In the field of plastic injection molded parts, if you want to not only meet high-performance requirements, but also achieve efficient and low-cost mass production, you must design from the source.

The vacuum forming process begins with the Master Model, whose accuracy and surface quality determine the final molded part.

In modern manufacturing, prototype parts and machining parts together form the core link from product concept to mass production. The former is used to quickly verify the feasibility of the design, while the latter is represented by precision parts, automotive parts, metal parts (aluminum parts), plastic products, etc., to achieve high-quality and large-volume output. The two complement each other to ensure that the product can achieve the optimal balance in terms of function, appearance and manufacturing cost.

In today’s fast-paced product development cycle, CNC prototyping delivers high-precision, low-volume prototype parts in a fraction of the time required by traditional methods. By translating 3D CAD models directly into cutting commands, CNC machining prototype parts bridge the gap between concept design and functional validation—enabling engineers to iterate quickly and bring better products to market faster.

Plastic mold fabrication is the foundation of high-volume, high-precision plastics manufacturing. From CAD design through CNC machining and trial runs, every step in mold making construction is optimized to produce durable, accurate injection molds for plastics that deliver consistent parts at scale.

Low-yield production tools build a "fast-provincial-flexible" integrated development model through rapid proofing, prototype molds and low-yield CNC processing, significantly shortening the product development cycle, reducing early investment, and improving design iteration efficiency, helping new products to quickly verify and market introduction.

2K molds (also called two-shot molds or two-component molds) enable injection of two different plastics, elastomers or colors in a single molding cycle. Our bi-injection mold tooling integrates decoiling, precise core/cavity matching, 180° rotation and advanced cooling to produce complex, overmolded parts without secondary assembly.

Injection molding dies consist of two main assemblies: the stationary half, which bolts to the machine’s fixed platen, and the moving half, attached to the reciprocating platen. Beyond this fundamental split, advanced mold designs—such as collapsible core systems, gas-assist tooling, precision molds, and multi-cavity hot-runner assemblies—add targeted functions to meet challenging part requirements.