Web Menu

Product Search

Language

Products

China SiC Paddle for Semiconductor Manufacturer, Supplier, Factory

We believe in: Innovation is our soul and spirit. Excellent is our life. Buyer want is our God for SiC Paddle for Semiconductor, SiC Cantilever Paddle, Silicon Carbide Cantilever Paddle, High Temperature SiC Paddle, SiC Cantilever Wafer Handling, High-quality is factory's everyday living , Focus on customers' demand would be the source of organization survival and advancement, We adhere to honesty and good faith doing the job attitude, seeking forward towards your coming !
SiC Paddle for Semiconductor, For many years, we have now adhered to the principle of customer oriented, quality based, excellence pursuing, mutual benefit sharing. We hope, with great sincerity and good will, to have the honor to help with your further market.

Related Products

Hot Products

  • Crucible for Monocrystalline Silicon

    Crucible for Monocrystalline Silicon

    The thermal field of the monocrystal silicon furnace uses graphite as the crucible, and uses the heater, guide ring, bracket and pot holder made of isostatic pressed graphite to ensure the strength and purity of the graphite crucible. Vetek semiconductor produces crucible for Monocrystalline Silicon, long life, high purity, welcome to consult us.
  • High purity graphite ring

    High purity graphite ring

    High purity graphite ring is suitable for GaN epitaxial growth processes. Their excellent stability and superior performance have made them widely used. VeTek Semiconductor produces and manufactures world-leading High purity graphite ring to help the GaN epitaxy industry continue to progress. VeTekSemi looks forward to becoming your partner in China.
  • SiC coating halfmoon graphite parts

    SiC coating halfmoon graphite parts

    As a professional semiconductor manufacturer and supplier, VeTek Semiconductor can provide a variety of graphite components required for SiC epitaxial growth systems. These SiC coating halfmoon graphite parts are designed for the gas inlet section of the epitaxial reactor and play a vital role in optimizing the semiconductor manufacturing process. VeTek Semiconductor always strives to provide customers with the best quality products at the most competitive prices. VeTek Semiconductor looks forward to becoming your long-term partner in China.
  • 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.
  • SiC coating ALD susceptor

    SiC coating ALD susceptor

    The SiC coating ALD susceptor is a support component specifically used in the atomic layer deposition (ALD) process. It plays a key role in the ALD equipment, ensuring the uniformity and precision of the deposition process. We believe that our ALD Planetary Susceptor products can bring you high-quality product solutions.
  • SiC Coated Epi Susceptor

    SiC Coated Epi Susceptor

    As the top domestic manufacturer of silicon carbide and tantalum carbide coatings, VeTek Semiconductor is able to provide precision machining and uniform coating of SiC Coated Epi Susceptor, effectively controlling the purity of coating and product below 5ppm. The product life is comparable to that of SGL. Welcome to inquire us.

  • Silicon carbide nanomaterials

    Silicon carbide nanomaterials (SiC) are materials with at least one dimension at the nanometer scale (1-100nm). These materials can be zero-, one-, two-, or three-dimensional and have diverse applications.

  • What are the differences between Isotropic Graphite and Siliconized Graphite?

    Graphite materials have a wide range of application scenarios. Among them, Isotropic Graphite and Siliconized Graphite are the two main different types of graphite materials, and their characteristics, application scenarios and advantages are significantly different. This blog will conduct a comparative analysis from three aspects: structural characteristics, application scenarios and product advantages.

  • What is the difference between epitaxy and ALD?

    The main difference between epitaxy and atomic layer deposition (ALD) lies in their film growth mechanisms and operating conditions. Epitaxy refers to the process of growing a crystalline thin film on a crystalline substrate with a specific orientation relationship, maintaining the same or similar crystal structure. In contrast, ALD is a deposition technique that involves exposing a substrate to different chemical precursors in sequence to form a thin film one atomic layer at a time.

  • How thin can the Taiko process make silicon wafers?

    The Taiko process thins silicon wafers using its principles, technical advantages and process origins.

  • What challenges does the CVD TaC coating process for SiC single crystal growth face in semiconductor processing?

    The article analyzes the specific challenges faced by the CVD TaC coating process for SiC single crystal growth during semiconductor processing, such as material source and purity control, process parameter optimization, coating adhesion, equipment maintenance and process stability, environmental protection and cost control, as well as the corresponding industry solutions.

  • 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.

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