760-955nm Dual Channel Beam Splitting Imaging Lens for Industrial Machine Vision and Precision Optical Inspection Applications X-P26VYNP-0707

High performance zoom telephoto cameras designed for long distance imaging and high magnification observation applications. The camera integrates advanced optical zoom capability, high resolution image capture, and stable imaging performance for professional optical systems. It is suitable for industrial inspection, research imaging, outdoor observation, and customized imaging equipment. OEM customization options are available. ·100 – 300X Zoom ·Wi-Fi Connectable ·USB Port ·Photography: 2-megapixel Resolution ·Video: 1080p Resolution A zoom telephoto camera is an advanced imaging device that combines a long focal length optical system with adjustable magnification capability. It allows users to capture clear images of distant objects while maintaining flexible viewing ranges. People Also Ask (FAQs) What is a zoom telephoto camera used for?A zoom telephoto camera is used for capturing detailed images from extended distances and applications requiring adjustable magnification. What is the advantage of optical zoom?Optical zoom changes magnification through the lens system, maintaining better image quality compared with digital enlargement. Can zoom telephoto cameras be customized?Yes. Optical parameters, camera structure, resolution, connectivity options, and mechanical design can be customized. What factors affect telephoto camera performance?Key factors include optical design, zoom range, image sensor performance, resolution, and mechanical stability. Can this camera be integrated into other systems?Yes. Custom integration options are available for different imaging equipment and professional applications.

High performance 532nm 4F beam expansion and relay optical systems designed for nanosecond laser applications. The optical system provides precise beam expansion, collimation preservation, and stable beam transmission for high power green laser systems. It is widely used in laser research, nonlinear optics, precision processing, scientific instruments, and advanced photonics platforms. Custom magnification ratios, focal lengths, coatings, and mechanical configurations are available. Working Wavelength :532 nm Beam Expansion Ratio: 3x Input Beam Diameter: 4 mm Output Beam Diameter: 12 mm Coating: 532 nm High-Damage-Threshold Anti-Reflective Coating Optical Material: Fused Silica/ High Laser-Induced Damage Threshold Optical Glass A 532nm 4F beam expansion and relay optical system is a precision laser optical assembly designed to enlarge, transmit, and control green laser beams while maintaining beam quality. It is specially optimized for nanosecond pulse laser applications requiring stable beam propagation and accurate optical alignment. People Also Ask (FAQs) Why is 532nm used in laser applications?532nm green lasers provide high visibility and are widely used in scientific research, precision processing, and photonics applications.

High precision 955-1100nm dual channel beam splitting imaging lenses designed for advanced optical imaging and detection systems. The optical assembly provides accurate beam separation, stable image transmission, and reliable dual-channel acquisition performance. It is suitable for spectral imaging, machine vision, scientific instruments, inspection systems, and customized optical platforms. Custom optical designs, coatings, focal lengths, and mechanical structures are available. Working Waveband: 955-1100 nm Beam Splitting Method: Dichroic beam splitting/ Beam splitter prism/ Custom beam splitter plate Number of Channels: 2 channels, expandable to multi-channel layout Image Plane Size: Compatible with 1/2″, 1/1.8″, 2/3″, 1″ or customer-specified detectors Optical Axis Angle Between Dual Channels: 0.1, optimized target ≤0.05° A dual channel beam splitting imaging lens is a precision optical assembly designed to divide incoming light into two independent optical paths for simultaneous image acquisition and analysis. It integrates beam separation technology with high quality imaging performance for advanced optical systems. People Also Ask (FAQs) What is a beam splitting imaging lens used for?A beam splitting imaging lens separates incoming light into multiple optical paths, allowing different channels to capture and analyze images simultaneously. What are the advantages of a dual channel optical system?A dual channel optical system improves detection efficiency and allows comparison or combined analysis from different imaging channels. Can the wavelength range be customized?Yes. Optical performance, wavelength range, coating design, focal length, and mechanical structure can be customized according to application requirements.

High precision telecentric lenses designed for machine vision measurement and industrial inspection systems. These optical lenses provide constant magnification, low distortion, and excellent image uniformity for accurate dimensional measurement and automated inspection. They are widely used in semiconductor inspection, manufacturing quality control, precision measurement equipment, and advanced imaging systems. Custom optical designs, magnification ratios, working distances, and mechanical structures are available. Sensor: 2/3” Magnification: 0.7/1/2/3/4.5X Working Distance: 100/95/92/91/90mm A telecentric lens is a precision optical lens designed to maintain constant magnification and reduce perspective errors during imaging. Unlike conventional lenses, it provides more accurate object measurement by controlling the direction of incoming and outgoing light rays. People Also Ask (FAQs) What is a telecentric lens used for?A telecentric lens is mainly used for precision measurement, machine vision inspection, and applications requiring accurate object size analysis. What is the advantage of a telecentric lens?The main advantage is maintaining consistent magnification and reducing perspective errors, which improves measurement accuracy. What is the difference between a telecentric lens and a normal lens?A normal lens produces perspective changes when object distance changes, while a telecentric lens minimizes these effects for more reliable measurement results.