Optical Components

We manufacture spherical and aspheric glass lenses for flexible and rigid endoscopes, surgical microscopes, and other medical optical systems. The minimum lens diameter is 0.8 mm, with surface quality specifications up to 2 × 0.0063.

We manufacture spherical and aspheric glass lenses for flexible and rigid endoscopes, surgical microscopes, and other medical optical systems. The minimum lens diameter is 0.8 mm, with surface quality specifications up to 2 × 0.0063.

We manufacture spherical and aspheric glass lenses for flexible and rigid endoscopes, surgical microscopes, and other medical optical systems. The minimum lens diameter is 0.8 mm, with surface quality specifications up to 2 × 0.0063.

We manufacture spherical and aspheric glass lenses for flexible and rigid endoscopes, surgical microscopes, and other medical optical systems. The minimum lens diameter is 0.8 mm, with surface quality specifications up to 2 × 0.0063.

We manufacture spherical and aspheric glass lenses for flexible and rigid endoscopes, surgical microscopes, and other medical optical systems. The minimum lens diameter is 0.8 mm, with surface quality specifications up to 2 × 0.0063.

Widely used in endoscopic optical systems. We manufacture double-, triple-, and four-element cemented rod lens assemblies with minimum diameters of 1 mm. Standard length-to-diameter ratios range from 8:1 to 10:1, with a maximum of 15:1. Side-surface polishing is also available.

Widely used in endoscopic optical systems. We manufacture double-, triple-, and four-element cemented rod lens assemblies with minimum diameters of 1 mm. Standard length-to-diameter ratios range from 8:1 to 10:1, with a maximum of 15:1. Side-surface polishing is also available.

Widely used in endoscopic optical systems. We manufacture double-, triple-, and four-element cemented rod lens assemblies with minimum diameters of 1 mm. Standard length-to-diameter ratios range from 8:1 to 10:1, with a maximum of 15:1. Side-surface polishing is also available.

Widely used in endoscopic optical systems. We manufacture double-, triple-, and four-element cemented rod lens assemblies with minimum diameters of 1 mm. Standard length-to-diameter ratios range from 8:1 to 10:1, with a maximum of 15:1. Side-surface polishing is also available.

Prisms are widely used in endoscopes, surgical microscopes, and other optical systems for beam deflection and splitting. In addition to standard 90° and 45° deflection prisms, we mass-produce prisms with viewing angles of 12°, 25°, 30°, and 70°. Precise control of angles, dimensions, and optical coatings ensures excellent imaging performance.

Prisms are widely used in endoscopes, surgical microscopes, and other optical systems for beam deflection and splitting. In addition to standard 90° and 45° deflection prisms, we mass-produce prisms with viewing angles of 12°, 25°, 30°, and 70°. Precise control of angles, dimensions, and optical coatings ensures excellent imaging performance.

Prisms are widely used in endoscopes, surgical microscopes, and other optical systems for beam deflection and splitting. In addition to standard 90° and 45° deflection prisms, we mass-produce prisms with viewing angles of 12°, 25°, 30°, and 70°. Precise control of angles, dimensions, and optical coatings ensures excellent imaging performance.

Prisms are widely used in endoscopes, surgical microscopes, and other optical systems for beam deflection and splitting. In addition to standard 90° and 45° deflection prisms, we mass-produce prisms with viewing angles of 12°, 25°, 30°, and 70°. Precise control of angles, dimensions, and optical coatings ensures excellent imaging performance.

Custom optical filters are available, including narrowband, notch, bandpass, dual-band, triple-band, and quad-band filters. Standard fluorescence filter models, such as ICG filters, are also available.

Sapphire windows are available in various shapes, including round, oval, and horseshoe-shaped designs. Sapphire metallization services are also available.

Sapphire windows are available in various shapes, including round, oval, and horseshoe-shaped designs. Sapphire metallization services are also available.

In advanced medical optical equipment, such as surgical microscopes, endoscopic systems, optical coherence tomography systems, and laser therapy devices, precision structural components are essential for long-term accuracy, stability, and reliability. We process metals including aluminum, copper, stainless steel, and magnesium alloys, as well as non-metallic materials such as PEEK, using four-axis and five-axis machining centers.

Designed to pair with flexible endoscopes such as gastroscopes and colonoscopes, it features compact size and excellent bending resistance. Its core function is to capture high‑definition images of internal lumens to enable minimally invasive observation.

The "light source window" for flexible endoscopes features high light transmittance and resistance to body‑fluid corrosion. It delivers uniform illumination for intraluminal imaging to ensure clear visuals.

Applied to rigid endoscopes such as laparoscopes and thoracoscopes, it renders natural‑color images of internal organs via white‑light imaging, serving as the core viewing component for routine minimally‑invasive surgeries.

Compatible with indocyanine green (ICG) and methylene blue (MB) fluorescent contrast agents, it enables visualization of blood vessels, lymphatic tissues and lesioned tissues, facilitating precise localization of target regions during surgery.

An interface component for rigid endoscopes, it delivers high positioning accuracy and superior sealing performance. Compatible with various surgical instruments, it meanwhile ensures stable optical paths and prevents contamination.

Used in conjunction with surgical microscopes, it delivers a 3D stereoscopic field of view, assisting surgeons in judging tissue depth, improving the accuracy of delicate manipulations and reducing surgical risks.

Dental‑specific, compact, portable and anti‑fogging. It rapidly scans tooth surfaces to acquire three‑dimensional data for orthodontic treatment planning, dental crown restoration and other applications.

It provides magnified local field‑of‑view for delicate surgeries such as ophthalmic and dental procedures. Lightweight and easy to wear, it does not interfere with surgeons’ operations and improves surgical precision.

The 3D white‑light module serves as the "binocular vision" of the endoscope system. Through dual parallel optical channels, it simulates human‑eye parallax to deliver realistic, depth‑perceptive and stereoscopic surgical views for surgeons on the display, laying the foundation for sophisticated procedures such as precise dissection and suture.

High‑precision optical glass lenses feature excellent temperature resistance and anti‑aging performance, and are specifically used in high-reliability imaging systems such as automotive cameras and PGUs.

High‑precision optical glass lenses feature excellent temperature resistance and anti‑aging performance, and are specifically used in high-reliability imaging systems such as automotive cameras and PGUs.

High‑precision optical glass lenses feature excellent temperature resistance and anti‑aging performance, and are specifically used in high-reliability imaging systems such as automotive cameras and PGUs.

High‑precision optical glass lenses feature excellent temperature resistance and anti‑aging performance, and are specifically used in high‑reliability imaging systems such as automotive cameras and PGUs.

Multi‑type aspherical injection‑molded lenses, featuring lightweight design and high consistency. Widely applied in cost‑sensitive automotive solutions such as wide‑angle cameras and short‑range sensing.

Single‑axis focusing control elements, used for LiDAR beam collimation and HUD light‑field homogenization, optimizing illumination uniformity and detection efficiency.

Precision optical prisms realize optical path folding and deflection. Applied in LiDAR, HUD and multi‑optical‑path integration to improve system space utilization.

Various types of optical filters precisely filter stray‑light interference to improve the image signal‑to‑noise ratio of cameras under strong‑light and nighttime conditions.

High‑reflectivity coated mirrors, featuring high temperature resistance and low thermal distortion. Applied for LiDAR scanning and DLP automotive lighting optical reflection systems.

Precision retarder components for laser polarization state modulation. They improve anti‑reflection interference performance of LiDAR and ToF sensors, and enhance target recognition accuracy.

Supports optical scanning across different fields of view and is widely used in high-precision, long-range LiDAR systems, providing reliable and stable scanning performance.

High-collimation laser/LED transmitter lenses deliver uniform light spots over long distances for LiDAR and intelligent automotive lighting systems.

High-stability laser collimation modules maintain consistent beam quality across a wide temperature range, making them key components for LiDAR and automotive optical communication systems.

Compact, high-resolution image-generation lenses are designed for DLP and LCoS microdisplays, delivering ultra-high-quality image projection for AR-HUD systems.

Intelligent matrix headlight optical lenses. Supports ADB adaptive driving beam and projection warning, improving driving safety and lighting intelligence.

Glass lenses are transparent optical components that control light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine the direction of light, making them essential components in cameras, microscopes, telescopes, eyewear, and other optical systems. Available types include convex, concave, and compound lenses.

Glass lenses are transparent optical components that control light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine the direction of light, making them essential components in cameras, microscopes, telescopes, eyewear, and other optical systems. Available types include convex, concave, and compound lenses.

Glass lenses are transparent optical components that control light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine the direction of light, making them essential components in cameras, microscopes, telescopes, eyewear, and other optical systems. Available types include convex, concave, and compound lenses.

Glass lenses are transparent optical components that control light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine the direction of light, making them essential components in cameras, microscopes, telescopes, eyewear, and other optical systems. Available types include convex, concave, and compound lenses.

Plastic lenses are made from optical-grade polymers and control light through refraction to provide focusing, divergence, or collimation. Compared with glass lenses, they are lighter, more cost-effective, and impact-resistant, making them ideal for lightweight, high-volume applications. Available types include convex, concave, and compound plastic lenses.

A cylindrical lens focuses light along one axis while expanding or compressing the image in the other. With positive or negative focal lengths, it can generate laser lines, modify image aspect ratios, shape anamorphic beams, and circularize laser output. Available types include plano-convex, plano-concave, bi-convex, bi-concave, meniscus, crossed-cylinder, custom-shaped, achromatic, reflective, freeform, and special-process cylindrical lenses.

Optical filters selectively transmit specific wavelengths while blocking unwanted spectral ranges. They are widely used in fluorescence microscopy, spectroscopy, clinical chemistry, machine vision, life sciences, imaging, industrial applications, and defense systems. Available types include UV, visible, infrared, bandpass, cutoff, neutral density, notch, dichroic, glass, plastic, crystal, hard-coated, soft-coated, polarizing, liquid crystal tunable, and linear variable filters.

Optical mirrors reflect and direct light for beam steering, interferometry, imaging, and illumination. They are widely used in life sciences, metrology, semiconductor manufacturing, and solar energy systems. Available types include plane, spherical, concave, aspheric, custom-shaped, high-reflectivity, partially reflective, and special-function mirrors, with glass, metal, or flexible substrates, as well as deformable mirror designs.

Optical windows combine high light transmission with environmental protection, allowing observation, inspection, or signal transmission while protecting internal components. They are widely used in industrial equipment, medical instruments, aerospace systems, and other demanding applications. Available types include glass, crystal, and plastic windows, functional-coated windows, industrial and tempered windows, sapphire windows, window assemblies, screen-printed windows, and polarizing windows.

Imaging lenses are core components that precisely focus images onto camera sensors for observation and analysis. Different designs can reduce angular and measurement errors or provide adjustable magnification, field of view, and focal length for specific applications. Available types include fixed-focal-length, telecentric, liquid, ruggedized, all-glass, glass-plastic hybrid, and plastic lenses.

Collimating lenses convert divergent or convergent light into a parallel beam, improving optical path accuracy in laser systems, spectroscopy, and optical inspection. Based on precise focal-length design, they minimize beam divergence and convergence. Available types include singlet, multi-element, and infrared collimating lenses.

Projection lenses magnify the pixel array from an image source and project it accurately onto a screen, producing a clear, uniform, large-format image. Their optical design directly determines image size, clarity, and installation flexibility and must be precisely matched to the resolution of the imaging source. Available types include ultra-short-throw, fixed-focal-length, and custom-shaped projection lenses.

Zoom lenses provide adjustable magnification for inspection, microscopy, and other imaging applications. Designed for seamless integration with imaging systems, they support manual or motorized control and allow flexible adjustment of magnification and focal length while maintaining consistent imaging performance.

Panoramic lenses are designed for ultra-wide-angle and full-view imaging. Through specialized optical designs or multi-lens configurations, they capture fields of view exceeding 180° to produce immersive panoramic images and videos with minimal blind spots. Widely used in surveillance, VR/AR, filmmaking, and automotive sensing, available types include ultra-wide-angle, single-lens, and automotive panoramic lenses.

A 3D line laser module integrates a line laser generator, imaging unit, and signal-processing unit into a complete 3D sensing system. The laser line is projected onto an object, while the built-in camera captures its deformation across surface height variations. Algorithms then calculate 3D coordinates for fast, high-precision modeling and dimensional measurement. Available types include single-line, grid-laser, and triangulation-based 3D line laser modules.

An imaging module integrates an optical lens, image sensor, driver circuit, and signal-processing unit into a complete imaging system. It focuses reflected light onto the sensor, converts it into electrical signals, and processes the data to produce clear digital images. Available types include endoscopic, automotive, and line-scan imaging modules.

A barcode scanning engine integrates optical capture, photoelectric conversion, decoding algorithms, and signal output into a compact identification component. It captures barcode images, converts optical signals into electrical data, decodes the stored numeric or character information, and outputs signals recognizable by the connected device. Available types include consumer-grade, industrial-grade, and high-temperature barcode scanning engines.

A laser collimation module integrates a laser source, optical collimation system, and driver control unit. It converts divergent light from a laser diode into a low-divergence parallel beam while maintaining stable laser power and continuous output. Available types include visible, ultraviolet, and reflective laser collimation modules.

Glass lenses are transparent optical components that control light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine the direction of light, making them essential components in cameras, microscopes, telescopes, eyewear, and other optical systems. Available types include convex, concave, and compound lenses.

Plastic lenses are made from optical-grade polymers and control light through refraction to provide focusing, divergence, or collimation. Compared with glass lenses, they are lighter, more cost-effective, and impact-resistant, making them ideal for lightweight and high-volume applications. Available types include convex, concave, and compound plastic lenses.

Prisms redirect light at specific angles and can also shift beams or change image orientation. Depending on their design, they operate through reflection, refraction, or a combination of both. Right-angle prisms typically redirect light by 90° through internal reflection, while wedge prisms shift light through refraction caused by their varying thickness. Available types include dispersing, reflecting, and roof prisms.

Cylindrical lenses feature one cylindrical surface, which enables incident light to be focused in one dimension while producing a stretching effect on the image. Their focal lengths can be positive or negative. Leveraging this property, cylindrical lenses are widely used in various scenarios: first, to focus incident light into a line or alter the aspect ratio of an image; second, for laser‑line generation, deformed beam shaping, and even annular laser output. Types of cylindrical lenses include: plano‑convex cylindrical lenses, plano‑concave cylindrical lenses, biconvex cylindrical lenses, biconcave cylindrical lenses, meniscus cylindrical lenses, cylinder‑to‑cylinder lenses, special‑shaped cylindrical lenses, achromatic cylindrical lenses, reflective cylindrical lenses, free‑form cylindrical lenses, and special‑process cylindrical lenses.

Optical filters selectively transmit specific wavelengths while blocking unwanted spectral ranges. They are widely used in fluorescence microscopy, spectroscopy, clinical chemistry, machine vision, life sciences, imaging, industrial applications, and defense systems. Available types include UV, visible, infrared, bandpass, cutoff, neutral density, notch, dichroic, glass, plastic, crystal, hard-coated, soft-coated, polarizing, liquid crystal tunable, and linear variable filters.

Optical mirrors reflect and direct light for beam steering, interferometry, imaging, and illumination. They are widely used in life sciences, metrology, semiconductor manufacturing, solar energy, and other optical applications. Available types include plane, spherical, concave, aspheric, custom-shaped, high-reflectivity, partially reflective, and special-function mirrors. Substrate options include glass, metal, and flexible materials, as well as deformable mirror designs.

Optical windows combine high light transmission with environmental protection, allowing observation, inspection, or signal transmission while protecting internal components. They are widely used in industrial equipment, medical instruments, aerospace systems, and other demanding applications. Available types include glass, crystal, and plastic windows, functional-coated windows, industrial and tempered windows, sapphire windows, window assemblies, screen-printed windows, and polarizing windows.

Metal structural components provide precision support and functionality within optical systems. They securely position optical elements, maintain optical alignment, protect against external interference, and minimize the impact of mechanical structures on optical performance. Available types include mounting and support components, adjustment and alignment mechanisms, protective and sealing parts, and connection and transmission components.

Injection-molded structural components are manufactured from optical-grade plastics using high-precision molding processes. They combine structural accuracy with optical compatibility to provide mounting, light transmission, adjustment, integration, protection, and sealing functions. Available types include mounting and support components, light-transmitting components, adjustment and integration parts, and protective and sealing components.

Projection lenses magnify the pixel array from an image source and project it accurately onto a screen to produce a clear, uniform, large-format image. Based on throw ratio, they are available in ultra-short-throw, short-throw, medium-throw, and long-throw designs, with both fixed-focus and zoom options.

Photographic lenses focus reflected light precisely onto CMOS or CCD sensors to produce clear, accurate images. Our portfolio includes fixed-focal-length, zoom, wide-angle, and telephoto lenses, delivering high resolution, low distortion, broad spectral coverage, and wide-aperture performance for professional photography, filmmaking, and industrial imaging.

Telephoto lenses use long focal lengths to magnify distant subjects, compress perspective, isolate the subject, and create strong background blur. Our telephoto lenses deliver high resolution, high contrast, and excellent long-range imaging performance.

Collimating lenses convert divergent laser light into a highly parallel beam while correcting spherical and chromatic aberrations. They are essential for maintaining beam quality, transmission efficiency, focused spot size, and processing accuracy in laser optical systems.

A fisheye lens is a specialized ultra-wide-angle lens designed to capture an exceptionally broad field of view. It covers a much wider scene than conventional wide-angle lenses while producing a distinctive curved distortion effect.

Beam expanders modify the diameter and divergence of a laser beam, enabling beam expansion or reduction. Our products cover UV, visible, and infrared wavelengths with customizable expansion ratios from 1.5× to 100×, offering high transmission, low wavefront distortion, and excellent beam quality.

Surveillance lenses are the core imaging components of video security systems, capturing clear images across diverse environments and lighting conditions. Designed for wide dynamic range, low-light imaging, infrared night vision, glare resistance, and weather protection, they serve as the “eyes” of surveillance systems.

Telecentric lenses are precision optical components for industrial machine vision. Available in object-space, image-space, and bi-telecentric designs, they minimize perspective and magnification errors for accurate measurement. Bi-telecentric lenses provide the highest imaging accuracy by maintaining telecentricity on both the object and image sides. Our telecentric lenses cover magnifications from 0.1× to 10× and support sensor formats from 1/3 inch to 4/3 inch, delivering high resolution, low distortion, high contrast, and excellent telecentricity.

Zoom lenses provide continuous focal length adjustment by changing the relative positions of internal lens groups while maintaining sharp focus. Our portfolio offers zoom ratios from 3× to 100× for full-frame, APS-C, and 1/2.3-inch sensors, delivering high resolution, low distortion, smooth zooming, and fast focusing.

F-theta lenses are key optical components in laser scanning systems such as laser marking and engraving. Their controlled barrel-distortion design provides flat-field scanning and a linear relationship between scan angle and image height, maintaining consistent spot size and energy density across the entire scan field.

SWIR lenses deliver clear imaging across 900–1,700 nm, with extended designs covering 700–3,400 nm. Optimized optical materials and coatings provide high-sensitivity imaging in low-light conditions and improved visibility through haze, moisture, tinted glass, and certain materials opaque to visible light. The lenses are compatible with InGaAs and other SWIR detectors.

MWIR lenses capture thermal radiation across the 2–5 μm range, typically 3–5 μm, using infrared materials such as silicon, germanium, and ZnSe with specialized coatings. When paired with MWIR focal plane detectors, they provide clear, passive thermal imaging in complete darkness with strong all-weather performance and interference resistance.

LWIR lenses capture thermal radiation in the 8–14 μm range using infrared materials such as germanium and chalcogenide glass, combined with specialized optical coatings. They produce clear thermal images in complete darkness and challenging weather conditions, offering reliable all-weather and passive imaging when paired with LWIR focal plane detectors.

Microscope objectives are the core imaging components that determine image quality, resolution, and magnification. Through precision optical design, they provide high-magnification, high-resolution imaging of fine sample details. A full range of objectives is available for UV, visible, and near-infrared wavelengths, including achromatic, semi-apochromatic, apochromatic, plan achromatic, and plan apochromatic designs. Advanced models deliver diffraction-limited performance across their specified wavelength ranges.

Glass lenses are transparent optical components that control light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine the direction of light, making them essential components in cameras, microscopes, telescopes, eyewear, and other optical systems. Available types include convex, concave, and compound lenses.

Glass lenses control the direction of light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine how light travels, making them essential components in cameras, microscopes, telescopes, and other optical systems. Available designs include convex, concave, and compound lenses.

Glass lenses control the direction of light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine how light travels, making them essential components in cameras, microscopes, telescopes, and other optical systems. Available designs include convex, concave, and compound lenses.

Glass lenses control the direction of light through refraction, enabling focusing, divergence, or collimation. Their curved surfaces determine how light travels, making them essential components in cameras, microscopes, telescopes, and other optical systems. Available designs include convex, concave, and compound lenses.

Prisms redirect light at specific angles and can also shift beams or change image orientation through reflection or refraction. Right-angle prisms typically redirect light by 90° through internal reflection, while wedge prisms shift light through refraction caused by their varying thickness. Available types include dispersing, reflecting, and roof prisms.

A cylindrical lens focuses light along one axis while expanding or compressing the image in the other. With positive or negative focal lengths, it can generate laser lines, modify image aspect ratios, shape anamorphic beams, and circularize laser output. Available types include plano-convex, plano-concave, bi-convex, bi-concave, meniscus, crossed-cylinder, custom-shaped, achromatic, reflective, freeform, and special-process cylindrical lenses.

Optical filters selectively transmit specific wavelengths while blocking unwanted spectral ranges. They are widely used in fluorescence microscopy, spectroscopy, clinical chemistry, machine vision, life sciences, imaging, industrial applications, and defense systems. Available types include UV, visible, infrared, bandpass, cutoff, neutral density, notch, dichroic, glass, plastic, crystal, hard-coated, soft-coated, polarizing, liquid crystal tunable, and linear variable filters.

Optical mirrors reflect and direct light for beam steering, interferometry, imaging, and illumination. They are widely used in life sciences, metrology, semiconductor manufacturing, solar energy, and other optical applications. Available types include plane, spherical, concave, aspheric, custom-shaped, high-reflectivity, partially reflective, and special-function mirrors. Substrate options include glass, metal, and flexible materials, as well as deformable mirror designs.

Available in zero-order, multiple-order, and achromatic designs for visible, near-infrared, and ultraviolet wavelengths. These wave plates are widely used in microscopy, laser systems, polarization interferometry, spectroscopy, and precision optical inspection.

A low-stress objective lens is designed to eliminate or minimize internal and assembly-induced stress. Rather than pursuing maximum resolution, it prioritizes long-term stability and imaging fidelity.

A telecentric lens combined with a relay lens forms a standardized, high-precision imaging system. It minimizes measurement errors, image distortion, and shadow interference, delivering stable imaging and accurate measurements while improving inspection accuracy and equipment reliability.

Defect inspection objectives address image blur, stray light, and poor visibility of fine defects. Combined with Köhler illumination and a telecentric lens, they form an integrated high-precision inspection system that improves machine-vision accuracy and reduces false detections and missed defects. They are suitable for both automated in-line inspection and precision laboratory quality control.

White-light interferometry objectives combine two-dimensional defect inspection with three-dimensional dimensional and height measurement. They can be integrated with Köhler illumination, telecentric lenses, and defect inspection objectives to create a complete optical system for 2D defect detection and 3D surface topography measurement.

A laser direct-writing lens tightly focuses a high-energy, coherent laser beam—typically ultraviolet or femtosecond—into a photoresist or material to create a diffraction-limited, high-energy-density 3D voxel. By precisely controlling the focal point in three dimensions, the system induces photochemical reactions such as two-photon polymerization or directly modifies and ablates the material to produce predefined micro- and nanostructures.