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  • Silicon Carbide ICP Etching Carrier

    Silicon Carbide ICP Etching Carrier

    Looking for a reliable wafer carrier for etching processes? Look no further than Semicorex's Silicon Carbide ICP Etching Carrier. Our product is engineered to withstand high temperatures and harsh chemical cleaning, ensuring durability and longevity. With a clean and smooth surface, our carrier is perfect for handling pristine wafers.
  • ICP Plasma Etching System

    ICP Plasma Etching System

    Semicorex's SiC Coated carrier for ICP Plasma Etching System is a reliable and cost-effective solution for high-temperature wafer handling processes such as epitaxy and MOCVD. Our carriers feature a fine SiC crystal coating that provides superior heat resistance, even thermal uniformity, and durable chemical resistance.
  • TaC Coating Epitaxial Plate

    TaC Coating Epitaxial Plate

    You can rest assured to buy TaC Coating Epitaxial Plate from our factory. Semicorex TaC (Tantalum Carbide) coating epitaxial plate boasts exceptional heat resistance, making it ideal for applications subjected to high temperatures. Its remarkable ability to withstand heat ensures durability and reliability in demanding environments. Semicorex is committed to providing quality products at competitive prices, we look forward to becoming your long-term partner in China.
  • MOCVD Susceptors

    MOCVD Susceptors

    Semicorex’s MOCVD Susceptors epitomize the pinnacle of craftsmanship, endurance, and reliability for intricate graphite epitaxy and precise wafer handling tasks. These susceptors are renowned for their high density, exceptional flatness, and superior thermal control, making them the premier choice for demanding manufacturing environments. We at Semicorex are dedicated to manufacturing and supplying high-performance MOCVD Susceptors that fuse quality with cost-efficiency.
  • SiC ALD Susceptor

    SiC ALD Susceptor

    Semicorex SiC ALD Susceptor offers numerous advantages in ALD processes, including high-temperature stability, enhanced film uniformity and quality, improved process efficiency, and extended susceptor lifetime. These benefits make the SiC ALD Susceptor a valuable tool for achieving high-performance thin films in various demanding applications.**
  • Customized Porous Ceramic chuck

    Customized Porous Ceramic chuck

    Customized porous ceramic chuck is the superior workpiece clamping and fixing solution designed exclusively for semiconductor manufacturing. Selecting Semicorex means you will benefit from reliable quality, customization services and increased productivity.
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    By 2027, solar photovoltaic (PV) will overtake coal as the world's largest installed capacity. The cumulative installed capacity of solar PV nearly triples in our forecast, growing by nearly 1,500 gigawatts over this period, and will surpass natural gas by 2026 and coal by 2027.

  • Dry Etching vs Wet Etching

    In semiconductor fabrication, etching is one of the major steps, along with photolithography and thin-film deposition. It involves removing unwanted materials from the surface of a wafer using chemical or physical methods. This step is carried out after coating, photolithography, and developing. It is used to remove the exposed thin film material, leaving only the desired portion of the wafer, and then removing the excess photoresist. These steps are repeated numerous times to create complex integrated circuits.

  • Methods of AlN Crystal Growth

    AlN, as third-generation semiconductor material, is not only an important blue light and ultraviolet light material, but also an important packaging, dielectric isolation and insulation material for electronic devices and integrated circuits, especially suitable for high-temperature and high-power devices. In addition, AlN and GaN have a good thermal match and chemical compatibility, AlN used as GaN epitaxial substrate, can significantly reduce the defect density in GaN devices, improve device performance.

  • What are the challenges of silicon carbide substrate production?

    Silicon carbide (SiC) is a material that possesses high bond energy, similar to other hard materials like diamond and cubic boron nitride. However, the high bond energy of SiC makes it difficult to crystallize directly into ingots via traditional melting methods. Therefore, the process of growing silicon carbide crystals involves the use of vapor phase epitaxy technology.

  • Why Doesn’t Gllium Nitride (GaN) Epitaxy Grow on a GaN substrate?

    The growth of GaN epitaxy on GaN substrate presents a unique challenge, despite the material’s superior properties when compared to silicon. GaN epitaxy offers significant advantages in terms of band gap width, thermal conductivity, and breakdown electric field over silicon-based materials. This makes the adoption of GaN as the backbone for the third generation of semiconductors, which provide enhanced cooling, lower conduction loss, and improved performance under high temperatures and frequencies, a promising and crucial advancement for the photonic and micro-electronic industries.

  • Heteroepitaxy of 3C-SiC: An Overview

    The development of 3C-SiC, a significant polytype of silicon carbide, reflects the continuous advancement of semiconductor material science. In the 1980s, Nishino et al. first achieved a 4 μm thick 3C-SiC film on a silicon substrate using chemical vapor deposition (CVD)[1], laying the foundation for 3C-SiC thin-film technology.

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