In the manufacturing of precision parts, conventional CNC machining, forging and casting have long‑standing inherent limitations. When it comes to complex micro‑parts, problems such as lengthy working procedures, high costs and slow mass production frequently occur. The MIM (Metal Injection Molding)

Against the wave of transformation and upgrading in high‑end manufacturing, the mass production of high‑precision, complex‑structure metal components has long been an industry pain point. Traditional machining involves cumbersome processes and severe material waste; casting struggles to balance prec

In the field of high-end manufacturing, the molding of complex micro-components (with maximum dimensions < 25 mm and feature dimensions < 1 mm) has long been an industry pain point. Traditional machining tends to produce burrs and struggles to accommodate complex structures such as internal cavities

Amid the wave of transformation toward lightweighting, high performance, and intelligence in the automotive industry, the manufacturing precision, mass production efficiency, and cost control of precision components have become a key determinant of core competitiveness. Metal Injection Molding (MIM)

In the field of precision manufacturing, balancing accuracy and cost has always been the core goal pursued by the industry. As an advanced process integrating plastic injection molding and powder metallurgy technologies, Metal Injection Molding (MIM) is gradually becoming the preferred solution in a

To achieve high-precision metal parts production through Metal Injection Molding (MIM), the following key aspects can be addressed:Raw Material Selection and Preparation: Select metal powders with fine and uniform particle sizes, typically ranging from 2 to 25 micrometers. For instance, the particle