Space Vision SystemsIntroductionIn the realm of industrial inspection, precision equipment maintenance, and embedded vision systems, the ability to visualize the interior of narrow structures often determines the su
Technical Logic and System Integration Considerations for Selecting 8mm 2MP Endoscope ModulesIn the practice of medical endoscope equipment development and industrial inspection system integration, the selection of imaging modules often faces a set of coupled engineering constraints: physical dimens
In the imaging technology spectrum of medical endoscopes and industrial inspection equipment, the evolution of product specifications has always followed two parallel development paths: one continuously ascends toward higher resolution, wider dynamic range, and greater intelligence in the high-end m
Technical Selection and System Adaptation Considerations for 2MP HD UVC Camera ModulesIn the development practices of consumer electronics peripherals, industrial vision terminals, and open-source hardware projects, the selection of imaging modules often faces a set of interrelated engineering const
In the industrial landscape of vision imaging technology, products at different resolution levels occupy distinct ecological niches. While market attention increasingly gravitates toward frontier areas such as tens-of-megapixel sensors, multi-camera fusion, and computational photography, 2MP (1080P)
In applications such as industrial nondestructive testing, precision equipment maintenance, and medical diagnostics, selecting an imaging system often involves balancing a set of interdependent engineering constraints: the physical diameter of inspection channels restricts the module’s front-end siz
In the evolution of endoscopic imaging technology, the continual reduction of sensor size and module diameter has consistently been a key driver of industry innovation. The 4.5mm-diameter miniature USB endoscope module, centered on the BF2013 sensor, represents a critical node along this technologic
In the technological lineage of industrial inspection and medical辅助 imaging equipment, the evolution of endoscope modules has consistently followed a clear trajectory: continuously reducing front-end physical dimensions while maintaining or improving image quality, thereby expanding the boundaries o
In applications such as industrial endoscopic inspection, medical assisted examination, and precision equipment maintenance, selecting an imaging system often involves balancing a set of interdependent engineering constraints: the physical diameter of the observation channel limits the probe front t
In the development of industrial micro-pipe inspection, precision electronic component quality control, and medical device miniaturization, the selection of imaging systems often confronts a set of extreme engineering constraints: observation channel diameters measured in millimeters or even sub-mil
In industrial inspection and medical endoscopy applications, customers often have explicit requirements for flexible control over image capture parameters. A frequently asked technical question recently concerns whether modules can be configured to lower resolutions or frame rates when the catalog s
In applications such as industrial pipeline inspection, automotive maintenance, and building assessment, selecting an imaging system often involves balancing a set of interdependent engineering constraints: the required observation depth necessitates sufficiently long cabling, narrow cavities impose
Technical Logic and System Integration Considerations for Selecting 3.9mm Ultra-Miniature USB Imaging Modules In the development of industrial endoscopic inspection, minimally invasive medical devices, and micro-smart terminals, the selection of imaging modules often faces a set of mutually constrai
In the selection process for industrial inspection and medical endoscopes, the correlation between product protection ratings and mechanical construction frequently emerges as a critical dimension for customers evaluating product suitability. A question that has been raised repeatedly in recent cons
Technical Logic and Application Guide for Selecting the OVM6946 Ultra-Compact Waterproof Endoscope ModuleIn visualization applications across industrial inspection, precision manufacturing, and medical assistance, imaging system selection often faces a set of extreme constraints: observation channel
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SF-YL0320-V1+SF-SJM10365
SINCEREFIRST
This is an industrial LED endoscope camera module equipped with the 60FPS full-HD OV02C10 image sensor. It adopts the OmniVision OV02C10 CMOS color image sensor, featuring 2MP pixels. Its core advantage lies in supporting a maximum output of 1080P@60FPS images, which effectively eliminates motion blur and lag when observing fast-moving objects or dynamically scanning complex internal structures, enabling the capture of smooth, high-definition images without delay. The sensor size is 1/7.25 inch, paired with an ultra-slim lens with a diameter of only 3.9mm, which can be easily adapted to detection needs in narrow spaces. Meanwhile, the lens is equipped with an F5.0 aperture, a 120° wide field of view, and a maximum imaging circle of 2.78mm, allowing it to cover a wider observation range. It also integrates 6 9653 LED beads to cope with low-light environments. The product supports manual focusing and direct-view image output, and adopts a split design. It transmits MIPI signals to the DSP board via a Type-C interface, then outputs signals at USB 2.0 speed through a Type-C interface, and is compatible with the UVC protocol for plug-and-play functionality. Overall, it is in a bare module form, manufactured using SMT technology and Active Alignment (AA) process, and has fully passed multiple tests and certifications such as FCC, CE, Reach, and RoHS, balancing performance and compliance. | ![]() |
Dynamic HD Imaging: The combination of 1080P resolution and 60FPS high frame rate ensures no motion blur or detail loss in dynamic scenarios. Combined with 2MP pixels and lens LED fill light, it can still maintain clear imaging in low-light environments, meeting the needs of precise observation.
Strong Adaptability to Narrow Spaces: The 3.9mm ultra-slim lens diameter and 1/7.25-inch compact sensor can be embedded into slim endoscope probes or small detection equipment. The split design and bare module form further reduce installation restrictions, making it compatible with various compact device structures.
Flexible and Convenient Operation & Compatibility: The manual focusing function enables precise positioning of observation targets; the Type-C interface and USB 2.0 speed ensure fast data transmission; and compatibility with the UVC protocol supports direct integration with most systems, allowing it to be put into use without complex secondary development.
Reliable Production Quality & Compliance: Manufactured using SMT technology and Active Alignment (AA) process, it ensures the structural accuracy and performance stability of the module. It has passed multiple authoritative global tests and certifications, meeting the strict quality standards of medical, industrial, and other fields.
Real-time Monitoring of Mechanical Operation Status: It is highly suitable for real-time online monitoring of high-speed rotating gear sets, transmission shafts, or precision components in vibrating environments. The smooth 60FPS images help engineers accurately judge the real-time working status and potential abnormalities of mechanical equipment.
Fluid System & Biological Dynamic Research: It can be used to observe the flow pattern of liquids in closed pipelines and the process of bubble formation and disappearance. In the field of biomedicine, it can also be used to study the physiological dynamics and real-time responses of small animal models in a free-moving state.
Product Name | 2MP 3.9mm Endoscope Camera Module |
Image Sensor | OV02C10 CMOS Sensor |
Pixel | 2MP |
Diameter | 3.9mm |
View Angle | 120° |
F NO | 5.0 |
Product Type | Separated Endoscope Camera Module |
Led | 6pcs 9653 Led |
Interface | Type-C |
Feature | CMOS sensor Endoscope Camera Module |
The lens integrates 6 9653 LED beads for fill light, paired with the OmniVision OV02C10 sensor—ensuring clear imaging even in dim conditions.
Manual focusing allows precise targeting of specific details. It's especially helpful for scenarios where auto-focus might miss small, critical areas.
It uses a Type-C interface, supports USB 2.0 speed and UVC protocol, enabling plug-and-play compatibility with most systems without complex secondary development.
This is an industrial LED endoscope camera module equipped with the 60FPS full-HD OV02C10 image sensor. It adopts the OmniVision OV02C10 CMOS color image sensor, featuring 2MP pixels. Its core advantage lies in supporting a maximum output of 1080P@60FPS images, which effectively eliminates motion blur and lag when observing fast-moving objects or dynamically scanning complex internal structures, enabling the capture of smooth, high-definition images without delay. The sensor size is 1/7.25 inch, paired with an ultra-slim lens with a diameter of only 3.9mm, which can be easily adapted to detection needs in narrow spaces. Meanwhile, the lens is equipped with an F5.0 aperture, a 120° wide field of view, and a maximum imaging circle of 2.78mm, allowing it to cover a wider observation range. It also integrates 6 9653 LED beads to cope with low-light environments. The product supports manual focusing and direct-view image output, and adopts a split design. It transmits MIPI signals to the DSP board via a Type-C interface, then outputs signals at USB 2.0 speed through a Type-C interface, and is compatible with the UVC protocol for plug-and-play functionality. Overall, it is in a bare module form, manufactured using SMT technology and Active Alignment (AA) process, and has fully passed multiple tests and certifications such as FCC, CE, Reach, and RoHS, balancing performance and compliance. | ![]() |
Dynamic HD Imaging: The combination of 1080P resolution and 60FPS high frame rate ensures no motion blur or detail loss in dynamic scenarios. Combined with 2MP pixels and lens LED fill light, it can still maintain clear imaging in low-light environments, meeting the needs of precise observation.
Strong Adaptability to Narrow Spaces: The 3.9mm ultra-slim lens diameter and 1/7.25-inch compact sensor can be embedded into slim endoscope probes or small detection equipment. The split design and bare module form further reduce installation restrictions, making it compatible with various compact device structures.
Flexible and Convenient Operation & Compatibility: The manual focusing function enables precise positioning of observation targets; the Type-C interface and USB 2.0 speed ensure fast data transmission; and compatibility with the UVC protocol supports direct integration with most systems, allowing it to be put into use without complex secondary development.
Reliable Production Quality & Compliance: Manufactured using SMT technology and Active Alignment (AA) process, it ensures the structural accuracy and performance stability of the module. It has passed multiple authoritative global tests and certifications, meeting the strict quality standards of medical, industrial, and other fields.
Real-time Monitoring of Mechanical Operation Status: It is highly suitable for real-time online monitoring of high-speed rotating gear sets, transmission shafts, or precision components in vibrating environments. The smooth 60FPS images help engineers accurately judge the real-time working status and potential abnormalities of mechanical equipment.
Fluid System & Biological Dynamic Research: It can be used to observe the flow pattern of liquids in closed pipelines and the process of bubble formation and disappearance. In the field of biomedicine, it can also be used to study the physiological dynamics and real-time responses of small animal models in a free-moving state.
Product Name | 2MP 3.9mm Endoscope Camera Module |
Image Sensor | OV02C10 CMOS Sensor |
Pixel | 2MP |
Diameter | 3.9mm |
View Angle | 120° |
F NO | 5.0 |
Product Type | Separated Endoscope Camera Module |
Led | 6pcs 9653 Led |
Interface | Type-C |
Feature | CMOS sensor Endoscope Camera Module |
The lens integrates 6 9653 LED beads for fill light, paired with the OmniVision OV02C10 sensor—ensuring clear imaging even in dim conditions.
Manual focusing allows precise targeting of specific details. It's especially helpful for scenarios where auto-focus might miss small, critical areas.
It uses a Type-C interface, supports USB 2.0 speed and UVC protocol, enabling plug-and-play compatibility with most systems without complex secondary development.
