Ceramic Vacuum Brazing is a process that plays an important role in the electronics and aerospace industries. This process takes place in a high vacuum environment and creates high-quality joints at temperatures of approximately 800°C to 1150°C. This process allows dissimilar materials, such as ceramics and steel, to be joined together.

During the brazing process, activating elements react with the ceramic to form complex metallurgical phases that wet the molten filler material. The mechanism of vacuum brazing of ceramic/metal is usually a "wetting" mechanism, that is, the connection between ceramic and metal is due to the degree of penetration of the molten solder into the ceramic.

The main advantages of Ceramic Vacuum Brazing include its high efficiency, powerful performance and high efficiency. These properties make Ceramic Vacuum Brazing ideal for projects where ceramic and metal joints need to be completed in an emergency. In addition, the design of this device allows it to easily meet various connection needs and can be easily adapted to various production environments.

Ceramic Vacuum Brazing has wide applications in many fields, including electronics, aerospace, medical, etc. Ceramic Vacuum Brazing is a key technology with broad application prospects and will play an important role in the field of material joining in the future. In the aerospace industry, Ceramic Vacuum Brazing is used to manufacture and repair turbine blades that have cracked due to excessive heat and wear. New brazing alloys are being developed to create better thermal barriers. This is expected to significantly reduce maintenance, repair and overhaul (MRO) costs. These advances include the development of advanced brazing alloys, the use of ceramics on high-temperature metal-to-ceramic components, and the introduction of reactive brazing, which allows metals to be bonded directly to ceramics without the need for metallization.