IntroductionIf you're designing something that needs to see into tight spaces—a medical scope, an industrial inspection tool, or even a DIY gadget—size is everything. The camera module has to fit through whatever opening you have. Too big, and it won't go where it needs to. Too small, and you might
What is an Endoscope Camera Module? A Complete Technical OverviewIn the fields of modern medicine and industrial maintenance, the ability to see into inaccessible spaces is not just a convenience—it is a necessity. At the heart of this capability lies a remarkably sophisticated piece of technology:
1. Introduction: When High-Definition Imaging Meets Confined SpacesIn the intersection of minimally invasive medical procedures and industrial precision inspection, a common technical challenge increasingly arises: how to obtain sufficiently clear, smooth, and realistic visual information within a c
IntroductionIf you're buying an endoscope—for medical use, industrial inspection, or DIY projects—you'll probably wonder about resolution. How clear will the image be? Can you see small details? The answer depends on what you're using it for. Resolution standards have come a long way, from basic sta
IntroductionAn endoscope camera module is the tiny camera that lets doctors see inside your body or inspectors look inside machinery. At the core of most modern endoscopes is a CMOS image sensor. CMOS technology has made these cameras smaller, cheaper, and more efficient. This article explains what
1. Introduction: When Detection Space Meets Device Volume ConstraintsIn the development of automated inspection equipment, specialized robots, and portable instruments, imaging system selection faces a fundamental contradiction: the target is deep inside narrow cavities, while control equipment is b
In the field of minimally invasive surgery, the "eye" of the instrument—the endoscope camera—is perhaps the most critical component. It must be small enough to navigate the human body's delicate pathways, yet powerful enough to provide surgeons with crystal-clear, lag-free imagery.At the heart of th
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
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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
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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
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SF-C016USB-D1.2
SINCEREFIRST
| This is micro endoscope cam OCHTA10 CMOS sensor plumbing 1.2mm endoscope camera module, is a professional device developed to meet the demand for "accurate detection in ultra-narrow spaces". It is core-equipped with an OCHTA10 image sensor, and features "extreme compactness + stable performance" as its core advantages, making it widely suitable for minimally invasive medical and industrial testing scenarios. In terms of size design, the module achieves an impressive overall diameter of 1.2mm (with the camera module being only 0.9mm and the outer diameter 1.2mm). This ultra-micro specification allows it to easily navigate through extremely narrow spaces that traditional endoscopes can hardly reach—whether it is pipes with a diameter of only a few millimeters, dental root canals, or robot slits, it can penetrate flexibly without damaging the detection environment. In terms of imaging, the module supports 400*400 resolution. Combined with the precise signal conversion capability of the OCHTA10 sensor, even in low-light environments, it can supplement light through 4 built-in LED fill lights to clearly capture the detailed features of the detected object, avoiding observation blind spots caused by insufficient light. In terms of optical performance, the module is equipped with a lens with a focal length of 3.75mm and an aperture of F2.8, which can not only ensure the light intake during close-range detection but also control the image depth of field. At the same time, its 100° horizontal field of view (HFOV) and 100° vertical field of view (VFOV) enable wide-range visual coverage, reducing the number of module movements and improving detection efficiency. The TV distortion rate of <-11% effectively reduces image distortion and ensures the accuracy of observation results. The focusing range covers 3mm-50mm, meaning that both micro-details of 3mm (such as the texture of the inner wall of a root canal) and medium-distance scenes of 50mm (such as the overall view of the inside of a pipe) can be clearly displayed without frequent focus adjustments. In addition, the module fully considers the needs of multiple scenarios in its practical design: it supports two structural designs, integrated or separated, which can be flexibly selected according to the installation requirements of the detection equipment; a durable steel sleeve can be optionally equipped to enhance the module's corrosion resistance and wear resistance in oily and humid environments; the supporting cable has a maximum length of 2 meters, which not only meets the needs of long-distance operation but also ensures the stability of signal transmission; the output interface adopts the USB2.0 UVC protocol, which is seamlessly compatible with Windows and Android systems. No additional complex drivers need to be installed, and high-quality video transmission can be achieved with plug-and-play, greatly lowering the threshold for equipment adaptation. |
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Ultra-fine Diameter Design: With a micro probe diameter of only 1.2mm, it can penetrate narrow spaces that conventional equipment is difficult to reach, enabling more comprehensive and flexible detection.Slim 1.4mm outer diameter and 0.9mm camera module for easy navigation.
HD Imaging Effect: Equipped with an OCHTA10 CMOS sensor, it supports 400*400 resolution imaging, delivering clear and delicate images. It also supports real-time video output and is compatible with a variety of display devices.
Wide-Angle Side View: The 120° wide angle combined with side view greatly improves detection efficiency and detail capture capability, while effectively reducing viewing blind spots.
Adaptation to Complex Environments: The 3mm-50mm focusing range covers both close-range micro and medium-distance scenarios, eliminating the need for frequent focusing; 4 built-in LED fill lights can cope with low-light environments, avoiding detail omission and adapting to scenarios with insufficient light.
Compatibility with Mainstream Systems: The USB2.0 UVC interface is directly compatible with Windows and Android systems, enabling plug-and-play without complex drivers; the 2-meter long cable supports long-distance operation, adapting to the spatial requirements of different detection scenarios.
Reliable Quality & Flexible Customization: It supports integrated/separated structural design, which can be matched to equipment installation as needed; a durable steel sleeve can be optionally equipped to enhance oil and corrosion resistance, extending its service life in scenarios such as industrial pipelines and medical body fluid contact.
1. Pipe and Narrow Space Detection: Used for blockage location in sewers/ventilation pipes and detection of corrosion or cracks on the inner wall of oil pipelines. The ultra-small diameter of 1.2mm allows it to penetrate thin pipes, and the 120° field of view quickly covers the entire interior of the pipe.
2. Minimally Invasive Medical Assistance: Provides real-time imaging in dental root canal treatment and assists in positioning during ENT (ear, nose, and throat) foreign body removal surgeries. Its ultra-micro size reduces tissue damage, and the 3mm-50mm focusing range clearly displays the details of the lesion.
3. Smart Hardware Integration: Suitable for visual navigation of robot slit cleaning equipment and real-time environmental modeling for AR devices. Its micro design does not affect the flexibility of the hardware, and the USB2.0 interface facilitates integration with smart devices.
Model Number | SF-C016USB-D1.2 |
Image Sensor | OCHTA10 |
Diameter | 1.2mm |
Focusing Range | 3mm-50mm |
Focal Length | 3.75mm |
F No. | 2.8 |
FOV(H*V) | 120°×88.8° |
TV Distortion | <-11% |
Output | USB2.0 UVC |
Features | Endoscope Camera |
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. What is the significance of the depth of field range of the module?
Large depth of field (such as 5mm to 50mm) can clearly show near and far objects at the same time, reduce the need for frequent focusing, suitable for endoscopic surgery; Shallow depth of field is used to highlight specific plane details, such as skin inspection.
3. What can I do if the module fails to start?
Check the power adapter (for example, 12V output), the port is loose, and the fuse is blown. If the wireless module is used, check the battery level and pairing status.
| This is micro endoscope cam OCHTA10 CMOS sensor plumbing 1.2mm endoscope camera module, is a professional device developed to meet the demand for "accurate detection in ultra-narrow spaces". It is core-equipped with an OCHTA10 image sensor, and features "extreme compactness + stable performance" as its core advantages, making it widely suitable for minimally invasive medical and industrial testing scenarios. In terms of size design, the module achieves an impressive overall diameter of 1.2mm (with the camera module being only 0.9mm and the outer diameter 1.2mm). This ultra-micro specification allows it to easily navigate through extremely narrow spaces that traditional endoscopes can hardly reach—whether it is pipes with a diameter of only a few millimeters, dental root canals, or robot slits, it can penetrate flexibly without damaging the detection environment. In terms of imaging, the module supports 400*400 resolution. Combined with the precise signal conversion capability of the OCHTA10 sensor, even in low-light environments, it can supplement light through 4 built-in LED fill lights to clearly capture the detailed features of the detected object, avoiding observation blind spots caused by insufficient light. In terms of optical performance, the module is equipped with a lens with a focal length of 3.75mm and an aperture of F2.8, which can not only ensure the light intake during close-range detection but also control the image depth of field. At the same time, its 100° horizontal field of view (HFOV) and 100° vertical field of view (VFOV) enable wide-range visual coverage, reducing the number of module movements and improving detection efficiency. The TV distortion rate of <-11% effectively reduces image distortion and ensures the accuracy of observation results. The focusing range covers 3mm-50mm, meaning that both micro-details of 3mm (such as the texture of the inner wall of a root canal) and medium-distance scenes of 50mm (such as the overall view of the inside of a pipe) can be clearly displayed without frequent focus adjustments. In addition, the module fully considers the needs of multiple scenarios in its practical design: it supports two structural designs, integrated or separated, which can be flexibly selected according to the installation requirements of the detection equipment; a durable steel sleeve can be optionally equipped to enhance the module's corrosion resistance and wear resistance in oily and humid environments; the supporting cable has a maximum length of 2 meters, which not only meets the needs of long-distance operation but also ensures the stability of signal transmission; the output interface adopts the USB2.0 UVC protocol, which is seamlessly compatible with Windows and Android systems. No additional complex drivers need to be installed, and high-quality video transmission can be achieved with plug-and-play, greatly lowering the threshold for equipment adaptation. |
|
Ultra-fine Diameter Design: With a micro probe diameter of only 1.2mm, it can penetrate narrow spaces that conventional equipment is difficult to reach, enabling more comprehensive and flexible detection.Slim 1.4mm outer diameter and 0.9mm camera module for easy navigation.
HD Imaging Effect: Equipped with an OCHTA10 CMOS sensor, it supports 400*400 resolution imaging, delivering clear and delicate images. It also supports real-time video output and is compatible with a variety of display devices.
Wide-Angle Side View: The 120° wide angle combined with side view greatly improves detection efficiency and detail capture capability, while effectively reducing viewing blind spots.
Adaptation to Complex Environments: The 3mm-50mm focusing range covers both close-range micro and medium-distance scenarios, eliminating the need for frequent focusing; 4 built-in LED fill lights can cope with low-light environments, avoiding detail omission and adapting to scenarios with insufficient light.
Compatibility with Mainstream Systems: The USB2.0 UVC interface is directly compatible with Windows and Android systems, enabling plug-and-play without complex drivers; the 2-meter long cable supports long-distance operation, adapting to the spatial requirements of different detection scenarios.
Reliable Quality & Flexible Customization: It supports integrated/separated structural design, which can be matched to equipment installation as needed; a durable steel sleeve can be optionally equipped to enhance oil and corrosion resistance, extending its service life in scenarios such as industrial pipelines and medical body fluid contact.
1. Pipe and Narrow Space Detection: Used for blockage location in sewers/ventilation pipes and detection of corrosion or cracks on the inner wall of oil pipelines. The ultra-small diameter of 1.2mm allows it to penetrate thin pipes, and the 120° field of view quickly covers the entire interior of the pipe.
2. Minimally Invasive Medical Assistance: Provides real-time imaging in dental root canal treatment and assists in positioning during ENT (ear, nose, and throat) foreign body removal surgeries. Its ultra-micro size reduces tissue damage, and the 3mm-50mm focusing range clearly displays the details of the lesion.
3. Smart Hardware Integration: Suitable for visual navigation of robot slit cleaning equipment and real-time environmental modeling for AR devices. Its micro design does not affect the flexibility of the hardware, and the USB2.0 interface facilitates integration with smart devices.
Model Number | SF-C016USB-D1.2 |
Image Sensor | OCHTA10 |
Diameter | 1.2mm |
Focusing Range | 3mm-50mm |
Focal Length | 3.75mm |
F No. | 2.8 |
FOV(H*V) | 120°×88.8° |
TV Distortion | <-11% |
Output | USB2.0 UVC |
Features | Endoscope Camera |
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. What is the significance of the depth of field range of the module?
Large depth of field (such as 5mm to 50mm) can clearly show near and far objects at the same time, reduce the need for frequent focusing, suitable for endoscopic surgery; Shallow depth of field is used to highlight specific plane details, such as skin inspection.
3. What can I do if the module fails to start?
Check the power adapter (for example, 12V output), the port is loose, and the fuse is blown. If the wireless module is used, check the battery level and pairing status.
