SI11506 Quartz Glass Ampoule

Quartz Glass Ampoule Description

Quartz Glass Ampoule is manufactured from high-purity fused quartz (SiO₂), acknowledged for its chemical inertness and low thermal expansion. Designed for controlled laboratory environments, the ampoule provides secure containment for samples and reagents. Its construction minimises contamination risks and is optimised for integration with standard lab setups, making it suitable for a variety of analytical and synthetic applications.

Quartz Glass Ampoule Characteristics

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Quartz Glass Ampoule Applications

1.       Chemical Analysis
   - Used as a containment vessel in sealed reaction systems to achieve isolation of reactive chemicals by leveraging fused quartz's chemical inertness. This minimises contamination and ensures accurate analytical results.

2.       Material Synthesis
   - Applied as a reactor ampoule in high-temperature synthesis processes to maintain dimensional stability. The ampoule's low thermal expansion supports uniform heating and minimises stress during synthesis.

3.       Spectroscopic Measurements
   - Serves as a sample holder in spectroscopic instruments to enhance optical clarity. Its transparency and chemical stability reduce interference, benefiting high-precision optical measurements.

Quartz Glass Ampoule Packing

Quartz Glass Ampoules are individually packaged in cushioned, anti-static containers layered with inert protective materials. They are sealed in moisture-resistant pouches to guard against contamination and mechanical shock during transit and storage. Packaging solutions maintain stable temperature conditions to preserve material integrity. Custom packing options, including specialised compartmentalisation and labelling, are available to meet specific laboratory handling requirements.

Additional Information

Fused quartz is widely acknowledged in materials science for its exceptional chemical and thermal properties. Its usage in laboratory equipment stems from a well-established body of research highlighting its stability during thermal cycling and resistance to chemical attack.

Advancements in quartz processing techniques have refined the production of ampoules with stringent dimensional tolerances and minimal surface defects. These improvements support reliable performance in sensitive analytical and synthetic applications, contributing to higher accuracy in experimental outcomes.