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Vacuum coating includes film material vaporization, vacuum transportation and thin film growth. According to the different film material vaporization methods and transportation processes, vacuum coating can be divided into two categories: PVD and CVD.

This article describes the physical parameters and product characteristics of VeTek Semiconductor's Porous Graphite, as well as its specific applications in semiconductor processing.

This article analyzes the product characteristics and application scenarios of tantalum carbide coating and silicon carbide coating from multiple perspectives.

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.

The semiconductor manufacturing process involves eight steps: wafer processing, oxidation, lithography, etching, thin film deposition, interconnection, testing, and packaging. Silicon from sand is processed into wafers, oxidized, patterned, and etched for high-precision circuits.

This article describes that LED substrate is the largest application of sapphire, as well as the main methods of preparing sapphire crystals: growing sapphire crystals by the Czochralski method, growing sapphire crystals by the Kyropoulos method, growing sapphire crystals by the guided mold method, and growing sapphire crystals by the heat exchange method.

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.

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

8-inch SiC epitaxial furnace and homoepitaxial process research

The article analyzes the material properties of semiconductor substrate wafers such as silicon, GaAs, SiC and GaN

This article mainly describes GaN-based low-temperature epitaxial technology, including the crystal structure of GaN-based materials, 3. epitaxial technology requirements and implementation solutions, the advantages of low-temperature epitaxial technology based on PVD principles, and the development prospects of low-temperature epitaxial technology.

This article first introduces the molecular structure and physical properties of TaC, and focuses on the differences and applications of sintered tantalum carbide and CVD tantalum carbide, as well as VeTek Semiconductor's popular TaC coating products.

This article introduces the product characteristics of CVD TaC coating, the process of preparing CVD TaC coating using the CVD method, and the basic method for surface morphology detection of the prepared CVD TaC coating.

This article introduces the product characteristics of TaC coating, the specific process of preparing TaC coating products using CVD technology, introduces Veteksemicon's most popular TaC coating, and briefly analyzes the reasons for choosing Veteksemicon.

This article analyzes the reasons why SiC coating a key core material for SiC epitaxial growth and focuses on the specific advantages of SiC coating in the semiconductor industry.

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.