CY9556 β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x2 mm SHG@800nm

β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x2 mm SHG@800nm Description

β-Barium Borate Crystal, chemically known as β-BaB2O4, is fabricated with a precise 6x6x2 mm size to facilitate second harmonic generation (SHG) at 800 nm. Its well-defined crystallographic structure supports phase-matching conditions necessary for efficient nonlinear conversion. The controlled growth process minimises inclusions and defects, ensuring uniform optical properties. The defined geometry allows for integration with standard laser assemblies and optical bench setups in research and industrial systems.

β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x2 mm SHG@800nm Applications

Laser Systems
- Used as a frequency converter in ultrafast laser systems to achieve wavelength doubling by leveraging its reliable phase-matching attributes.
- Applied in pulse compression devices for generating shorter pulses by utilising its efficient nonlinear interaction.

Spectroscopy and Imaging
- Serves as a key optical component in spectroscopic setups to generate visible signals, addressing detection challenges via its predictable SHG properties.
- Frequently used in microscopy systems to enhance imaging contrast by converting near-infrared light to the visible spectrum.

β-Barium Borate Crystal BBO Crystal β-BaB2O4 6x6x2 mm SHG@800nm Packing

The crystal is packaged in a cushioned, anti-static container with a protective foam layer to minimise mechanical shock and contamination. It is stored in a sealed moisture-resistant bag with inert gas flushing to prevent oxidation. The packaging supports temperature control and vibration isolation during transport. Custom labelling and compartmentalisation options are available to accommodate specific storage and handling protocols requested by customers.

Frequently Asked Questions

Q1: How does the crystal’s dimensional precision influence its performance in SHG applications?
A1: The exact 6x6x2 mm dimensions ensure proper alignment in optical setups and maintain the phase-matching conditions critical to achieving consistent second harmonic generation. Dimensional precision minimises optical losses and supports repeatable performance during frequency conversion.

Q2: What quality control steps are implemented during the crystal growth process?
A2: The manufacturing process includes controlled temperature gradients and in-situ monitoring using interferometric methods to minimise defects. Post-growth assessments, such as surface interference mapping, ensure that the crystal meets strict optical uniformity standards required for laser applications.

Q3: Can this crystal be integrated into existing optical systems without modification?
A3: The defined geometry and well-characterised optical properties facilitate integration into standard laboratory laser assemblies. However, system-specific alignment adjustments may be necessary to optimise phase-matching and frequency conversion efficiency for tailored applications.

Additional Information

β-Barium Borate, or β-BaB2O4, is widely recognised in the field of nonlinear optics for its ability to up-convert laser wavelengths efficiently. The crystal’s lattice structure and birefringence characteristics are engineered during the growth process to maintain phase-matching over a range of operational conditions. Its use in optical setups bridges the gap between experimental research and industrial laser systems.

Nonlinear optical materials like β-BaB2O4 are integral to advancements in laser technology and spectroscopy. Research into such crystals not only enhances frequency conversion techniques but also deepens our understanding of light–matter interactions, which is essential for developing improved optical devices and measurement systems.