An endoscope camera is one of those tools that people don’t fully appreciate—until they face a problem they can’t see. A strange noise inside a machine housing. A suspected blockage in a duct. A loose connector buried behind a panel. An engine issue that would normally require hours of disassembly just to confirm what’s wrong. In these moments, an endoscope camera module becomes more than a camera. It becomes a decision-making tool that turns “guessing” into evidence.
If you’ve ever tried to inspect something you can’t directly see—inside a pipe, behind a wall panel, inside a machine housing, or deep in an engine bay—you already understand why the industrial endoscope camera has become an essential tool across modern maintenance and quality inspection. An endoscope camera module turns impossible-to-see spaces into clear visual information, helping technicians find faults faster, reduce disassembly, and make better decisions with less downtime.
When an industrial endoscope camera fails during an inspection, it’s more than an inconvenience—it can delay maintenance decisions, stall production troubleshooting, or force you to disassemble equipment you wanted to inspect non-destructively.
Cleaning a medical endoscope camera module is not just about keeping the lens shiny—it’s about protecting image quality, protecting equipment lifespan, and supporting safe clinical workflows. In real use, camera modules face a mix of challenges: fogging, smears from handling, residue from disinfectant wipes, microscopic debris near connectors, and gradual performance loss from repeated cleaning with the wrong materials. Many teams also work under time pressure: the scope is needed again quickly, and “quick wipe” habits can quietly create long-term problems such as micro-scratches, seal damage, or corrosion at the connection points.
In endoscopy, the camera does more than “capture an image.” It influences diagnosis confidence, procedure efficiency, documentation quality, and even the learning curve for clinical teams. When clinicians talk about better visualization, they’re usually describing a combination of factors—sharpness at the edge of the field, accurate color reproduction, stable exposure in reflective environments, and reliable performance under the demanding realities of a procedure room.
IntroductionWhen you look through an endoscope camera, the first thing you notice is how much you can see. Some show a wide area; others zoom in on a small spot. That “how much” is called the field of view (FOV). For endoscope cameras used in medical diagnosis, industrial inspection, or plumbing, ch
In the development of embedded endoscope devices, portable inspection instruments, and wireless vision systems, camera module selection often requires trade-offs among transmission stability, connection reliability, optical suitability, and system expandability. When the inspection scenario involves
In industrial on-site maintenance, automotive diagnostics, and laboratory auxiliary detection, imaging system selection often faces a practical dilemma: operators need quick deployment and intuitive observation, but are unwilling to spend time installing drivers, debugging software, or configuring c
IntroductionEver used an endoscope where bright areas turned completely white and dark areas were pitch black? That’s a dynamic range problem. Dynamic range is the camera’s ability to capture detail in both the brightest and darkest parts of a scene at the same time. It’s a key image quality spec, y
In the fields of minimally invasive medical procedures, precision industrial inspection, and micro-instrument development, the probe diameter is often the first threshold determining inspection feasibility. When the inner diameter of the target channel falls below 2mm, traditional endoscope modules
IntroductionWhen you look through an endoscope—for a medical procedure, industrial inspection, or plumbing check—the smoothness of the video matters. A choppy, laggy image makes it hard to see what you’re doing. That’s where frames per second (FPS) comes in. FPS measures how many images the camera c
Learn how frame rate affects endoscope video quality in an Endoscope Camera Module, UVC endoscope camera module, USB endoscope camera, or TV Endoscope Camera Module. Explore how fps influences smoothness, motion handling, bandwidth, and live inspection performance.
Learn the latest technologies in endoscope cameras, including miniaturized Endoscope Camera Module design, HD and 4K imaging, AI-assisted visualization, and advanced optics from today’s Endoscope Camera Module Manufacturer and Endoscope Camera Module Brand landscape.
Learn what a 4K endoscope camera module is and how it differs from standard HD endoscope systems. Explore Endoscope Camera Module design, image detail, optics, lighting, and OEM selection for a 4k endoscope camera project.
| Availability: | |
|---|---|
| Quantity: | |
SF-SJYL0320-3D+SF-SJM73115
SINCEREFIRST
This 3.1mm Diameter USB Interface Separate Wide Angle Auto Focus 3D ES101 CMOS Sensor Endoscope Camera Module, is a split-type 3D stereoscopic endoscope module designed for tiny spaces, integrating miniaturization, split structure, 3D imaging, auto-focus and wide-angle advantages to serve as an ideal solution for precision 3D detection, minimally invasive medical treatment, industrial measurement and scientific research observation. It adopts a split structure of 3.1mm micro probe and main board, where the ultra-small 3.1mm probe diameter enables access to slender spaces and deep holes that are difficult to reach, while the split design enhances deployment flexibility for complex narrow-space detection. It uses USB 5V power supply, DP+/DM- for data transmission and dual GND for grounding, ensuring stable power supply and reliable data transmission. Equipped with VCM auto-focus, it automatically maintains clear imaging at different distances, improving usability without manual adjustment. The 140° ultra-wide field of view expands single-frame coverage, reduces detection blind spots and boosts the efficiency of comprehensive imaging inside deep holes and cavities. The adjustable aperture allows flexible control of imaging brightness and contrast under different lighting conditions, ensuring clear imaging in diverse environments. The module adopts dual optical path synchronous collection to output 3D information, accurately restoring the depth, contour and deformation of objects, and providing stereo measurement capabilities that traditional 2D endoscope modules lack, fully meeting the needs of 3D endoscopy, stereo detection and depth measurement. | ![]() |
1.3D Stereoscopic Imaging:Adopts dual optical path synchronous collection, restores object depth and 3D contour, and provides stereo measurement capabilities.
Product Name | Separate endoscope camera module |
Sensor | ES101 CMOS Sensor |
Sensor Size | 1/9 Inch |
Pixel | 1.4µm×1.4µm |
Resolution | 1000x1000 |
Interface | USB 2.0 |
Diameter | 3.1mm |
FOV | 140° |
Output Format | 10bit/8bit RAW |
LED | 6Pcs LED |
| Type | Separate Endoscope Camera Module |
1.Micro Pipeline 3D Endoscopy: It detects 3D morphology, defects and deformation of inner walls in pipelines with ≥3.1mm diameter, relying on its 3D imaging and micro probe.
2.Minimally Invasive Medical 3D Vision: It provides stereo vision for minimally invasive surgical instruments, clearly showing tissue depth to improve operation accuracy.
3.Industrial Precision 3D Measurement: It performs non-contact 3D measurement and quality judgment of micro-components and solder joints with its 3D measurement capability.
4.Scientific Research Micro Stereo Observation: It is used for 3D imaging and analysis of materials and microstructures, meeting high-precision basic research needs.
Yes, it uses a standard Type-C interface and USB2.0 UVC protocol for true plug-and-play connectivity with Windows, Android, and medical tablets—no driver installation required.
Six white LEDs are built into the 3.1mm diameter lens module, providing self-contained illumination. This eliminates external light guides and reduces invasiveness in narrow spaces.
The module supports both YUV (uncompressed) and MJPEG (compressed) video output formats, allowing users to choose based on their image quality and bandwidth requirements.
