Siliziumkarbid (SiC) Round Mirror

Kernvorteile

Extreme thermal stability: CTE < 2×10⁻⁶/°C (20–400°C); thermal deformation only 1/50 of glass mirrors.

Ultra-high thermal conductivity: 200 W/m·K, eliminates thermal lens effect for kW-class lasers.

Ultra-precision optical surface: Ra ≤ 0.5 nm after polishing; reflectivity > 99.5% @ 1064 nm (coated).

Leicht & hohe Steifigkeit: Dichte 3.1 g/cm³; bending strength ≥ 400 MPa; specific stiffness (E/ρ) 4× that of fused silica.

Full environmental resistance: Radiation & acid/alkali resistant; operating temp: -200°C to 1650°C.

Anwendungen

1. High-Energy Laser Systems
   • Laser cutting focusing mirrors, fiber laser cavity mirrors, ultrafast laser chirp mirrors.
   • Directed energy weapon mirrors, laser fusion beam steering mirrors.

2. Luft- und Raumfahrt & Astronomy

• Space telescope primary/secondary mirrors, satellite multispectral imagers, deepspace infrared lenses.
• Ground observatory mirrors, satellite laser communication mirrors.

3. Halbleiter & Precision Manufacturing

• EUV lithography mirror substrates, wafer inspection interferometer mirrors.
• Infrared camera windows, highprecision metrology reference mirrors.

4. Research & Special Environments
   • Synchrotron beamline mirrors, nuclear reactor neutron optics, hightemp industrial monitoring mirrors.

Why Choose Our SiC Mirrors?

Leading materials & processes: CVD‑SiC for EUV‑level ultra‑precision; RB‑SiC for low‑cost large‑scale lightweight structures.

Full‑process quality control: Zygo interferometer surface testing, white‑light profiler roughness analysis, laser damage threshold testing (ISO 21254).

One‑stop customization: Aspherical, freeform, micro‑structured mirrors; blank‑polish‑coat‑assembly integration.

Global technical support: Optical design, thermal simulation, on‑orbit performance monitoring.