Web Menu

Product Search

Language

Products

China MOCVD Susceptor for Epitaxial Growth Manufacturer, Supplier, Factory

Our organization sticks for the principle of "Quality will be the life of your business, and name may be the soul of it" for MOCVD Susceptor for Epitaxial Growth, MOCVD epitaxial wafer susceptor, SiC Wafer Susceptor for MOCVD, SiC coating, Silicon Carbide Coating, Leading the trend of this field is our persistent objective. Supplying first class solutions is our intention. To create a beautiful upcoming, we wish to cooperate with all close friends in the home and overseas. Should you have got any interest in our products and solutions, remember to never wait to call us.
MOCVD Susceptor for Epitaxial Growth, Merchandise have been exported to Asia, Mid-east,European and Germany market. Our company has constantly been able to update the goods performance and safety to meet the markets and strive to be top A on stable quality and sincere service. If you have the honor to do business with our company. we will definitely do our very best to support your business in China.

Related Products

Hot Products

  • Aixtron G5+ ceiling component

    Aixtron G5+ ceiling component

    VeTek Semiconductor has become a supplier of consumables for many MOCVD equipment with its superior processing capabilities. Aixtron G5+ ceiling component is one of our latest products, which is almost the same as the original Aixtron component and has received good feedback from customers. If you need such products, please contact VeTek Semiconductor!
  • Silicon On Insulator Wafer

    Silicon On Insulator Wafer

    VeTek Semiconductor is a professional Chinese manufacturer of Silicon On Insulator Wafer. the Silicon On Insulator Wafer is an important semiconductor substrate material, and its excellent product characteristics make it play a key role in high-performance, low-power, high-integration and RF applications. Looking forward to your consultation.
  • Semiconductor thermal spraying technology

    Semiconductor thermal spraying technology

    Vetek Semiconductor Semiconductor thermal spraying technology is an advanced process that sprays materials in a molten or semi-molten state onto the surface of a substrate to form a coating. This technology is widely used in the field of semiconductor manufacturing, mainly used to create coatings with specific functions on the surface of the substrate, such as conductivity, insulation, corrosion resistance, and oxidation resistance. The main advantages of thermal spraying technology include high efficiency, controllable coating thickness, and good coating adhesion, making it particularly important in the semiconductor manufacturing process that requires high precision and reliability. Looking forward to your inquiry.
  • CVD SiC coating Epitaxy susceptor

    CVD SiC coating Epitaxy susceptor

    VeTek Semiconductor's CVD SiC Coating Epitaxy Susceptor is a precision-engineered tool designed for semiconductor wafer handling and processing. This SiC Coating Epitaxy Susceptor plays a vital role in promoting the growth of thin films, epilayers, and other coatings, and can precisely control temperature and material properties. Welcome your further inquiries.
  • High purity quartz boat

    High purity quartz boat

    Our High purity quartz boat is made of fused quartz (SiO₂ content ≥ 99.99%). With its excellent resistance to extreme environments, low thermal expansion coefficient, and long life cycle, it has become an irreplaceable key consumable in the semiconductor and new energy industries.
  • Graphite Heating Unit

    Graphite Heating Unit

    VeTek Semiconductor Graphite Heating Unit is a high-performance industrial heating solution made of high-purity graphite material, which can provide precise and efficient heating effect. Graphite Heating Unit is widely used in semiconductor, electronics, ceramics and other fields. Welcome your further inquiry.

  • Exploratory application of 3D printing technology in the semiconductor industry

    In an era of rapid technological development, 3D printing, as an important representative of advanced manufacturing technology, is gradually changing the face of traditional manufacturing. With the continuous maturity of technology and the reduction of costs, 3D printing technology has shown broad application prospects in many fields such as aerospace, automobile manufacturing, medical equipment, and architectural design, and has promoted the innovation and development of these industries.

  • Do you know about MOCVD Susceptor?

    This article mainly introduces the product types, product characteristics and main functions of MOCVD Susceptor in semiconductor processing, and makes a comprehensive analysis and interpretation of MOCVD Susceptor products as a whole.

  • A complete explanation of the chip manufacturing process (2/2): from wafer to packaging and testing

    Thin film deposition is vital in chip manufacturing, creating micro devices by depositing films under 1 micron thick via CVD, ALD, or PVD. These processes build semiconductor components through alternating conductive and insulating films.

  • Tantalum carbide technology breakthrough, SiC epitaxial pollution reduced by 75%?

    Recently, the German research institute Fraunhofer IISB has made a breakthrough in the research and development of tantalum carbide coating technology, and developed a spray coating solution that is more flexible and environmentally friendly than the CVD deposition solution, and has been commercialized.

  • What is High-purity porous graphite?

    What is High-purity porous graphite ? - Vetek , This blog mainly introduces the specific working principle of High-purity porous graphite for SiC single crystal growth by PVT method.

  • What is an Electrostatic Chuck (ESC)?

    In the high-stakes world of semiconductor fabrication, precision and stability are everything—and that's where the Electrostatic Chuck (ESC) steps in. Far more than just a holding tool, the ESC uses electrostatic forces to securely clamp wafers during critical processes like etching, deposition, and ion implantation. But how does it actually work? Why is it superior to traditional mechanical clamping? And what role does it play in achieving nanoscale accuracy and throughput efficiency? Welcome to read.

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
Reject Accept