Showing 85–96 of 694 results
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$550.00 – $920.00
- Topological Insulator Properties: Bi₂Se₃ is known for its topological insulator characteristics, where it supports surface conduction while acting as an insulator in its bulk, opening pathways for advanced quantum applications.
- Thermoelectric Efficiency: Bi₂Se₃ exhibits excellent thermoelectric performance with a high Seebeck coefficient, making it a critical material for thermoelectric energy conversion.
- Low Thermal Conductivity: Its low thermal conductivity helps in maximizing the thermoelectric efficiency in power generation and cooling applications.
- High IR Sensitivity: Bi₂Se₃’s sensitivity to infrared radiation makes it ideal for IR sensors and other optoelectronic devices.
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- High purity (≥99.99%).
- Exceptional thermoelectric properties.
- High electrical and thermal conductivity.
- Uniform pellet size for consistent deposition and performance.
- Customizable sizes and packaging for various applications.
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- High Purity: Available with ≥99.9% purity for optimal material properties.
- Outstanding Thermoelectric Performance: High Seebeck coefficient and low thermal conductivity.
- Layered Crystal Structure: Enables superior electrical and thermal characteristics.
- Customizable Particle Sizes: Nano (<100 nm) and micro (1–50 µm) sizes tailored to specific requirements.
- Stable and Durable: Chemically stable and resistant to environmental degradation.
- Environmentally Friendly: Non-toxic and suitable for sustainable applications.
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- Multiferroic Properties: BiFeO₃ demonstrates both ferroelectric and antiferromagnetic properties, making it ideal for multifunctional devices.
- Room Temperature Functionality: One of the few multiferroic materials that operates effectively at room temperature, allowing for broader application in consumer electronics and industrial devices.
- Photovoltaic Effects: BiFeO₃ can be used to create thin films that convert light into electricity, opening avenues for energy harvesting and improving photovoltaic technologies.
- Customizable: The size, shape, and purity of BiFeO₃ sputtering targets can be tailored to meet specific requirements for various deposition techniques.
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- Low Melting Point: Excellent for low-temperature soldering and thermal interface materials.
- Thermoelectric Properties: Exhibits promising performance in energy harvesting systems.
- Customizable Particle Size: Available in various sizes tailored to application needs.
- High Purity: Ensures reliable performance in precision applications.
- Environmentally Friendly: Contains no lead, making it suitable for eco-friendly applications.
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- High Purity: BiSb pellets are typically available in high purity (99.9% or higher), ensuring the production of high-quality thin films free from contaminants.
- Thermoelectric Efficiency: The combination of Bismuth and Antimony provides exceptional thermoelectric properties, which is crucial for enhancing energy conversion efficiency in thin films.
- Uniform Evaporation: The spherical or irregular shape of the pellets allows for even melting and vaporization during the evaporation process, resulting in uniform deposition on substrates.
- Low Melting Point: BiSb alloys have a relatively low melting point, making them easier to handle in evaporation systems without the need for extreme temperatures.
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- Excellent Thermoelectric Performance: BiSbTe is known for its high thermoelectric efficiency, which makes it ideal for thermoelectric cooling and energy conversion applications.
- Wide Temperature Range: BiSbTe thin films perform effectively across a broad range of temperatures, particularly between 200 K and 400 K, making them suitable for various environmental conditions.
- Customizable Compositions: The composition of BiSbTe sputtering targets can be adjusted by varying the ratio of bismuth, antimony, and tellurium to meet specific thermoelectric performance requirements.
- High Purity: BiSbTe sputtering targets are available in high-purity grades to ensure the highest quality thin films for critical applications in energy harvesting and temperature regulation.
- Stable & Durable: Bismuth Antimony Telluride thin films exhibit excellent stability, long-term durability, and resistance to degradation under prolonged thermal cycling.
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- High Purity: ≥ 99.9% purity ensures high-quality thin films with precise optical and magnetic properties.
- Superior Magneto-Optical Performance: Provides excellent Faraday rotation and low optical loss.
- Stable Composition: Chemically stable and reliable for prolonged usage.
- Customizability: Available in various shapes, sizes, and thicknesses to fit specific sputtering systems.
- Compatibility: Suitable for both RF and DC magnetron sputtering methods.
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- High Purity: Available in purities up to 99.999% for optimal film quality.
- Superior Deposition Uniformity: Enables precise and consistent thin-film formation.
- Thermal Stability: Performs well under high-temperature deposition conditions.
- Versatile Compatibility: Suitable for various sputtering systems, including DC and RF setups.
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- High Electro-optic and Photorefractive Properties: Suitable for real-time holography and optical data processing.
- Cubic Crystal Structure: Isotropic optical properties, facilitating easier device integration.
- High Photoconductivity: Enhances photorefractive response and device efficiency.
- Broad Transparency Range: From ~450 nm to 7000 nm.
- High Optical Damage Threshold: Suitable for high-intensity light exposure.
- Excellent Thermal and Chemical Stability: Reliable under varied operating conditions.
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- High Purity: Offers high purity to ensure the quality of thin films and optimal device performance.
- Excellent Thermoelectric Properties: Ideal for thermoelectric applications where high efficiency is crucial.
- Uniform Deposition: Provides uniform and stable sputtering, ensuring consistent thin film quality.
- Thermal Stability: Excellent resistance to heat and thermal cycling, making it suitable for high-temperature applications.
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- High Thermal Conductivity: Boron nitride exhibits excellent thermal conductivity, which helps in evenly distributing heat within the crucible, ensuring uniform melting and preventing hot spots in high-temperature applications.
- High-Temperature Resistance: BN crucibles can withstand temperatures up to 3000°C in an inert atmosphere, making them ideal for high-temperature processes like metal melting, sintering, and crystal growth.
- Chemical Inertness: BN crucibles are highly resistant to chemical corrosion, including resistance to molten metals, acids, and alkalis, making them ideal for use in aggressive chemical environments.
- Low Thermal Expansion: Boron nitride has a low coefficient of thermal expansion, which minimizes the risk of cracking and warping under thermal stress and temperature fluctuations.
- Electrical Insulation: BN possesses excellent electrical insulation properties, which can be beneficial in applications where electrical conductivity must be minimized.
- Non-Toxic and Environmentally Friendly: Unlike some other high-performance materials, boron nitride is non-toxic and environmentally safe, making it a preferred choice for many industries.
