In the precision manufacturing industry, "high efficiency" and "low cost" are often difficult to achieve simultaneously, but metal injection molding (MIM) technology breaks this dilemma. As an innovative technology integrating powder metallurgy and injection molding processes, it achieves a dual bre

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

In high-end manufacturing fields such as medical devices and automotive electronics, the precision, strength, and mass production capabilities of micro-precision components directly determine product competitiveness. Metal Injection Molding (MIM) technology, with its combined advantages of powder me

Metal Injection Molding (MIM), a precision manufacturing technology that integrates plastic injection molding and powder metallurgy, has become a core solution for manufacturing micro-precision parts due to its advantages of "one-time molding of complex structures + high-efficiency mass production."

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

IntroductionMetal Injection Molding (MIM) is a versatile manufacturing process that combines the design flexibility of plastic injection molding with the material strength of powder metallurgy. MIM is capable of producing complex shapes and high-precision components, including threaded parts. This r