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
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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
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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
Technical Logic and Application Guide for Selecting 0.3MP Micro Endoscope Modules In visualization applications across industrial inspection, precision manufacturing, and medical assistance, imaging system selection often faces unique physical constraints: observation channel diameters measured in m
In-Depth Analysis of Sony's IMX811 Monochrome/Color Sensor: A New Era of Ultra-High-Definition ImagingWhat can you see in a 247-megapixel photo? A speck of dust on a precision circuit, or a distant galaxy in the vast cosmos. In the realm of image sensing technology, Sony Semiconductor Solutions Corp
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SF-C016USB-D0.9-Side
SINCEREFIRST
The Side View OCTHA10 Sensor CMOS USB2.0 Interface Endoscope Camera Module, features an ultra-miniature 0.9mm diameter imaging head with a unique side-view lens design. Unlike traditional forward-view endoscopes that require perpendicular alignment with targets, this side-view configuration allows inspection parallel to the direction of insertion—ideal for observing pipe sidewalls, thread interiors, and cavities where direct frontal access is impossible.Optically, the module integrates the OCHTA10 sensor with a 0.175mm focal length and F2.8 aperture, delivering a 100°(H)×100°(V) field of view and distortion below -11%. The depth of field ranges from 3mm to 30mm, ensuring sharp imaging at ultra-close working distances—perfect for micro-scale inspection tasks where every micron counts.The module supports USB2.0 UVC protocol via a Micro USB-5P connector, offering plug-and-play compatibility with Windows, Linux, and Android systems without driver installation. Dual-format output (YUV/MJPEG) at 400×400 resolution balances image quality and transmission efficiency. A 6-pin sensor interface with LEDA/LEDK pins is reserved for external LED illumination, enabling imaging in Completely dark environments. RoHS certified, this module is designed as a core vision component for Extremely fine pipe inspection, micro-endoscopy, and embedded micro vision systems. | ![]() |
1.Ultra-Miniature Side-View Design: The 0.9mm diameter side-view lens accesses spaces where forward-view cameras cannot—such as pipe inner walls, thread roots, and component side gaps—enabling inspection from within rather than head-on.
2.Micro-Scale Optical Precision: The 3–30mm depth of field combined with 100° wide field of view captures clear detail at extreme close range, revealing microscopic defects, burrs, or residues invisible to standard cameras.
3.Plug-and-Play USB Connectivity: Native UVC support with Micro USB interface enables direct connection to PCs, smartphones, and embedded systems without driver development, slashing integration time.
4.Expandable Illumination: Dedicated LEDA/LEDK pins allow external LED attachment for dark environment imaging, providing flexibility to adapt lighting to specific inspection requirements.
1.Micro-Pipeline Internal Inspection: For medical device manufacturers: Inspect the inner walls of catheters, microfluidic chips, and precision tubes as small as 1mm diameter. The side-view lens reveals bonding defects, residue buildup, or surface irregularities along the tube length—critical for quality control in minimally invasive devices.
2.Internal inspection of precision components: For semiconductor equipment engineers: Examine the sidewalls of micro motor stators, gear interiors, or MEMS device cavities. Insert the probe into component openings; the side-view optics capture internal surface conditions, wear patterns, or particle contamination without disassembly.
3.Medical minimally invasive exploration: For endoscopic device integrators: Integrate into Ultra-fine exploration probes for orthopedic joints, spinal cavities, or dental root canals. The side-view configuration allows circumferential tissue inspection while advancing, reducing the need for probe rotation and improving procedure efficiency.
4.Embedded Micro Vision System:For robotics and IoT developers: Embed into mini inspection robots or portable detectors for hard-to-reach areas like aircraft wing ribs or building cavities. The 0.9mm profile fits through 1mm access holes, while side-view optics capture surrounding conditions—ideal for confined-space visual feedback."
Product Name | Side-view endoscope camera module |
Basic tolerance | ±0.1mm |
DSP | USB2.0 |
Sensor | OCHFA10 |
Focusing Range | 3-30mm |
Focal Length | 0.175mm |
F Number | 4.5 |
FOV(H*V) | 100°*100° |
TV Distortion | <-11% |
Connector | Mini USB-5P |
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 difference between medical and industrial endoscope modules?
The medical module emphasizes biocompatibility, sterilization and high image quality, and needs to comply with FDA/CE certification; Industrial modules focus on durability (such as corrosion protection), wide temperature operation (-20°C to 70°C), and special light sources (such as UV).
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.
4. Is there an endoscope camera module with a 0.9mm diameter and forward-view imaging?
Yes! Please feel free to contact us for more product information!
The Side View OCTHA10 Sensor CMOS USB2.0 Interface Endoscope Camera Module, features an ultra-miniature 0.9mm diameter imaging head with a unique side-view lens design. Unlike traditional forward-view endoscopes that require perpendicular alignment with targets, this side-view configuration allows inspection parallel to the direction of insertion—ideal for observing pipe sidewalls, thread interiors, and cavities where direct frontal access is impossible.Optically, the module integrates the OCHTA10 sensor with a 0.175mm focal length and F2.8 aperture, delivering a 100°(H)×100°(V) field of view and distortion below -11%. The depth of field ranges from 3mm to 30mm, ensuring sharp imaging at ultra-close working distances—perfect for micro-scale inspection tasks where every micron counts.The module supports USB2.0 UVC protocol via a Micro USB-5P connector, offering plug-and-play compatibility with Windows, Linux, and Android systems without driver installation. Dual-format output (YUV/MJPEG) at 400×400 resolution balances image quality and transmission efficiency. A 6-pin sensor interface with LEDA/LEDK pins is reserved for external LED illumination, enabling imaging in Completely dark environments. RoHS certified, this module is designed as a core vision component for Extremely fine pipe inspection, micro-endoscopy, and embedded micro vision systems. | ![]() |
1.Ultra-Miniature Side-View Design: The 0.9mm diameter side-view lens accesses spaces where forward-view cameras cannot—such as pipe inner walls, thread roots, and component side gaps—enabling inspection from within rather than head-on.
2.Micro-Scale Optical Precision: The 3–30mm depth of field combined with 100° wide field of view captures clear detail at extreme close range, revealing microscopic defects, burrs, or residues invisible to standard cameras.
3.Plug-and-Play USB Connectivity: Native UVC support with Micro USB interface enables direct connection to PCs, smartphones, and embedded systems without driver development, slashing integration time.
4.Expandable Illumination: Dedicated LEDA/LEDK pins allow external LED attachment for dark environment imaging, providing flexibility to adapt lighting to specific inspection requirements.
1.Micro-Pipeline Internal Inspection: For medical device manufacturers: Inspect the inner walls of catheters, microfluidic chips, and precision tubes as small as 1mm diameter. The side-view lens reveals bonding defects, residue buildup, or surface irregularities along the tube length—critical for quality control in minimally invasive devices.
2.Internal inspection of precision components: For semiconductor equipment engineers: Examine the sidewalls of micro motor stators, gear interiors, or MEMS device cavities. Insert the probe into component openings; the side-view optics capture internal surface conditions, wear patterns, or particle contamination without disassembly.
3.Medical minimally invasive exploration: For endoscopic device integrators: Integrate into Ultra-fine exploration probes for orthopedic joints, spinal cavities, or dental root canals. The side-view configuration allows circumferential tissue inspection while advancing, reducing the need for probe rotation and improving procedure efficiency.
4.Embedded Micro Vision System:For robotics and IoT developers: Embed into mini inspection robots or portable detectors for hard-to-reach areas like aircraft wing ribs or building cavities. The 0.9mm profile fits through 1mm access holes, while side-view optics capture surrounding conditions—ideal for confined-space visual feedback."
Product Name | Side-view endoscope camera module |
Basic tolerance | ±0.1mm |
DSP | USB2.0 |
Sensor | OCHFA10 |
Focusing Range | 3-30mm |
Focal Length | 0.175mm |
F Number | 4.5 |
FOV(H*V) | 100°*100° |
TV Distortion | <-11% |
Connector | Mini USB-5P |
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 difference between medical and industrial endoscope modules?
The medical module emphasizes biocompatibility, sterilization and high image quality, and needs to comply with FDA/CE certification; Industrial modules focus on durability (such as corrosion protection), wide temperature operation (-20°C to 70°C), and special light sources (such as UV).
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.
4. Is there an endoscope camera module with a 0.9mm diameter and forward-view imaging?
Yes! Please feel free to contact us for more product information!
