AC9854 Alumina Crucible, Al2O3 Crucible Square, 99%, 300 mL

Alumina Crucible, Al2O3 Crucible Square, 99%, 300 mL Description

The Alumina Crucible, Al2O3 Crucible Square, 99%, 300 mL is fabricated from high-purity alumina and designed in a square configuration to provide optimal process uniformity. Its dimensions ensure compatibility with standard high-temperature processing equipment. The specified mechanical strengths ensure resilience against thermal shock and mechanical stresses, while the controlled thermal conductivity supports efficient heat distribution. This makes the crucible suitable for applications requiring stable, high-temperature containment.

Alumina Crucible, Al2O3 Crucible Square, 99%, 300 mL Characteristics

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

Alumina Crucible, Al2O3 Crucible Square, 99%, 300 mL Applications

Industrial Applications
- Used as a containment vessel in high-temperature ceramic processes to achieve uniform heating by utilising its controlled thermal conductivity.
- Applied in metallurgical processes to hold and melt refractory metals, benefiting from its high compressive strength and low porosity.

Laboratory Applications
- Serves as a reaction vessel in advanced materials synthesis, offering a stable environment due to its chemical inertness and defined volume.
- Employed in analytical procedures where thermal stability and dimensional consistency are critical to process accuracy.

Alumina Crucible, Al2O3 Crucible Square, 99%, 300 mL Packing

The product is packaged in rigid, cushioned containers with anti-contamination wrapping to safeguard the ceramic during transit. Individual sealing prevents dust intrusion while offering protection against mechanical shocks. The packaging is designed for safe storage under controlled, dry conditions. Options for customised labelling and container sizes are available to meet specific handling and inventory requirements.

Additional Information

Alumina ceramics are recognised for their exceptional thermal stability and chemical inertness. Such properties make these materials indispensable in high-temperature applications where minimal reactivity is crucial. Research in materials science focuses on improving the purity and uniformity of alumina to enhance its thermal and mechanical properties in harsh environments.

Understanding the microstructural behaviour of alumina under thermal stress can lead to further advancements in ceramic fabrication, impacting industries from semiconductor manufacturing to specialised laboratory equipment. This educational insight underscores the importance of material selection in high-precision processing applications.