SI11524 Fused Quartz Evaporating Dish

Fused Quartz Evaporating Dish Description

The Fused Quartz Evaporating Dish is fabricated from amorphous silicon dioxide (SiO₂), a material known for its low thermal expansion and chemical inertness. Its construction ensures that high-temperature evaporation processes occur without significant dimensional change or contamination. The material's stability under rapid temperature variations makes it suitable for precision experimental protocols in research and industrial settings.

Fused Quartz Evaporating Dish Characteristics

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

Fused Quartz Evaporating Dish Applications

1.       Laboratory Research
   - Used as a reaction vessel in evaporation systems to achieve contamination-free sample processing by leveraging its chemical inertness.

2.       Semiconductor Processing
   - Applied as a containment unit during high-temperature deposition processes to attain minimal thermal distortion through controlled thermal expansion.

3.       Material Analysis
   - Serves as a sample holder in analytical instruments to maintain dimensional accuracy under varied thermal environments by utilising its stable thermal properties.

Fused Quartz Evaporating Dish Packing

The dish is packaged in cushioned, anti-static materials and individually wrapped in inert barriers to minimise the risk of contamination. It is secured within a rigid, foam-lined container designed to absorb mechanical shocks. Storage instructions advise a clean, dry, and temperature-controlled environment. Custom packaging arrangements, including compartmentalisation and specific labelling, are available upon request.

Additional Information

Fused quartz is an amorphous form of silicon dioxide that exhibits a unique combination of thermal and chemical properties. Its low thermal expansion coefficient and high softening point allow equipment manufactured from this material to endure rapid temperature changes without compromising structural integrity. This makes it a critical component in many high-precision laboratory processes.

In laboratory and industrial settings, the use of fused quartz extends to applications requiring high purity and stability. Its exceptional chemical inertness prevents contamination of sensitive reactions, and its consistent thermal behaviour ensures reliable performance in processes such as evaporation, deposition, and analytical measurements.