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  • CVD Epitaxial Deposition In Barrel Reactor

    CVD Epitaxial Deposition In Barrel Reactor

    Semicorex CVD Epitaxial Deposition In Barrel Reactor is a highly durable and reliable product for growing epixial layers on wafer chips. Its high-temperature oxidation resistance and high purity make it suitable for use in the semiconductor industry. Its even thermal profile, laminar gas flow pattern, and prevention of contamination make it an ideal choice for high-quality epixial layer growth.
  • SiC Coated RTP Carrier Plate for Epitaxial Growth

    SiC Coated RTP Carrier Plate for Epitaxial Growth

    Semicorex SiC Coated RTP Carrier Plate for Epitaxial Growth is the perfect solution for semiconductor wafer processing applications. With its high-quality carbon graphite susceptors and quartz crucibles processed by MOCVD on the surface of graphite, ceramics, etc., this product is ideal for wafer handling and epitaxial growth processing. The SiC coated carrier ensures high thermal conductivity and excellent heat distribution properties, making it a reliable choice for RTA, RTP, or harsh chemical cleaning.
  • SiC Susceptor for MOCVD

    SiC Susceptor for MOCVD

    Semicorex is a leading manufacturer and supplier of SiC Susceptor for MOCVD. Our product is specially designed to cater to the needs of the semiconductor industry in growing the epitaxial layer on the wafer chip. The product is used as the center plate in MOCVD, with a gear or ring-shaped design. It has high heat and corrosion resistance, making it ideal for use in extreme environments.
  • Wafer Carrier for MOCVD

    Wafer Carrier for MOCVD

    the Semicorex Wafer Carrier for MOCVD, Crafted for the precise needs of Metal Organic Chemical Vapor Deposition (MOCVD), emerges as an indispensable tool in the processing of single-crystal Si or SiC for high-scale integrated circuits. The Wafer Carrier for MOCVD composition boasts unparalleled purity, resistance to elevated temperatures and corrosive environments, and superior sealing properties to maintain a pristine atmosphere. We at Semicorex are dedicated to manufacturing and supplying high-performance Wafer Carriers for MOCVD that fuse quality with cost-efficiency.
  • SiC Coating Heater

    SiC Coating Heater

    The CVD SiC coating of Semicorex SiC Coating Heater offers superior performance in protecting heating elements from the harsh, corrosive, and reactive environments often encountered in processes such as Metal-Organic Chemical Vapor Deposition (MOCVD) and Epitaxial Growth.**
  • SiC Coating Flat Part

    SiC Coating Flat Part

    Semicorex SiC Coating Flat Part is a SiC-coated graphite component essential for uniform airflow conduction in the SiC epitaxy process. Semicorex delivers precision-engineered solutions with unmatched quality, ensuring optimal performance for semiconductor manufacturing.*
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  • Reviews

  • Begin Production of 3C-SiC Wafer

    The thermal conductivity of bulk 3C-SiC, recently measured, is the second-highest among inch-scale large crystals, ranking just below diamond. Silicon carbide (SiC) is a wide bandgap semiconductor extensively used in electronic applications, and it exists in various crystalline forms known as polytypes. Managing high localized heat flux is a significant challenge in power electronics, as it can lead to device overheating and long-term performance and reliability issues.

  • What is C/C composite?

    C/C composite is a carbon-carbon composite material made of carbon fibers as reinforcement and carbon as matrix through processing and carbonization, with excellent mechanical and high-temperature resistance properties. The material was initially used in aerospace and special fields, and with the maturity of the technology, it has been gradually used in photovoltaic, automotive, lithium battery, medical devices and other fields.

  • A Brief History of Silicon Carbide and Applications of Silicon Carbide Coatings

    The history of silicon carbide (SiC) dates back to 1891, when Edward Goodrich Acheson accidentally discovered it while attempting to synthesize artificial diamonds. Acheson heated a mixture of clay (aluminosilicate) and powdered coke (carbon) in an electric furnace. Instead of the expected diamonds, he obtained a bright green crystal adhering to the carbon. This crystal had a hardness second only to diamond, and was thus named carborundum. In 1904, French-Jewish chemist Henri Moissan discovered rare natural silicon carbide minerals while studying meteorite samples from the Diablo Canyon in Arizona, USA. He named these minerals moissanite, and his discovery earned him the 1906 Nobel Prize in Chemistry.

  • 4th Generation Semiconductors Gallium Oxide/β-Ga2O3

    The first generation of semiconductor materials is mainly represented by silicon (Si) and germanium (Ge), which began to rise in the 1950s. Germanium was dominant in the early days and was mainly used in low-voltage, low-frequency, medium-power transistors and photodetectors, but due to its poor high temperature resistance and radiation resistance, it was gradually replaced by silicon devices in the late 1960s. Silicon is still the main semiconductor material in the field of microelectronics due to its high technological maturity and cost advantages.

  • Substrate and Epitaxy

    In the process of wafer preparation, there are two core links: one is the preparation of the substrate, and the other is the implementation of the epitaxial process. The substrate, a wafer carefully made of semiconductor single crystal material, can be directly put into the wafer manufacturing process as a basis to produce semiconductor devices, or further enhance the performance through the epitaxial process.

  • What is the Difference Between Graphitization and Carbonization

    In conclusion, both graphitization and carbonization are industrial processes that involve carbon either as a reactant or a product. Carbonization refers to the process of converting organic matter into carbon, while graphitization involves transforming carbon into graphite. Therefore, carbonization is classified as a chemical change, whereas graphitization is recognized as a microstructural change.

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