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High purity: The silicon epitaxial layer grown by chemical vapor deposition (CVD) has extremely high purity, better surface flatness and lower defect density than traditional wafers.

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.

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.

In the growth of SiC and AlN single crystals using the physical vapor transport (PVT) method, crucial components such as the crucible, seed holder, and guide ring play a vital role. As depicted in Figure 2 [1], during the PVT process, the seed crystal is positioned in the lower temperature region, while the SiC raw material is exposed to higher temperatures (above 2400 ℃).

SiC has high hardness, thermal conductivity, and corrosion resistance, making it ideal for semiconductor manufacturing. CVD SiC coating is created through chemical vapor deposition, providing high thermal conductivity, chemical stability, and a matching lattice constant for epitaxial growth. Its low thermal expansion and high hardness ensure durability and precision, making it essential in applications like wafer carriers, preheating rings, and more. VeTek Semiconductor specializes in custom SiC coatings for diverse industry needs.

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.