Product Details
Place of Origin: Made In China
Brand Name: Dayoo
Payment & Shipping Terms
Dielectric Strength: |
10 KV/mm |
Temperature: |
1600℃ |
Indicated Porosity: |
<0.2% |
Compressive Strength: |
2,000 MPa |
Mechanical Strength: |
High |
Surface Finish: |
Smooth |
Temperature Resistance: |
Up To 1,400°C |
Corrosion Resistance: |
Excellent |
Application: |
Kilns |
Thermal Expansion: |
4.3 X 10-6/K |
Shape: |
Customers' Request |
Maximum Temperature: |
1380℃ |
Quality Control: |
100% Inspection |
Dimensional Stability: |
Excellent |
Abrasion Resistance: |
Excellent |
Dielectric Strength: |
10 KV/mm |
Temperature: |
1600℃ |
Indicated Porosity: |
<0.2% |
Compressive Strength: |
2,000 MPa |
Mechanical Strength: |
High |
Surface Finish: |
Smooth |
Temperature Resistance: |
Up To 1,400°C |
Corrosion Resistance: |
Excellent |
Application: |
Kilns |
Thermal Expansion: |
4.3 X 10-6/K |
Shape: |
Customers' Request |
Maximum Temperature: |
1380℃ |
Quality Control: |
100% Inspection |
Dimensional Stability: |
Excellent |
Abrasion Resistance: |
Excellent |
3D-printed ceramic robotic arms are high-performance robotic components manufactured using advanced additive manufacturing technology. Made primarily from alumina (Al₂O₃) or silicon carbide whisker-reinforced ceramics, they offer exceptional mechanical strength, high-temperature resistance, and chemical stability. This technology combines the flexibility of 3D printing with the superior properties of ceramic materials, making them ideal for high-precision, high-load industrial automation applications.
Parameter | Typical Value |
---|---|
Material | Alumina (Al₂O₃), Silicon Carbide Whisker-Reinforced Ceramic |
Printing Technology | DIW-3D Printing / SLA 3D Printing |
Max. Temperature Resistance | 1600°C-1800°C |
Flexural Strength | 300-400 MPa |
Density | 3.6-3.9 g/cm³ |
Precision | ±0.1mm (SLA 3D Printing) |
Operating Environment | High-temperature, corrosive, high-vacuum |
A: Under normal conditions, they can last over 5 years--far exceeding traditional metal arms.
A: Yes, hybrid additive-subtractive manufacturing enables large-scale printing.
A: Custom ceramic composites with conductive additives can be produced.