China GaN-on-SiC Epitaxial Wafers Carrier Manufacturer, Supplier, Factory

Silicon carbide (SiC) is a high-precision semiconductor material known for its excellent properties like high temperature resistance, corrosion resistance, and high mechanical strength. It has over 200 crystal structures, with 3C-SiC being the only cubic type, offering superior natural sphericity and densification compared to other types. 3C-SiC stands out for its high electron mobility, making it ideal for MOSFETs in power electronics. Additionally, it shows great potential in nanoelectronics, blue LEDs, and sensors.

With the growing demand for SiC materials in power electronics, optoelectronics and other fields, the development of SiC single crystal growth technology will become a key area of ​​scientific and technological innovation. As the core of SiC single crystal growth equipment, thermal field design will continue to receive extensive attention and in-depth research.

SiC and GaN are wide bandgap semiconductors with advantages over silicon, such as higher breakdown voltages, faster switching speeds, and superior efficiency. SiC is better for high-voltage, high-power applications due to its higher thermal conductivity, while GaN excels in high-frequency applications thanks to its superior electron mobility.

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.

Silicon carbide (SiC)'s Key growth methods include PVT, TSSG, and HTCVD, each with distinct advantages and challenges. Carbon-based thermal field materials like insulation systems, crucibles, TaC coatings, and porous graphite enhance crystal growth by providing stability, thermal conductivity, and purity, essential for SiC's precise fabrication and application.

Silicon carbide substrates have many defects and cannot be processed directly. A specific single crystal thin film needs to be grown on them through an epitaxial process to make chip wafers. This thin film is the epitaxial layer. Almost all silicon carbide devices are realized on epitaxial materials. High-quality silicon carbide homogeneous epitaxial materials are the basis for the development of silicon carbide devices. The performance of epitaxial materials directly determines the realization of the performance of silicon carbide devices.