Clear Aperture 90% Optical Grade Sapphire Iridescent Prism Display
C axis Coating For Precise Optics
Welcome to know about Sapphire:
Sapphire is composed of alumina, and its crystal structure is
hexagonal lattice structure.
Synthetic sapphire common application facets are A-Plane,C-Plane,
and R-Plane. Due to the wide optical penetration band of sapphire,
it has good light transmission from near ultraviolet (190nm) to
mid-infrared. Therefore, it is widely used in optical components,
infrared devices, high-intensity laser lens materials.
Sapphire also has the characteristics of high sound velocity, high
temperature resistance, corrosion resistance, high hardness, high
light transmittance, high melting point (2045℃), etc., so it is
often used as a material for photoelectric components.
Technical Parameters:
| Product Name | Sapphire Optical Prism |
| Material | Sapphire single crystal |
| Size range | 1-300 mm |
| Diameter tolerance | +0/-0.05 mm |
| Thickness tolerance | ±0.05 mm |
| Parallelism tolerance | ±2''~±10'' |
| Surface quality | 60/40 or better |
| Bevelling | 0.1-0.3 mm |
| Surface precision | λ/6 per @633nm |
Sapphire Components:
Sapphire's range of superior qualities make it ideal for optical
and non-optical components.
From the forward-facing optics of
imaging systems to the thermal insulators in plasma systems,
Sapphire's performance at extreme physical conditions often make it
the preferred choice for the following:
Sapphire Lightguides
Sapphire offers higher working temperatures in applications such as
temperature thermometry and IPL systems, with a broad transmission.
Sapphire Lenses
High optical quality Sapphire is used for lenses in systems that
require durability and ruggedness where standard materials suffer
from grit, impact and temperature damage. Sapphire lenses also
offer high performance in laser devices, offering high thermal
conductivity.
The broad transmission of Sapphire, across visible and NIR
spectrums, make it ideal for FLIR imaging systems in hazardous
environments, or where the reduced thickness of Sapphire lenses
lead to reduced system footprint.
Sapphire Tubes
Sapphire tubes, made using the Stepanov growth method, replace
glass and quartz tubes in high temperature and pressure systems
such as plasma applications and insulators.
Sapphire Pins and Rods
As well as the optical proporties offered by Sapphire rods for
fibre optcal and light-guide applications, the physical strength
and inert nature of Sapphire make it ideal for engineering and
structural uses.
Delivery:
