Showing 1–12 of 19 results
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- Lightweight and Strong: Combines low density with excellent mechanical properties.
- Superior Thermal Stability: Maintains integrity at elevated temperatures.
- High Oxidation Resistance: Ideal for extreme thermal and environmental conditions.
- Customizable Al-Y Ratios: Tailored to specific industry requirements.
- Versatile Particle Sizes: From nanoscale to micrometer ranges for diverse applications.
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- Efficient Eye-Safe Laser Emission: Strong laser output around 2.1 µm, ideal for safe medical and military applications.
- Self-Q-Switching Capability: Enabling compact laser designs without external modulators.
- High Optical Homogeneity: Ensures stable laser performance with minimal beam distortion.
- High Thermal Conductivity: Supports high-power laser operation with effective heat management.
- Long Fluorescence Lifetime: Enhances energy storage for pulsed laser systems.
- Excellent Mechanical and Chemical Stability: Resistant to environmental degradation.
- Direct Diode Pumping Compatibility: Allows for highly efficient, compact laser systems.
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- Strong and efficient emission at 2940 nm, ideal for water-rich tissue targeting
- Direct pumping at 980 nm or 1532 nm allows use of commercially available diode lasers
- High slope efficiency and low quantum defect, minimizing thermal load
- High thermal conductivity (~11 W/m·K) for superior heat dissipation
- Stable performance under high average and peak power operations
- High optical homogeneity and low absorption losses
- Durable mechanical properties, chemically stable in demanding environments
- Broad transparency range: 0.5 μm to 5.5 μm
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- High efficiency lasing at 1064 nm
- Enhanced pump absorption under broadband light (flashlamp)
- Ce³⁺ doping improves resistance to UV-induced damage
- Low thermal lensing and high optical quality
- Supports high-energy Q-switched operation
- High chemical and mechanical stability
- Long fluorescence lifetime and excellent beam quality
- Transparent from 0.25 μm to 5.0 μm
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- Dual emission wavelengths: 1047 nm (σ polarization) and 1053 nm (π polarization)
- Naturally polarized output (birefringent crystal)
- Low thermal lensing and low quantum defect
- Longer fluorescence lifetime than Nd:YAG (~480 µs)
- Broad absorption bands suitable for diode pumping (e.g., 792 nm and 797 nm)
- High efficiency and excellent beam quality
- Suitable for high-energy pulsed and mode-locked operations
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- Strong emission near 2.0 μm (typically 2010–2020 nm)
- Broad absorption bands around 785–805 nm (diode pump compatible)
- High quantum efficiency via cross-relaxation process
- Eye-safe wavelength region (2 μm)
- Low threshold and high slope efficiency
- Excellent mechanical hardness and thermal conductivity
- Suitable for both CW and pulsed operation
- High beam quality and long fluorescence lifetime
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- High Purity: Yttrium pellets are typically available in purity levels of 99.9% or higher, ensuring high-quality and defect-free thin films.
- Thermal Stability: Yttrium’s high melting point and thermal resistance make it suitable for high-temperature applications.
- Versatile Deposition: Suitable for thermal and e-beam evaporation, yttrium can be used to create smooth, uniform coatings.
- Enhancing Material Properties: Yttrium’s role as an additive improves the performance of materials, especially in electronics and ceramics.
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- High Temperature Resistance: Yttrium has excellent thermal stability, making it valuable in materials exposed to extreme temperatures.
- Corrosion Resistance: Yttrium improves the corrosion resistance of alloys and ceramics, particularly in environments with aggressive chemicals or high heat.
- Magnetic Properties: Yttrium is used in yttrium iron garnets (YIG), which have magnetic properties useful in microwave filters and resonators.
- Lightweight: Yttrium is relatively light, making it ideal for high-strength, lightweight alloys used in industries like aerospace.
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Yttrium sputtering targets are essential for producing thin films with high thermal stability, excellent corrosion resistance, and unique electronic or optical properties. Their applications in semiconductors, superconductors, optoelectronics, and advanced materials highlight yttrium’s importance in cutting-edge technology.
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- High purity (≥99.9% or ≥99.99%).
- Excellent thermal and chemical stability.
- Uniform pellet size for consistent deposition.
- Customizable specifications to meet diverse application needs.
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- High Purity: ≥99.9% purity for consistent performance and reliability in sensitive applications.
- Excellent Optical Properties: Suitable for laser and phosphor applications.
- Thermal Stability: Can withstand high temperatures without degradation.
- Chemical Stability: Resists corrosion and oxidation, enhancing durability in harsh environments.
- Superior Dielectric Properties: Ideal for use in electronic and energy storage applications.
- Fine Particle Size: Available in various particle sizes for different manufacturing processes.
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- High Thermal Stability: Y₂O₃ maintains stability even at high temperatures, making it suitable for applications that require heat resistance.
- Wide Bandgap: Its wide bandgap allows Y₂O₃ to function effectively as an insulator and dielectric in electronic devices.
- Excellent Optical Properties: Y₂O₃ exhibits high transmittance in the visible and infrared ranges, making it ideal for optical coatings and laser technologies.
- Corrosion Resistance: Y₂O₃ offers excellent resistance to chemical corrosion, making it valuable in environments where exposure to aggressive chemicals is common.
