For a long time, component designers have been constrained by manufacturing processes during new‑product development. Many innovative, lightweight and integrated design concepts have to be revised because they are difficult to produce via traditional cutting or casting, resulting in the phenomenon o

In the precision‑component manufacturing sector, conventional multi‑step processing has long suffered from inherent pain points. Producing small precision parts with standard CNC cutting or casting involves more than ten procedures: material cutting, rough machining, finish machining, grinding, poli

With the rapid iteration of high‑end manufacturing industries including 3C electronics, smart wearables, new‑energy vehicles and humanoid robots, market demand for miniaturized, complex and high‑precision metal components keeps surging. Conventional processes such as CNC machining, die‑casting and f

Against the backdrop of rapid development in the precision‑manufacturing sector, industries covering 3C electronics, new‑energy vehicles, smart wearables and medical equipment show growing demand for metal components with intricate shapes and strict dimensional‑precision requirements. Conventional m

Cost reduction and efficiency improvement are constant priorities for precision‑component manufacturers to sharpen market competitiveness. Conventional cutting‑based machining belongs to subtractive manufacturing: large volumes of metal raw materials turn into cutting scraps during processing. Mater

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