Showing 13–24 of 27 results
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- Excellent Lattice Matching: Ideal match for many perovskite oxides such as YBCO, BST, and PZT
- High Thermal Stability: Maintains structural integrity under high temperatures
- Low Dielectric Loss: Suitable for microwave and dielectric applications
- High Crystallinity: Enables defect-free epitaxial film growth
- Good Mechanical Strength: Durable for various thin-film deposition processes
- Smooth Surface Finish: Atomic-level flatness for epitaxial growth
- High Chemical Stability: Resists degradation during processing
- Wide Application Range: Compatible with superconducting, ferroelectric, and oxide-based systems
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- Lightest Structural Metal: Exceptionally low density for weight-sensitive applications
- Excellent Specific Strength: High strength-to-weight ratio
- Anisotropic Mechanical Properties: Ideal for deformation and slip system studies
- High Ductility at Elevated Temperatures: Improved formability in warm/hot conditions
- Good Machinability: Easier to process compared to other metals
- High Thermal Conductivity: Facilitates efficient heat dissipation
- Superior Homogeneity: Enables reproducible experimental results
- Corrosion Sensitivity: Useful for corrosion research and protective coating studies
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- Excellent Thermal Stability: Suitable for high-temperature processing (melting point ~2135°C)
- Wide Optical Transmission: From 200 nm (UV) to 5000 nm (Mid-IR)
- Superior Mechanical Strength: High hardness and fracture toughness
- Low Thermal Expansion: 8.5 × 10⁻⁶ /°C at 25°C
- High Chemical Resistance: Stable in both acidic and alkaline environments
- Low Dielectric Loss: Favorable for microwave and RF applications
- Surface Quality: Polished to atomic-level smoothness (Ra < 5 Å)
- High Purity: Low levels of impurities ensuring consistent and repeatable results
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- Excellent lattice matching for oxide thin films
- Wide transparency from UV to IR regions (0.3μm–6μm)
- High thermal conductivity and melting point (2852°C)
- Chemically inert to most acids and alkalis
- Low dielectric constant (ε ≈ 9.65 at 1MHz)
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- Excellent Thermal Stability: Maintains crystal integrity at high operating temperatures.
- Good Chemical Resistance: Resists degradation in acidic and basic environments.
- Low Lattice Mismatch: Ideal for the epitaxial growth of complex oxides and superconducting films.
- High Mechanical Strength: Reduces risk of cracking during processing and device operation.
- Superior Surface Quality: Supports high-quality thin film deposition.
- Perovskite-like Structure: Compatible with a broad range of oxide thin films.
- Stable Optical Properties: Suitable for use in optical communication and laser components.
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- Excellent Mechanical Strength: Suitable for high-stress applications
- Good Thermal Conductivity: Facilitates high-temperature processing
- Corrosion Resistance: Stable in oxidizing and reducing environments
- High Crystallinity: Supports high-quality epitaxial growth
- Magnetic Properties: Useful for spintronics and magnetic studies
- Surface Stability: Ideal for ultra-high vacuum (UHV) surface science experiments
- Customizable: Wide range of sizes, orientations, and surface finishes
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- Ultra-High Piezoelectric Coefficient (d₃₃ > 1500 pC/N): Enables extremely sensitive actuation and sensing.
- High Electromechanical Coupling Coefficient (k₃₃ > 0.9): Ensures efficient energy conversion.
- Large Strain (>0.1%): Suitable for actuators requiring high displacement.
- Low Dielectric Loss: Enhances energy efficiency and system stability.
- Superior Bandwidth and Sensitivity: Critical for medical ultrasound and SONAR transducers.
- Low Acoustic Impedance: Better matching with human tissues for biomedical applications.
- Customizable Crystal Composition (PMN-PT with various PT ratios): Tunable properties based on application requirements.
- Excellent Optical Quality (for thin PMN-PT films): Applicable in electro-optic modulators and photonic devices.
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- High Structural Perfection: Ideal lattice matching for growing oxide thin films such as superconductors and ferroelectric films.
- Excellent Dielectric Properties: High dielectric constant makes it suitable for tunable capacitors and microwave applications.
- Low Optical Absorption: Transparent in the visible to near-infrared spectrum, useful for optoelectronic devices.
- High Mechanical and Chemical Stability: Ensures robustness in diverse environments.
- Ferroelectric and Quantum Paraelectric Behavior: Suitable for research in quantum phase transitions and low-temperature physics.
- Epitaxial Growth Substrate: Preferred for epitaxy of functional oxide materials such as high-temperature superconductors, ferroelectric, and multiferroic materials.
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- Extreme surface hardness (Mohs 9, second only to diamond)
- Wide optical transmission from 150 nm (UV) to 5.5 μm (MWIR)
- High thermal conductivity and thermal shock resistance
- Excellent chemical inertness against acids and alkalis
- High dielectric strength and electrical insulation properties
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- Perfect cubic structure at room temperature
- High dielectric constant (~300 at room temperature)
- Low loss tangent
- Excellent lattice match with perovskite oxides (e.g., YBCO, LSMO, BST)
- High optical transparency in the visible and near-infrared range
- Atomically flat surfaces achievable after polishing
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- High Refractive Index: Ideal for optical coatings and photonic crystals.
- Wide Bandgap: Suitable for ultraviolet photodetectors and photocatalysis.
- Strong Birefringence: Enhances nonlinear optical effects and polarization control.
- Excellent Chemical Stability: Resistant to acids and alkalis under normal conditions.
- High Dielectric Constant: Beneficial for high-k dielectric applications in electronics.
- Superior Optical Transparency: From visible to mid-infrared wavelengths.
- Mechanical Strength: Supports demanding manufacturing and processing.
- Suitable for Epitaxial Growth: Template for oxide thin films such as perovskites.
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- High Thermal Stability: Suitable for high-temperature environments and laser operations.
- Excellent Mechanical Strength: Durable and resistant to cracking during processing.
- Broad Optical Transparency: Ranging from ~230 nm to 5.5 μm.
- Low Thermal Expansion Coefficient: Reduces thermal stress during device fabrication.
- High Refractive Index: Beneficial for optical and laser device efficiency.
- Good Chemical Resistance: Stable against most acids and alkalis under normal conditions.
- Low Dielectric Loss: Suitable for microwave and RF applications.
- Efficient Host Crystal: Ideal for rare-earth doping for laser crystals (e.g., Nd:YAP lasers).
