Web Menu

Product Search

Language

Products

China liquid phase epitaxy hardware Manufacturer, Supplier, Factory

With state-of-the-art technologies and facilities, strict high-quality management, reasonable price tag, top-quality service and close co-operation with clients, we're devoted to delivering the top value for our consumers for liquid phase epitaxy hardware, Pyrolytic Graphite Coated, Chemical Vapor Deposition, Semiconductor applications, sputtering targets, To find out more about what we could do for you personally, call us anytime. We look forward to setting up good and long-term company interactions along with you.
liquid phase epitaxy hardware, 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

  • Porous Tantalum Carbide (TaC) Coated Graphite Ring

    Porous Tantalum Carbide (TaC) Coated Graphite Ring

    The VETEK Porous TaC Coated Graphite Ring is a thermal field component engineered for SiC single crystal growth via the PVT (Physical Vapor Transport) process. It is produced from high-purity porous graphite and coated with tantalum carbide (TaC) using CVD technology. The design targets high-temperature stability, chemical resilience, and controlled thermal field performance. By minimizing contamination and supporting process consistency, this component contributes to reproducible SiC crystal growth outcomes.
  • 7N High-Purity CVD SiC raw material

    7N High-Purity CVD SiC raw material

    The quality of the initial source material is the primary factor limiting wafer yield in the production of SiC single crystals. VETEK's 7N High-Purity CVD SiC Bulk offers a high-density polycrystalline alternative to traditional powders, specifically engineered for Physical Vapor Transport (PVT). By utilizing a bulk CVD form, we eliminate common growth defects and significantly improve furnace throughput. Looking forward to your inquiry.
  • SiC Coated Graphite Crucible Deflector

    SiC Coated Graphite Crucible Deflector

    The SiC coated graphite crucible deflector is a key component in the single crystal furnace equipment, its task is to guide the molten material from the crucible to the crystal growth zone smoothly, and ensure the quality and shape of the single crystal growth.Vetek semiconductor can provide both graphite and SiC coating material.Welcome to contact us for more details.
  • silicon carbide ceramic coating heater

    silicon carbide ceramic coating heater

    The silicon carbide ceramic coating heater is mainly designed for the high temperature and harsh environment of semiconductor manufacturing. Its ultra-high melting point, excellent corrosion resistance and outstanding thermal conductivity determine the indispensability of this product in the semiconductor production process.
  • TaC Coating Spare Part

    TaC Coating Spare Part

    TaC Coating is currently mainly used in processes such as silicon carbide single crystal growth (PVT method), epitaxial disk (including silicon carbide epitaxy, LED epitaxy), etc. Combined with the good long-term stability of TaC Coating Plate, Veteksemicon's TaC Coating Plate has become the benchmark for TaC Coating spare parts. We look forward to you becoming our long-term partner.
  • SiC Coated Planetary Susceptor

    SiC Coated Planetary Susceptor

    Our SiC Coated Planetary Susceptor is a core component in the high temperature process of semiconductor manufacturing. Its design combines graphite substrate with silicon carbide coating to achieve comprehensive optimization of thermal management performance, chemical stability and mechanical strength.
  • Related Blog
  • Reviews

  • 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.

  • What is the temperature gradient of the thermal field of a single crystal furnace?

    The article explains the temperature gradient in a single-crystal furnace. It covers the static and dynamic heat fields during crystal growth, the solid-liquid interface, and the temperature gradient's role in solidification.

  • What is semiconductor epitaxy process?

    It is ideal to build integrated circuits or semiconductor devices on a perfect crystalline base layer. The epitaxy (epi) process in semiconductor manufacturing aims to deposit a fine single-crystalline layer, usually about 0.5 to 20 microns, on a single-crystalline substrate. The epitaxy process is an important step in the manufacture of semiconductor devices, especially in silicon wafer manufacturing.

  • How to achieve high quality crystal growth? - SiC crystal growth furnace

    With the theme of "How to achieve high quality crystal growth? - SiC crystal growth furnace", this blog conducts a detailed analysis from four dimensions: the basic principle of silicon carbide crystal growth furnace, the structure of the silicon carbide crystal growth furnace, technical difficulties of silicon carbide crystal growth furnace, and raw materials for growing high-quality SiC crystals.

  • What is the epitaxial process?

    This blog takes "What is the epitaxial process?" as its theme, and provides a detailed analysis from the dimensions of Overview of Epitaxial Processes, Types of Epitaxy, Factors Influencing the Epi Process, Epitaxial Growth Techniques, EPI Growth Modes, and Epitaxy Growth’s Importance.

  • The Development History of 3C SiC

    Through continuous technological progress and in-depth mechanism research, 3C-SiC heteroepitaxial technology is expected to play a more important role in the semiconductor industry and promote the development of high-efficiency electronic devices.

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