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

Smartwatches, TWS earbuds and AR glasses have become daily wearable gadgets. Consumers are shifting their focus from stacked functions to lightweight wearing experience, refined appearance and long service life. However, as wearables grow smaller and more integrated with functions, their internal st

In the precision manufacturing industry, stainless steel is widely deployed in medical devices, consumer electronics, automotive parts, smart home appliances and other sectors, thanks to its outstanding corrosion resistance, high tensile strength, heat resistance and premium surface finish. Conventi

Metal Injection Molding (MIM) combines the forming merits of plastic injection molding and the material properties of powder metallurgy. It realizes near-net shaping of precision metal components through a series of processes: preparing feedstock from ultra-fine metal powder and binders, injection m

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 (

In the metal component manufacturing industry, powder metallurgy (PM) and traditional machining are two of the most widely applied processes. Based on fundamentally different processing logics, they present distinct advantages and disadvantages in cost control, dimensional precision, and production