In precision manufacturing, traditional processes have long been trapped in a dilemma: conventional powder metallurgy enables cost‑effective mass production of metal parts yet is limited to simple geometries with moderate accuracy. Plastic injection molding delivers intricate free‑form shapes, but c

Driven by the rapid advancement of smart wearables, medical devices, humanoid robots and new‑energy vehicles, market requirements for metal components keep rising. Miniaturization, structural complexity, high precision and high‑volume output have become core demands. Shortcomings of conventional pro

In the procurement and production of precision parts, many manufacturers have long been plagued by pain points associated with conventional CNC machining: complex irregular small parts require numerous processing procedures, repeated clamping consumes excessive time and labor, raw material loss is s

Precision transmission gears are rapidly evolving toward miniaturization, integration and complex special-shaped structures. Non-standard special-shaped gears, micro gears and integrated gear assemblies are widely adopted in high-end sophisticated sectors including humanoid robots, medical devices,

The flexible turning of humanoid robots, precise grabbing of industrial robots and stable obstacle-crossing of quadruped robots all rely on the precise coordination of posture control motors and electronic control circuits. As a hidden powerhouse in precision manufacturing, Metal Injection Molding (