Web Menu

Product Search

Language

Products

China Hot field graphite parts Manufacturer, Supplier, Factory

We also offer you product sourcing and flight consolidation expert services. We've our personal manufacturing unit and sourcing business. We can offer you virtually every variety of merchandise associated to our item range for Hot field graphite parts, Special Graphite, Isotropic Graphite, High Purity Graphite, VeTek Fine Grain High Purity Isotropic Graphite, We warmly welcome good friends from all walks of life to cooperate with us.
Hot field graphite parts, You can let us know your idea to develop unique design for your own model to prevent too much similar parts in the market! We are going to give our best service to satisfy all your needs! Remember to contact us right away!

Related Products

Hot Products

  • Halfmoon for LPE Reaction Chamber

    Halfmoon for LPE Reaction Chamber

    The Halfmoon is a graphite component used inside LPE SiC reactors, mainly installed around the chamber hot zone. Although it does not directly contact the wafer, it still plays a role in gas flow stability and reactor operation during epitaxial growth.To handle high temperature and reactive process conditions, the component is usually protected with CVD SiC coating, while TaC coating is also available for some applications. VETEK also supplies graphite felt insulation and other coated graphite parts for SiC epitaxy systems.
  • SiC Coated Graphite Barrel Susceptor

    SiC Coated Graphite Barrel Susceptor

    VeTek Semiconductor SiC Coated Graphite Barrel Susceptor is a high-performance wafer tray designed for semiconductor epitaxy processes, offering excellent thermal conductivity, high-temperature and chemical resistance, a high-purity surface, and customizable options to enhance production efficiency. Welcome your further inquiry.
  • CVD SiC Coated Skirt

    CVD SiC Coated Skirt

    VeTek Semiconductor is a leading manufacturer and leader of CVD SiC Coated Skirt in China. Our main CVD SiC coating products include CVD SiC coated Skirt, CVD SiC Coating Ring. Looking forward to your contact.
  • TaC Coated Graphite Susceptor

    TaC Coated Graphite Susceptor

    VeTek Semiconductor’s TaC Coated Graphite Susceptor uses chemical vapor deposition(CVD) method to prepare tantalum carbide coating on the surface of graphite parts. This process is the most mature and has the best coating properties. TaC Coated Graphite Susceptor can extend the service life of graphite components, inhibit the migration of graphite impurities, and ensure the quality of epitaxy.We are looking forward to your inquiry.
  • CMP Polishing Slurry

    CMP Polishing Slurry

    CMP polishing slurry (Chemical Mechanical Polishing Slurry) is a high-performance material used in semiconductor manufacturing and precision material processing. Its core function is to achieve fine flatness and polishing of the material surface under the synergistic effect of chemical corrosion and mechanical grinding to meet the flatness and surface quality requirements at the nano level. Looking forward to your further consultation.
  • CVD SiC Coated Barrel Susceptor

    CVD SiC Coated Barrel Susceptor

    VeTek Semiconductor is a leading manufacturer and innovator of CVD SiC Coated graphite Susceptor in China. Our CVD SiC Coated Barrel Susceptor plays a key role in promoting the epitaxial growth of semiconductor materials on wafers with its excellent product characteristics. Welcome to your further consultation.

  • Why does SiC coated Graphite Susceptor fail? - VeTek Semiconductor

    During the SiC epitaxial growth process, SiC coated graphite suspension failure may occur. This paper conducts a rigorous analysis of the failure phenomenon of SiC coated graphite suspension, which mainly includes two factors: SiC epitaxial gas failure and SiC coating failure.

  • Why Should High Purity SiC Powder Be the Heart of Your Next EV Power System

    For two decades at the forefront of technological innovation, I’ve seen components come and go. But few have generated as sustained a buzz as High Purity SiC Powder. It’s not just another material; it’s the foundational element pushing the boundaries of what’s possible in electric vehicles.

  • Three SiC single crystal growth technologies

    The main methods for growing SiC single crystals are: physical vapor transport (PVT), high temperature chemical vapor deposition (HTCVD) and high temperature solution growth (HTSG).

  • Why Silicon carbide(SiC) PVT Crystal Growth Cannot Do Without Tantalum Carbide Coatings(TaC)?

    In the process of growing silicon carbide (SiC) crystals via the Physical Vapor Transport (PVT) method, the extreme high temperature of 2000–2500 °C is a “double-edged sword” — while it drives the sublimation and transport of source materials, it also dramatically intensifies impurity release from all materials within the thermal field system, especially trace metallic elements contained in conventional graphite hot-zone components. Once these impurities enter the growth interface, they will directly damage the core quality of the crystal. This is the fundamental reason why tantalum carbide (TaC) coatings have become a “mandatory option” rather than an “optional choice” for PVT crystal growth.

  • Intelligent Cutting Technology for Cubic Silicon Carbide Wafers

    Smart cut is an advanced semiconductor manufacturing process based on ion implantation and wafer stripping, specifically designed for the production of ultra-thin and highly uniform 3C-SiC (cubic silicon carbide) wafers. It can transfer ultra-thin crystal materials from one substrate to another, thereby breaking the original physical limitations and changing the entire substrate industry.

  • Why Is CVD TaC Coating the “High-Temperature Armor” in Third-Generation Semiconductor

    Discover how CVD TaC coating improves SiC crystal growth and semiconductor manufacturing with ultra-high thermal stability, corrosion resistance, impurity suppression, and superior performance in MOCVD and epitaxy applications.

Send Inquiry

X
We use cookies to offer you a better browsing experience, analyze site traffic and personalize content. By using this site, you agree to our use of cookies.Privacy Policy
RejectAccept