Against the rapid iteration of the new‑energy industry, sectors including new‑energy vehicles, energy storage and computing hardware impose multiple requirements on components: miniaturization, integration, lightweighting, high reliability, high‑volume production and low cost. Conventional processes

As the commercial‑scale adoption of humanoid robots accelerates, the industry is rapidly shifting from prototype R&D toward mass‑volume production. Compared with conventional industrial robots, humanoid robots set extreme requirements for components: overall lightweighting, miniaturized joints, stru

Combining advantages of powder metallurgy and injection molding, Metal Injection Molding (MIM) represents an advanced near‑net‑shape manufacturing technology. It enables one‑step forming of thin‑walled, special‑shaped metallic parts featuring micro‑holes and intricate internal cavities. Material uti

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

In the production of precision metal parts, Metal Injection Molding (MIM), CNC machining and conventional casting represent the three mainstream manufacturing processes on the market. Each process carries distinct advantages and drawbacks, and varies greatly in applicable part geometry, tolerance re

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