AC8739 Alumina Crucible, Al2O3 Crucible Conical, 95%, 1000 mL

Alumina Crucible, Al2O3 Crucible Conical, 95%, 1000 mL Description

Alumina (Al2O3) Crucible, 95% grade, with a conical design and 1000 mL capacity, serves as a high-temperature container for material processing. The specified compressive and flexural strengths provide assurance during heating cycles. Its established thermal conductivity supports even heat distribution, making it suitable for environments where controlled thermal behaviour is critical. This product is ideal for applications requiring consistent dimensional stability and controlled material interaction under elevated temperatures.

Alumina Crucible, Al2O3 Crucible Conical, 95%, 1000 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%, 1000 mL Applications

Industrial Processing
- Used as a heating vessel in high-temperature processes to achieve uniform melting by utilising its consistent thermal conductivity and mechanical strength.

Chemical Processing
- Applied as a reaction container in ceramic synthesis to maintain inert conditions by utilising its chemical stability and conical design.

Laboratory Research
- Serves as a sample holder in thermal analyses to enable precise measurements by exploiting its defined operating temperature and mechanical resilience.

Alumina Crucible, Al2O3 Crucible Conical, 95%, 1000 mL Packing

The crucible is packaged in anti-static wrapping and cushioned within foam-lined, moisture-resistant containers to guard against mechanical shocks and contamination. It is stored under ambient, dry conditions to avoid surface degradation. Custom packaging options, including secure case modifications and labelling, are available for managing bulk shipments and specialised storage requirements.

Additional Information

Alumina crucibles have long been a cornerstone of high-temperature processing in both research and industrial sectors. The inherent inertness and structural rigidity of alumina support experiments and production processes where chemical reactions at elevated temperatures can occur without contamination from the container.

Further, the thermal and mechanical attributes of alumina are critical in determining process outcomes in ceramics and metallurgy. Understanding these materials' behaviour under various thermal stresses aids engineers and researchers in designing precise and stable systems for material synthesis and analysis.