On one hand, there's the aerospace field with its extreme demands for reliability and lightweight design; on the other hand, there's the consumer electronics industry with its stringent controls over precision, cost, and production capacity. These two seemingly disparate fields have achieved efficie

Behind the miniature connectors of smartphones, the precise cutting edges of medical scalpels, and the precision valve cores of automotive engines lies a "hidden master" in the manufacturing field—metal injection molding (MIM) technology. This process, which combines the advantages of plastic inject

The aerospace industry, as the "crown" of high-end manufacturing, imposes nearly stringent requirements on components: they must not only possess extreme properties such as high strength, heat resistance, and corrosion resistance but also balance lightweight design, complex irregular structures, and

304 stainless steel is highly sought after in precision manufacturing due to its excellent corrosion resistance and mechanical properties. Powder metallurgy technology achieves dual breakthroughs in material utilization and part precision through a net-shaping process of "powder → forming → sinterin

In the wave of transformation towards lightweight and intelligent in the automotive industry, metal injection molding (MIM) technology has become a key support for core component manufacturing due to its dual advantages of complex molding and mass production. From powertrain to intelligent control,

Metal injection molding (MIM) is an advanced manufacturing process that combines plastic injection molding technology with powder metallurgy. This process involves mixing fine metal powder with a binder. The mixture is then injected into a mold using an injection molding machine to form a "green" pa