BE10063 Beryllium Oxide Window, Beryllia Ceramic Window, BeO Window 0.25 mm thick

Beryllium Oxide Window, Beryllia Ceramic Window, BeO Window 0.25 mm thick Description

Beryllium Oxide Window, Beryllia Ceramic Window, BeO Window 0.25 mm thick is manufactured from BeO with a minimum purity of 99% and is formed as a disc with a 0.25 mm thickness. The defined density of 2.85 g/cm³ contributes to its thermal management and mechanical stability. This product’s dimensional precision supports its integration into optical and imaging systems where controlled material properties are critical for performance.

Beryllium Oxide Window, Beryllia Ceramic Window, BeO Window 0.25 mm thick Applications

Electronics and Optical Systems
- Used as a protective window in optical sensor modules to mitigate contamination by leveraging the material’s chemical inertness and precise 0.25 mm thickness. This ensures minimal optical distortion in imaging applications.
- Applied as an element in laser collimators to control beam divergence, using its consistent density and thermal management properties to maintain alignment under varying operating conditions.

Industrial Instrumentation
- Serves as a sealing component in imaging equipment to manage thermal gradients by utilising the material’s controlled thickness and density. This integration aids in maintaining operational stability in precision instruments.

Beryllium Oxide Window, Beryllia Ceramic Window, BeO Window 0.25 mm thick Packing

The ceramic window is packaged in an anti-static, foam-lined container to protect against mechanical shock and contamination. Each unit is sealed within a moisture-resistant bag and stored under temperature-controlled conditions to preserve its material properties. Custom packaging options, including compartmentalised trays and specific labelling, are available to meet specialised storage and handling requirements.

Frequently Asked Questions

Q1: How does the 0.25 mm thickness influence optical performance?
A1: The fixed 0.25 mm thickness minimises optical distortion and ensures efficient thermal conduction, which is critical for maintaining the integrity of optical signals in precision applications.

Q2: What quality control methods verify material consistency?
A2: SAM employs microstructural analysis and quantitative density measurements to ensure each BeO window meets specified purity and dimensional tolerances, reducing variability in performance.

Q3: Can this window be integrated into standard optical assemblies?
A3: Yes, its disc form and precise dimensional tolerances allow for straightforward integration into optical modules and imaging systems, ensuring consistent mechanical fit and alignment.

Additional Information

BeO ceramics provide a unique combination of high thermal conductivity and electrical insulation. The inherent properties of BeO make it a preferred material in applications where precise dimensional control and rapid heat dissipation are essential. Its ceramic structure supports optical clarity and stability under thermal stress, factors crucial for high-precision instruments.

In advanced optical systems, materials with controlled thickness and density play a vital role in achieving reliable performance. Understanding the interplay between material properties and system design helps engineers optimise integration and performance, particularly in environments subject to rapid thermal fluctuations.