Showing 13–22 of 22 results
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- High Purity: Ensures minimal contamination and consistent deposition performance.
- Optimal Stoichiometry: Precisely controlled Si and Te ratio for superior material properties.
- Wide Compatibility: Suitable for various deposition techniques, including PVD and sputtering.
- Excellent Film Properties: Supports the production of uniform, high-quality thin films.
- Customizable Options: Flexible sizes and shapes to fit diverse sputtering systems.
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- Thermoelectric Efficiency: Outstanding thermoelectric performance with a high Seebeck coefficient and low thermal conductivity.
- Optoelectronic Properties: High carrier mobility and sensitivity to infrared light.
- Customizable Sizes: Tailored particle sizes for various research and industrial needs.
- Stable Crystal Structure: Rock-salt (NaCl-type) structure for robust stability.
- High Purity: Ultra-pure material for precise and repeatable results.
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- High Purity: Reduces impurities, ensuring superior thin-film quality.
- Stable Composition: Precisely controlled Sn and Te ratio for consistent performance.
- Excellent Film Properties: Produces smooth, high-density, and defect-free films.
- Versatile Deposition: Suitable for PVD and other thin-film coating techniques.
- Customizable Options: Flexible sizes and specifications to fit diverse sputtering systems.
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- High Thermoelectric Efficiency: Tellurium-based materials, like Bi2Te3, are widely recognized for their superior thermoelectric performance, essential for thermoelectric cooling and power generation.
- Infrared Transparency: Tellurium compounds exhibit transparency in the infrared spectrum, which makes them useful for IR optics and imaging devices.
- Phase-Change Properties: Tellurium has excellent phase-change properties, which enable its application in PCM for non-volatile memory storage.
- High Purity: Tellurium used in evaporation is typically of high purity (≥ 99.9%), ensuring uniformity and high-quality thin film deposition.
- Stable Evaporation: Tellurium can be evaporated with thermal and electron-beam techniques, providing consistent deposition rates for thin films.
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- Semiconductor Properties: Tellurium’s ability to act as a semiconductor makes it crucial in electronics, especially in combination with other elements like cadmium and bismuth.
- Thermoelectric Efficiency: Tellurium’s thermoelectric properties allow it to convert heat energy into electrical energy, making it valuable for energy-harvesting applications.
- Corrosion Resistance: When alloyed with metals like copper and steel, tellurium improves corrosion resistance and machinability.
- High Density: Tellurium has a high density, making it suitable for certain high-performance alloys and specialized applications in material science.
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- Excellent Photovoltaic Properties: TeCd, especially CdTe, is widely used in thin-film solar cells due to its excellent light absorption and efficient energy conversion.
- Infrared Sensitivity: TeCd thin films exhibit high sensitivity to infrared light, making them suitable for infrared detectors and thermal imaging devices.
- Stable Thin Films: TeCd films are chemically stable and durable, ensuring long-term performance in harsh environmental conditions.
- Efficient Energy Conversion: TeCd materials offer high energy conversion efficiency, particularly in solar and thermoelectric applications, providing reliable performance in energy devices.
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- High Purity: Ensures optimal film quality and performance.
- Excellent Electrical Conductivity: Suitable for advanced electronic applications.
- Thermal Stability: Resilient under high-temperature deposition processes.
- Layered Structure: Ideal for 2D material synthesis and related technologies.
- Customizable Specifications: Available in tailored sizes, shapes, and configurations.
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- High Purity: Ensures superior thin-film quality with minimal impurities.
- Layered Structure: Supports the formation of ultra-thin films with excellent properties.
- Stable Composition: Reliable and consistent deposition outcomes.
- Versatile Application: Compatible with various sputtering systems and techniques.
- Customizable Options: Tailored targets for specific research and industrial requirements.
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- High purity (≥99.99%).
- Direct bandgap for superior optoelectronic performance.
- Excellent optical transparency in visible to infrared spectra.
- Uniform pellet size for consistent deposition results.
- Customizable pellet sizes and packaging for specific applications.
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- Optoelectronic Properties: ZnTe is highly valued for its ability to efficiently emit light, making it a key material in optoelectronics and LEDs.
- High Purity: Available in various purity levels (99.9%, 99.99%, and higher) to ensure high-quality thin films.
- Thermal Stability: ZnTe maintains its properties under high-temperature conditions, making it suitable for high-performance applications.
- Customizable Sizes: Available in different diameters and thicknesses for a wide range of sputtering systems.
- Wide Application Range: Ideal for use in numerous industries, including renewable energy, communications, and infrared sensing.
