CY9555 β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x0.1 mm THG@800nm

β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x0.1 mm THG@800nm Description

β-Barium Borate, with the chemical formula β-BaB2O4, is fabricated into a 6x6x0.1 mm crystal optimised for third-harmonic generation at 800 nm. The compact dimensions facilitate integration into optical systems while allowing efficient phase matching for frequency conversion. Stanford Advanced Materials (SAM) employs rigorous microstructural evaluations during production to minimise internal defects, ensuring consistent optical performance in precision laser applications.

β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x0.1 mm THG@800nm Applications

Laser Systems
- Utilised as a frequency conversion element in femtosecond laser setups to achieve ultraviolet output by leveraging optimised phase matching.
- Applied as a harmonic generator in high-power laser assemblies to convert near-infrared radiation, enhancing beam control through precise nonlinear interactions.

Optical Instrumentation
- Frequently used as a component in spectroscopic devices to secure stable wavelength outputs by leveraging its efficient third-harmonic generation capability.

β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x0.1 mm THG@800nm Packing

The crystal is housed in an anti-static, foam-lined container to minimise mechanical stress and prevent contamination. It is sealed in moisture-resistant packaging and accompanied by detailed storage guidelines to maintain its optical properties. Customised packaging options, including compartmentalised inserts and specific labelling, are available to cater to specialised handling and integration requirements.

Frequently Asked Questions

Q1: How does the 0.1 mm thickness impact the crystal’s performance?
A1: The 0.1 mm thickness minimises beam divergence and reduces temporal walk-off, which are critical for maintaining optimal phase matching during third-harmonic generation in femtosecond laser applications.

Q2: What quality control techniques are employed during its production?
A2: The manufacturing process uses X-ray diffraction and high-resolution optical microscopy to verify crystal structure and surface uniformity, ensuring that phase-matching parameters meet stringent standards for optical applications.

Q3: How should this crystal be incorporated into an optical setup?
A3: Proper integration requires precise alignment using standard optical mounts. Its defined geometry and phase-matching properties enable straightforward positioning within laser systems, provided that thermal and mechanical stability is maintained during operation.

Additional Information

Non-linear optical crystals such as β-Barium Borate are crucial in frequency conversion processes within photonics. Their ability to generate harmonics is foundational for applications spanning from advanced lasers to optical signal processing. The material's inherent transparency and nonlinear coefficients are key parameters that influence overall performance.

Advancements in crystal growth and quality control have significantly improved the consistency and efficiency of NLO devices. Techniques such as X-ray diffraction and surface microscopy offer detailed insights into microstructural quality, supporting ongoing innovations in optical instrumentation and laser technology.