VY Optics demonstrates outstanding professional competence and innovative spirit in the field of optical structural design.

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    VY Optics has rich experience in structural design, effectively managing the entire lifecycle from conceptual design to product implementation, ensuring projects are completed on time and with high quality.

    Core Competitiveness

    Technical Expertise and R&D Strength

    Our research and development team, composed of seasoned optical engineers, is proficient in modern optical theory, familiar with various optical material characteristics, and adept at utilizing advanced optical design software such as Zemax and CODE V for complex optical system modeling and simulation.

    Customized Solutions

    We excel at providing customized optical structural design solutions based on specific customer requirements. Our expertise spans precision microscope systems, night vision systems under complex conditions, high-power laser optical systems, as well as high-precision telescopes, industrial inspection equipment, and more.

    Innovative Application of Optical Materials and Processes

    VY Optics keeps pace with the development of optical material science, actively introducing and innovatively applying new optical glasses, crystals, thin films, and composite materials to enhance the performance and efficiency of optical structures.

    Multi-Physics Coupling Design and Optimization

    We fully consider the interaction of multiple physical fields such as optics, thermodynamics, mechanics, and electronics in our design process. Advanced simulation tools are employed for multi-physics coupling analysis, ensuring high-performance performance of optical systems in complex environments.

    Precision Adjustment Technology

    In the adjustment phase, the company employs precision adjustment mechanisms and advanced detection equipment, executing strict adjustment processes to ensure the optical structures achieve high-precision alignment and stable operation as per design requirements.

    Recommended Products

    Technical Blogs

    Quartz Glass Dome Port

    VY Optics proudly presents our Quartz Glass Hemispherical Domes. Made from high-purity quartz glass, these high-performance domes boast exceptional physical and chemical properties, suitable for a wide range of demanding applications. Key Features: Exceptional High-Temperature Resistance: Our quartz glass hemispherical domes maintain stability and performance even in extreme temperatures, without deformation or breakage. Ideal for high-temperature environments, these domes offer durable protection. Low Thermal Expansion Coefficient: The low thermal expansion of quartz glass ensures dimensional stability during temperature fluctuations. This characteristic makes the hemispherical domes excel in high-precision applications, preventing deformation due to temperature changes. Superior Light Transmission: The domes feature high light transmission across a broad spectral range, especially in the ultraviolet region. Their excellent optical performance ensures clear and accurate results in optical instruments. High Chemical Stability: Quartz…

    Germanium

    Germanium is a chemical element located in group 14 of the periodic table, with the atomic symbol Ge. It is classified as a metalloid or semi-metal due to its unique properties, lying on the boundary between metals and non-metals. Key Properties and Applications of Germanium Physical Properties: Appearance: Germanium is a silver-white solid with a shiny, hard, and brittle texture. Melting Point: 938.4°C (1721.1°F) Boiling Point: 2830°C (5126°F) Thermal Conductivity: Germanium has high thermal conductivity, making it valuable in applications requiring efficient heat dissipation. Electrical Resistivity: The resistivity of germanium varies with temperature, which is fundamental to its role as a semiconductor material. Chemical Properties: Stability: Germanium is stable in air and water at room temperature but reacts with oxygen at high temperatures to form germanium dioxide (GeO₂). Reactivity: It…

    Difference Between Industrial and Camera Lenses: What You Need to Know

    Since our founding in 2010, we have been dedicated to the precision manufacturing of optical components. In 2018, we expanded our capabilities by establishing an R&D department focused on optical design, lens assembly, and the integration of opto-mechanical-electrical systems. As part of our commitment to sharing knowledge and supporting our clients, this article explores the key differences between industrial lenses and consumer camera lenses. Introduction Lenses are at the heart of all imaging systems, but not all lenses are created equal. While consumer camera lenses are designed for everyday photography, industrial lenses are engineered for high-performance imaging in rigorous environments. Understanding the difference between these two types of lenses is critical for selecting the right optical solution for your application. Key Differences between Photographic Lenses and Industrial Vision Lenses Here,…

    Negative glass filter

    A notch filter is an optical filter designed to block light at a specific wavelength or wavelength range while allowing other wavelengths to pass through. The main function of a notch filter is to “trap” a narrow band of the spectrum, effectively suppressing or filtering out light within that particular wavelength range. Notch filters are commonly used in applications that require precise removal of specific wavelengths of light, such as in laser systems, spectral analysis, and optical communication. Working Principle of Notch Filters The working principle of a notch filter relies primarily on interference effects or absorption mechanisms: Interference Effects: Multilayer Interference Coatings: Multiple layers of optical thin films are deposited on a substrate. The thickness and refractive indices of these films are precisely controlled to create interference effects that…

    What Are Aspherical Lenses? Uses and Benefits Explained

    What Are Aspheric Optical Elements? Aspheric optical components are lenses or mirrors with non-standard, non-spherical surfaces. Unlike traditional spherical optics, these elements feature customized freeform, elliptical, polygonal, or trapezoidal geometries that are tailored to meet specific optical performance requirements. They play a critical role in advanced optical systems across industries where high precision, compact design, or multifunctionality is required. Key Features of Aspheric and Irregular-Shaped Optics Custom Design Each component is uniquely engineered to minimize optical aberrations, improve imaging resolution, and optimize beam control. This results in compact, high-performance systems. Non-Standard Geometries These components go beyond circles and planes—featuring complex surfaces and edges that require ultra-precision fabrication. Multi-Functional Integration One optical element can integrate focusing, polarization, beam splitting, or wavefront control—functionality that typically requires multiple standard elements. High Efficiency By…

    Acrylic filter

    An acrylic filter is an optical filter made from acrylic material, also known as polymethyl methacrylate (PMMA). Acrylic is a lightweight, impact-resistant plastic with good optical properties and relatively low cost, making it widely used in the production of various optical components, including filters. Acrylic filters exhibit excellent optical characteristics and durability in many applications. Characteristics of Acrylic Filters Transparency: Acrylic materials have good transparency and can effectively transmit visible light and some near-infrared light. Impact Resistance: Acrylic is more resilient and less likely to break compared to glass, making acrylic filters more durable in practical applications. Lightweight: Acrylic is lighter than glass, so the filters made from it are also lighter, making them easier to handle and install. Machinability: Acrylic is easy to process and shape, allowing for the…