Showing 13–24 of 25 results
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- Layered Structure: MoS₂ has a unique layered structure, allowing for exfoliation into single or few layers, making it ideal for 2D material applications.
- Semiconductor Properties: MoS₂ is a semiconductor with a direct bandgap (~1.8 eV for monolayers), making it suitable for nanoscale transistors and photodetectors.
- Low Friction Coefficient: Its excellent lubrication properties make MoS₂ ideal for coatings that require low friction and high durability, especially in vacuum or extreme conditions.
- Thermal Stability: MoS₂ remains stable at high temperatures, ensuring its effectiveness in harsh environments.
- Corrosion Resistance: MoS₂ provides a protective, corrosion-resistant layer in various applications, extending the life of coated components.
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- Layered Structure: MoS2 has a unique layered structure that contributes to its mechanical, electrical, and tribological properties, making it an excellent candidate for advanced coatings and devices.
- Semiconducting Properties: MoS2 is a semiconductor with a direct bandgap in its monolayer form, offering high performance in electronic devices such as transistors and photodetectors.
- Low Friction Coefficient: As a solid lubricant, MoS2 provides a low friction coefficient, making it useful in harsh environments where liquid lubricants are impractical.
- High Thermal and Chemical Stability: MoS2 films exhibit excellent thermal and chemical stability, enabling their use in high-temperature environments and chemically aggressive conditions.
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- Narrow Bandgap: PbS has a small bandgap (~0.37 eV), allowing it to detect and respond to IR radiation, making it ideal for infrared applications.
- High Infrared Sensitivity: PbS thin films exhibit excellent sensitivity to infrared light, especially in the mid-IR range, enhancing performance in IR detectors and sensors.
- Efficient Light Absorption: PbS absorbs light efficiently, making it a great material for photovoltaic devices and optoelectronic components.
- Good Thermal Stability: PbS films maintain their properties under moderate temperature conditions, suitable for use in thermal and IR-sensitive devices.
- Adaptability to Thin Films: PbS can be easily deposited as a thin film via evaporation, making it suitable for creating highly sensitive IR detectors and optical coatings.
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- Excellent Light Absorption: Sb2S3 has a high absorption coefficient, especially in the visible and near-IR regions, making it ideal for applications in photovoltaics and infrared detection.
- Semiconducting Properties: Sb2S3 is a direct bandgap semiconductor (~1.7 eV) suitable for energy conversion and electronic devices.
- Layered Structure: The material’s unique crystal structure allows for efficient charge transport and thermal conductivity, which is beneficial for thermoelectric and phase-change applications.
- Thermal Stability: Sb2S3 shows good stability during the deposition process, allowing for high-quality film formation.
- Environmentally Friendly: Sb2S3 is considered an eco-friendly alternative to some toxic or rare materials used in similar applications.
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- High Optical Absorption: Sb₂S₃ is known for its strong absorption in the visible and near-infrared regions, making it ideal for photovoltaic and optoelectronic applications.
- Environmentally Friendly: Sb₂S₃ is composed of elements that are abundant and less toxic compared to other heavy metals used in similar applications.
- Tunability: The bandgap of Sb₂S₃ can be tuned by modifying deposition parameters, allowing for control over its optical and electronic properties in thin films.
- Thermoelectric Properties: Sb₂S₃ is being explored for its potential to generate electrical energy from thermal gradients, offering promise in energy-harvesting devices.
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- High purity (≥99.99%).
- Outstanding semiconducting properties with a direct bandgap.
- Suitable for thin-film deposition methods like PVD and CVD.
- Excellent stability under high-temperature and chemical conditions.
- Customizable sizes and packaging options available.
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- High purity (≥99.99%).
- Semiconductor material with strong optical and electronic properties.
- Excellent performance in thin-film deposition techniques like PVD and CVD.
- Stable under high-temperature and chemical conditions.
- Custom sizes and packaging available.
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- Semiconductor Properties: SnS₂ has a direct bandgap, making it suitable for absorbing light and generating charge carriers, ideal for photovoltaic and optoelectronic applications.
- High Absorption Coefficient: SnS₂ thin films exhibit high optical absorption, making them effective in solar energy harvesting applications.
- Environmentally Friendly: Tin and sulfur are abundant and non-toxic elements, making SnS₂ a more environmentally benign material compared to some other semiconductor compounds.
- Layered Structure: The layered crystal structure of SnS₂ allows for good ion intercalation in energy storage devices and provides opportunities for 2D material applications.
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- High Purity: ≥ 99.9% purity ensures consistent and high-quality film deposition.
- Optoelectronic Properties: Exhibits excellent absorption coefficients and semiconducting behavior.
- Environmentally Friendly: Non-toxic and abundant material for sustainable applications.
- Customizable Formulations: Tailored compositions to meet specific research and industrial needs.
- Versatile Deposition: Compatible with RF and DC magnetron sputtering systems.
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- Low Friction Coefficient: WS2 thin films exhibit an extremely low coefficient of friction, which is beneficial for improving the performance of mechanical systems in high-friction environments.
- Thermal Stability: WS2 coatings maintain their properties at elevated temperatures, making them suitable for high-temperature applications.
- High Wear Resistance: WS2 offers exceptional wear resistance, extending the operational life of coated components subjected to abrasive conditions.
- Chemical Inertness: WS2 is resistant to corrosion and oxidation, making it durable in harsh chemical environments.
- Layered Structure: The unique layered structure of WS2 provides excellent lubricating properties due to the easy shearing between layers.
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- High Transparency: ZnS has excellent transmission in the visible and infrared regions, making it ideal for optical coatings and infrared optics.
- Wide Bandgap: ZnS has a large bandgap, allowing it to function effectively in optoelectronic and photonic applications.
- Durable and Stable: ZnS thin films are stable in a variety of environmental conditions and offer good mechanical durability.
- Broad Spectral Range: ZnS thin films exhibit good transmission from the visible spectrum to the mid-infrared region, making them suitable for a wide range of optical applications.
- Low Absorption: ZnS has low absorption in the visible and infrared spectra, making it a preferred material for high-performance optical coatings.
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- High Optical Transmittance: Effective transmission in the visible and infrared spectrums (0.4–12 µm).
- Thermal Stability: Can withstand high temperatures without degrading its properties.
- Mechanical Durability: Exhibits good mechanical strength and hardness, making it suitable for demanding applications.
- Chemical Resistance: Resistant to moisture and many chemicals, enhancing its reliability in various environments.
- Wide Applications: Suitable for a range of applications including infrared optics and lighting devices.
