What is Thulium Oxide (Tm2O3) Micron Powder?

Thulium Oxide (Tm2O3) Micron Powder is a rare earth metal oxide known for its high-temperature stability, optical properties, and applications in lasers, electronics, and nuclear reactors. It is widely used in specialized industrial, medical, and scientific applications.

Chemical Properties and CAS Number

• Material: Thulium Oxide (Tm2O3)
• CAS Number: 12036-44-1
• Appearance: White or pale green powder
• Density: ~8.6 g/cm³
• Melting Point: ~2341°C
• Particle Size: Varies from micron to nano-scale depending on application
• Solubility: Insoluble in water, soluble in acids
• Thermal Stability: High-temperature resistant

Applications of Thulium Oxide (Tm2O3) Micron Powder

1. Laser and Optical Applications

Used in solid-state lasers and infrared optical devices due to its unique luminescent and infrared absorption properties.

2. Electronics and Semiconductor Industry

Applied in advanced semiconductor materials, thin-film coatings, and high-performance electronics.

3. Medical Imaging and X-Ray Devices

Utilized in medical imaging, X-ray phosphors, and radiation detection technologies.

4. Nuclear Reactor Materials

Incorporated into nuclear reactors as a neutron absorber due to its high neutron capture cross-section.

5. Advanced Ceramics and Catalysts

Employed in high-performance ceramics, catalysts, and glass manufacturing.

Pricing of Thulium Oxide (Tm2O3) Micron Powder

Pricing varies based on purity, particle size, and industrial application:

• Standard Grade: Typically ranges from $3000 – $8000 per kilogram
• High-Purity Grade: Prices range from $8000 – $15000 per kilogram, optimized for advanced optical and medical applications.

Factors Influencing Pricing

• Purity and particle size distribution
• Bulk purchasing volume
• Industry demand from laser, medical, and nuclear sectors
• Advanced production methods and refinement processes

Conclusion

Thulium Oxide (Tm2O3) Micron Powder is a highly specialized material used in laser technology, semiconductor manufacturing, medical imaging, and nuclear applications. Its rare earth properties make it a valuable component in advanced scientific and industrial fields.