MU10096 Molybdenum Crucible, Mo Crucible 7mL

Molybdenum Crucible, Mo Crucible 7mL Description

Molybdenum Crucible, Mo Crucible 7mL is a molybdenum-based container engineered for high-temperature environments in material processing and metallurgy. Its customised dimensions facilitate integration into specialised equipment, while a density of ~10.3 g/cm³ and a melting point of ~2620℃ allow it to withstand extreme thermal conditions. The mechanical properties, featuring tensile strength ≥830 MPa, yield strength ≥690 MPa, and a minimum elongation of 6%, ensure structural stability during rapid thermal cycles and repeated service.

Molybdenum Crucible, Mo Crucible 7mL Applications

Industrial Processing
- Used as a refractory container in melting furnaces to achieve controlled thermal environments by leveraging its high melting point and mechanical properties.
- Applied as a reaction vessel in high-temperature chemical processing systems to maintain material purity through its inert molybdenum composition.

Material Research
- Employed as a sample holder in laboratory furnaces to facilitate accurate thermal analysis by leveraging its customised dimensions and stable structural integrity.

Molybdenum Crucible, Mo Crucible 7mL Packing

The crucible is securely packaged in cushioned, anti-static materials within a rigid container to protect against mechanical damage and contamination. It is recommended to store the item in a dry, temperature-controlled environment to maintain its refractory properties. Custom packaging options, including moisture barriers and special labelling, are available to match specific handling requirements.

Frequently Asked Questions

Q1: How does the crucible withstand the high thermal stresses during operation?
A1: The crucible’s high melting point (~2620℃) and mechanical properties, such as tensile strength of ≥830 MPa, allow it to endure extreme thermal cycles. Its design and material purity minimise thermal shock and deformation, ensuring consistent performance during repeated high-temperature processing.

Q2: What quality control methods ensure the dimensional precision of the crucible?
A2: Stanford Advanced Materials (SAM) employs controlled heat treatment and microstructural evaluation, including dimensional metrology and visual inspections under high magnification, to verify that each crucible meets stringent tolerance requirements. This process minimises variability and ensures product uniformity for critical high-temperature applications.

Q3: Can the crucible be customised for specific equipment or research needs?
A3: Yes, the crucible dimensions are customisable to match precise equipment specifications. This flexibility enables its use in targeted applications where tailored geometry improves heat distribution and overall performance in high-temperature environments.

Additional Information

Molybdenum is a refractory metal recognised for its ability to retain strength at very high temperatures. Its inherent properties, including excellent resistance to thermal creep and fatigue, make it a material of choice in high-temperature industrial settings. Understanding the behaviour of molybdenum under extreme conditions is crucial for optimising process efficiency in material synthesis and metallurgical studies.

In the field of materials science, the integration of refractory metals into system designs is a critical element in advancing performance in heat-intensive applications. Research on molybdenum and its alloys continues to expand, underscoring its significance in both industrial processes and experimental research environments.