AC9823 Alumina Crucible, Al2O3 Crucible Cylinder, 95%, 880 mL

Alumina Crucible, Al2O3 Crucible Cylindrical, 95%, 880 mL Description

This Alumina Crucible is made from Al₂O₃ with a minimum purity of 95% and is designed in a cylindrical shape with an 880 mL capacity. Its composition provides chemical inertness and the mechanical strength required for high-temperature processes. The material's high compressive and flexural strength supports safe operation under thermal cycling. The specified thermal conductivity ensures effective heat distribution during prolonged heat treatments in industrial applications.

Alumina Crucible, Al2O3 Crucible Cylindrical, 95%, 880 mL Characteristics

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

Alumina Crucible, Al2O3 Crucible Cylindrical, 95%, 880 mL Applications

Industrial Processing
- Used as a refractory container in metal melting furnaces to achieve contamination-free high-temperature processing by leveraging its chemical inertness and thermal stability.
- Applied as a vessel for glass production to ensure uniform temperature distribution, reducing thermal shock during processing.

Laboratory Ceramics
- Functions as a crucible in high-temperature synthesis experiments to achieve precise thermal treatments by utilising its consistent mechanical strength.
- Serves as a reaction vessel in material testing systems where defined thermal conductivity aids in controlled heating and cooling cycles.

Alumina Crucible, Al2O3 Crucible Cylindrical, 95%, 880 mL Packing

The product is packaged in shock-absorbent foam-lined cartons with protective plastic wrapping to prevent mechanical damage and contamination. The packaging design supports secure stacking and minimises exposure to humidity and dust. Storage recommendations include a dry, temperature-controlled environment. Custom packaging options are available, accommodating special handling requirements and labelling for transportation safety.

Additional Information

Alumina ceramics have been extensively studied for their performance in high-temperature applications due to the material's stability and resistance to thermal shock. Researchers have demonstrated that controlled processing conditions and precise sintering techniques yield a microstructure that supports enhanced mechanical behaviour. This knowledge aids in driving optimisation approaches for industrial thermal processing equipment.

In the field of ceramic materials, understanding the relationship between chemical purity, processing parameters, and resultant properties is crucial. Alumina's combination of high melting point and refined grain structures makes it a valuable component in both laboratory research and industrial applications, supporting advancements in materials science and engineering.