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Lutetium(III) Oxide Powder, Lu₂O₃

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Lutetium(III) Oxide Powder (Lu₂O₃)

Introduction

Lutetium(III) Oxide Powder (Lu₂O₃) is a rare and highly valuable rare-earth oxide, known for its excellent optical, electronic, and thermal properties. As one of the densest and most stable lanthanide oxides, Lu₂O₃ is extensively used in advanced optics, scintillators, phosphors, and specialty ceramics.

Detailed Description

Lutetium Oxide appears as a white, crystalline powder with a very high melting point (~2,490 °C) and density (~9.42 g/cm³). It is produced in ultra-high purities ranging from 99.9% (3N) to 99.999% (5N), ensuring low impurity levels for demanding applications in electronics and photonics.

Key features include:

  • High density and stability: Enhances performance in scintillators and ceramic composites.

  • Optical activity: Used as a host material for rare-earth-doped phosphors and laser crystals.

  • Thermal stability: Resistant to high temperatures and chemical attack.

  • Electrical properties: Functions as a high-k dielectric material in microelectronics.

Applications

Lutetium(III) Oxide Powder is widely applied in:

  • Scintillators: Host material in lutetium-based scintillation crystals (e.g., LSO, LYSO) for medical imaging and radiation detection.

  • Optics & Lasers: Used in specialty optical glasses and laser host materials.

  • Electronics: Thin films and dielectric layers in semiconductor devices.

  • Phosphors: As a base material for luminescent coatings and displays.

  • Ceramics: Advanced ceramics requiring high density and thermal stability.

Technical Parameters

ParameterTypical Value / RangeImportance
Purity99.9% – 99.999%Ensures high performance in optics and electronics
Particle Size100 nm – 5 µmNano powders improve thin films and sintering
AppearanceWhite crystalline powderIndicates purity and stability
Melting Point~2,490 °CExcellent for high-temperature applications
Density~9.42 g/cm³High density supports scintillator performance

Comparison with Related Materials

MaterialKey AdvantageTypical Application
Lutetium Oxide (Lu₂O₃)High density, optical hostScintillators, lasers
Yttrium Oxide (Y₂O₃)Optical transparency, stable structureOptical ceramics, coatings
Gadolinium Oxide (Gd₂O₃)Magnetic & neutron absorptionNuclear, MRI, optics

FAQ

QuestionAnswer
Why is Lu₂O₃ used in scintillators?Its high density improves radiation absorption, making it ideal for medical imaging detectors.
What purity grades are available?3N (99.9%), 4N (99.99%), and 5N (99.999%) depending on application.
Can Lu₂O₃ be used in electronics?Yes, it is used as a high-k dielectric in microelectronics.
Is Lu₂O₃ stable at high temperatures?Yes, with a melting point near 2,500 °C, it remains stable in extreme conditions.
How is it packaged?Vacuum-sealed containers for lab use; bulk shipments in lined drums.

Packaging

Lutetium(III) Oxide Powder is sealed in moisture-proof bottles or bags for small quantities. Industrial orders are shipped in export-grade drums or cartons with protective linings to prevent contamination.

Conclusion

Lutetium(III) Oxide Powder (Lu₂O₃) is one of the most valuable rare-earth oxides, offering unmatched density, stability, and optical properties. It is indispensable in scintillators, lasers, ceramics, and electronics, enabling progress in medical imaging, radiation detection, and advanced technologies.

For detailed specifications and a quotation, please contact us at [sales@thinfilmmaterials.com].

Order Now

Lu₂O₃ powder 99.9%–99.99% 1250 g

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FAQ

  • Metal powders are fine particles of metals produced through various processes such as atomization, reduction, or electrolysis. They are used in applications like additive manufacturing, powder metallurgy, and coatings.

  • Alloy powders consist of two or more metallic elements combined to enhance properties like strength, corrosion resistance, and ductility, whereas pure metal powders contain only a single element.

  • The shape affects flowability, packing density, and spreadability. Spherical particles are preferred in additive manufacturing due to their superior flow characteristics.

  • Spherical powders are typically produced using gas atomization, where molten metal is atomized into fine droplets that solidify into spherical shapes.

  • Spherical powders offer better flowability and packing density, leading to improved layer uniformity and mechanical properties in 3D-printed components.

  • Factors include particle size distribution, shape, chemical composition, purity, and production method.

  • Yes, metal powders can pose hazards such as toxicity, reactivity, combustibility, and instability. Proper handling, storage, and safety protocols are essential.

  • In powder metallurgy, metal powders are compacted and sintered to produce components with complex shapes and tailored properties, often with minimal waste.

  • Yes, unused or excess metal powders from manufacturing processes can often be collected, sieved, and reused, provided they meet quality standards.

  • The combination of different metals in alloy powders can enhance properties such as strength, hardness, corrosion resistance, and thermal stability, depending on the application requirements.

  • Spherical alloy powders are used in aerospace, automotive, medical implants, and tooling industries for manufacturing high-performance components via additive manufacturing and powder metallurgy.

Production methods like gas atomization, water atomization, and mechanical milling influence particle size, shape, and purity, which in turn affect the performance of the powders in various applications.

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