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    Semicorex PSS Etching Carrier Plate for Semiconductor is specially engineered for high-temperature and harsh chemical cleaning environments required for epitaxial growth and wafer handling processes. Our ultra-pure PSS Etching Carrier Plate for Semiconductor is designed to support wafers during thin-film deposition phases like MOCVD and epitaxy susceptors, pancake or satellite platforms. Our SiC coated carrier has high heat and corrosion resistance, excellent heat distribution properties, and a high thermal conductivity. We provide cost-effective solutions to our customers, and our products cover many European and American markets. Semicorex looks forward to being your long-term partner in China.
  • RTP Graphite Carrier Plate

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    Semicorex's RTP Graphite Carrier Plate is the perfect solution for semiconductor wafer processing applications, including epitaxial growth and wafer handling processing. Our product is designed to offer superior heat resistance and thermal uniformity, ensuring that the epitaxy susceptors are subjected to the deposition environment, with high heat and corrosion resistance.
  • Tantalum Carbide Chuck

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  • Related Blog
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  • CVD process for SiC wafer epitaxy

    The CVD process for SiC wafer epitaxy involves the deposition of SiC films onto a SiC substrate using a gas-phase reaction. The SiC precursor gases, typically methyltrichlorosilane (MTS) and ethylene (C2H4), are introduced into a reaction chamber where the SiC substrate is heated to a high temperature (usually between 1400 and 1600 degrees Celsius) under a controlled atmosphere of hydrogen (H2).

  • SiC Epitaxy

    There are two types of epitaxy: homogeneous and heterogeneous. In order to produce SiC devices with specific resistance and other parameters for different applications, the substrate must meet the conditions of epitaxy before production can begin. The quality of the epitaxy affects the device's performance.

  • Silicon Epitaxial Layers and Substrates in Semiconductor Manufacturing

    In modern electronics, optoelectronics, microelectronics, and information technology fields, semiconductor substrates and epitaxial technologies are indispensable. They provide a solid foundation for manufacturing high-performance, high-reliability semiconductor devices. As technology continues to advance, semiconductor substrates and epitaxial technologies will also progress, bringing new breakthroughs and developments to the future of the semiconductor industry.

  • 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.

  • The Critical Role of SiC Substrates and Crystal Growth in the Semiconductor Industry

    Within the silicon carbide (SiC) industry chain, substrate suppliers hold significant leverage, primarily due to value distribution. SiC substrates account for 47% of the total value, followed by epitaxial layers at 23%, while device design and manufacturing constitute the remaining 30%. This inverted value chain stems from the high technological barriers inherent to substrate and epitaxial layer production. Three major challenges plague SiC substrate growth: stringent growth conditions, slow growth rates, and demanding crystallographic requirements. These complexities contribute to increased processing difficulty, ultimately resulting in low product yields and high costs. Furthermore, the epitaxial layer’s thickness and doping concentration are critical parameters directly impacting the final device performance.

  • What are the technical difficulties of SiC crystal growth furnace

    The crystal growth furnace is the core equipment for the growth of Silicon Carbide crystals. It is similar to the traditional crystalline silicon-grade crystal growth furnace. The furnace structure is not very complicated. It is mainly composed of the furnace body, heating system, coil transmission mechanism, vacuum acquisition and measurement system, gas path system, cooling system, control system, etc. The thermal field and process conditions determine the key indicators such as the quality, size, and conductivity of the SiC crystal.

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