High Power Laser Plano Convex Lenses

Optical plano-convex lenses are made of high-quality materials such as Schott, Hoya, Ohara, CDGM optical glass, Crystal and Corning fused silica. These materials have high transmittance, low refractive index, good thermal stability and chemical stability. These plano-convex lenses are widely used in laser focusing, beam collimation, spectral analysis and other fields. The size, focal length and coating can be customized according to customer needs.

This Calcium Fluoride Double-Convex Lens offers outstanding transmission from ultraviolet to infrared regions, providing low dispersion, high laser damage threshold, and excellent imaging quality for precision optical systems.

The UV Fused Silica Aspheric Lens is crafted from high-purity fused silica and precisely engineered to minimize spherical aberration and improve focusing accuracy. It is ideal for UV laser collimation, high-resolution imaging, and precision optical measurement systems.

This UV Fused Quartz Plano-Convex Cylindrical Lens is crafted from high-quality fused quartz, designed for beam shaping and focusing applications, delivering exceptional optical performance for high-precision optical systems.

Round sapphire optical windows provide excellent hardness and high transmission, ensuring stable performance from UV to IR bands, ideal for protecting electronic sensors and detectors.

The laser plano convex lens is made of Corning 7980 material, featuring high transmission and high laser damage threshold, designed for 355nm, 532nm, and 1064nm wavelengths, widely used in laser processing and research applications.

The laser flat optical window is made from premium optical glass, offering excellent transmission and surface flatness to ensure stable beam quality and protect sensitive optical components in high-power laser systems.

The UV fused silica laser mirror is designed with a precision-polished fused silica substrate and multilayer dielectric coating, Achieve up to >99.5% reflectivity in the 244–1064 nm band (center band optimization) With low scatter and high thermal stability, it ensures optimal performance for lasers, medical imaging, and optical communication systems.