AC8730 Alumina Crucible, Al2O3 Crucible Conical, 95%, 15 mL

Alumina Crucible, Al2O3 Crucible Conical, 95%, 15 mL Description

This Alumina Crucible, Al2O3 Crucible Conical, 95%, 15 mL is fabricated from refined alumina with a purity of 95%. Its 15 mL capacity is suitable for laboratory-scale thermal processes, offering clearly defined thermal conductivity and mechanical strength. The conical geometry enhances controlled heat distribution and simplifies sample retrieval. These technical attributes support consistent behaviour during high-temperature experiments and material processing.

Alumina Crucible, Al2O3 Crucible Conical, 95%, 15 mL Characteristics

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

Alumina Crucible, Al2O3 Crucible Conical, 95%, 15 mL Applications

1.       Laboratory Processing
   - Used as a reaction vessel in high-temperature experiments to achieve uniform heat distribution by leveraging its consistent thermal conductivity.
   - Applied as a sample container in chemical synthesis to ensure stable material behaviour during controlled heating cycles.

2.       Industrial Ceramic Processing
   - Served as a crucible for melting and casting processes to achieve precise material development by leveraging its high compressive strength.
   - Frequently used in quality control setups for ceramics to maintain thermal consistency during repeated process cycles.

Alumina Crucible, Al2O3 Crucible Conical, 95%, 15 mL Packing

The crucible is packaged in a protective foam insert within a sealed, rigid container to minimise vibration and contamination. It is stored under controlled temperature and low-humidity conditions to maintain structural integrity. Anti-static and shock-absorbent materials are incorporated where needed. Custom packaging options, including compartmentalisation and dedicated labelling, are available upon request.

Additional Information

Alumina crucibles are pivotal components in high-temperature ceramic processing, where material purity and thermal properties significantly impact process reproducibility. The sintering process employed during manufacturing plays a critical role in achieving a uniform microstructure, which in turn affects heat distribution and mechanical stability. 

Continuous advancements in ceramic processing techniques aim to further reduce porosity and enhance durability, influencing both academic research and industrial applications. Understanding the interplay between material composition and thermal behaviour is essential to optimising experimental outcomes in material science laboratories.