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                                                                                                                                                                                                                                                                                                                                                Conventional Type Crucible 2.25 G/Cm3, Conventional Type Crucible 2.21 G/Cm3, Silicon Carbide Silicon Carbide Crucible
                              

Material:	Silicon Carbide	Density:	2.21-2.25 G/cm3
Shape:	Round	Capacity:	1-100kg
Chemical Resistance:	High	Composition:	High Pure
Emperature Resistance:	Up To 1600°C	Slag Adherence:	Low
Name:	Graphite Carbon Crucible

Material:	Silicon Carbide
Density:	2.21-2.25 G/cm3
Shape:	Round
Capacity:	1-100kg
Chemical Resistance:	High
Composition:	High Pure
Emperature Resistance:	Up To 1600°C
Slag Adherence:	Low
Name:	Graphite Carbon Crucible

Silicon Carbide Round Conventional Type Crucible 2.21 - 2.25 G/Cm3 Density

Silicon Carbide Round Conventional Type Crucible (2.21-2.25 G/Cm3 Density)

Material	Silicon Carbide
Density	2.21-2.25 g/cm3
Shape	Round
Capacity	1-100kg
Chemical Resistance	High
Composition	High Pure
Temperature Resistance	Up to 1600°C
Slag Adherence	Low

Premium Round Crucible with Exceptional Corrosion Resistance

Our silicon carbide crucibles offer outstanding performance for demanding industrial melting applications, combining durability with superior thermal properties.

Key Advantages

Rapid Heat Transfer: Dense structure with minimal porosity enables swift heating and efficient thermal transfer
Extended Durability: 2-5 times longer service life compared to standard clay-graphite crucibles
Enhanced Strength: High-pressure molding creates robust structure with excellent high-temperature load capacity
Superior Corrosion Resistance: Advanced formulation protects against molten metal effects
Minimized Slag Build-up: Special interior design reduces adhesion, maintaining full capacity
Broad Temperature Range: Suitable for 400℃ to 1600℃ applications
Oxidation Reduction: Special elements minimize metal oxidation during melting
Energy Efficient: High thermal conductivity reduces fuel consumption and emissions