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

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

As humanoid robots gradually move out of laboratories toward large-scale mass production of 100,000-unit levels, and collaborative robots evolve toward “lightweight, efficient, and affordable” performance, the selection of manufacturing technologies has become a core variable determining the industr

Amid the wave of upgrading high-end manufacturing toward precision, lightweight design and high efficiency, Metal Injection Molding (MIM)—a near-net-shape forming process that integrates the flexibility of plastic injection molding and the high performance of powder metallurgy—is breaking through th

The forming precision, material properties, and biocompatibility of medical implants are directly tied to patient health. Metal Injection Molding (MIM) technology, leveraging its unique advantages, has emerged as a core solution for the precision forming of such implants, redefining manufacturing st

As a core preparation technology for high-precision complex metal components, Metal Injection Molding (MIM) has occupied an important position in aerospace, electronic communication, medical device and other fields by virtue of its **near-net-shape forming** advantage. Its entire process centers on