Technical Articles & Guides
Nd:YAG, Yb:YAG, and Er:YAG are the three most important YAG-based laser crystals, each optimized for different wavelengths and laser regimes. Nd:YAG is ideal for 1064 nm solid-state lasers and Q-switched systems, Yb:Y...
Comparison guide to the YAG crystal family, including Nd:YAG, Yb:YAG, Er:YAG, Cr:YAG, and Ce:YAG. Explains functional differences between laser gain media, passive Q-switches, and scintillators to help select the righ...
Technical guide to Cr:YAG (chromium-doped YAG) passive Q-switch crystals, explaining growth, Cr⁴⁺ valence control, initial transmission (T₀), optical polishing, coatings, and specification requirements for Q-switched ...
Yb:YAG is a high-efficiency gain medium for diode-pumped and ultrafast laser systems. Its low quantum defect, broad absorption at 940 nm, and strong thermal properties make it ideal for CW, high-power, femtosecond, an...
Nd:YAG is the world’s most important solid-state laser crystal. High-quality Nd:YAG requires precise Nd³⁺ doping, Czochralski growth, and laser-grade polishing to achieve stable 1064 nm operation. Researchers must spe...
Comprehensive technical guide to YAG (Yttrium Aluminum Garnet) crystals, covering growth methods, rare-earth doping options, orientation, optical polishing requirements, and specification guidelines for laser, optical...
When ordering custom-grown crystals, researchers must specify material, growth method, exact dimensions, orientation, dopant concentration, purity, polishing grade, and tolerances. Mechanical tolerances—such as thickn...
A technical overview of custom crystal growth methods for research and advanced materials.This guide explains major growth techniques, purity and doping control, crystallographic orientation, defect management, and su...