
Using precision molds and advanced injection molding technology, complex parts with very small dimensional tolerances can be manufactured, with common tolerances reaching ±0.1mm or even less.

As 3C electronic products continue to develop towards smaller and lighter designs, precision injection-molded parts often need to be miniaturized and have higher integration during design, such as integrating multiple functions into a single component.

The materials for injection-molded parts typically need to meet performance requirements such as impact resistance, drop resistance, and high-temperature resistance, especially for the shells and internal components of smartphones and tablets, where higher strength and durability are required.
The DFM stage ensures that product design aligns with manufacturing processes. The design team conducts in-depth analysis of product geometry, dimensions, and surface requirements, assessing manufacturability. At the same time, suitable injection molding materials are selected, and product design is optimized to meet injection molding processes. The goal of this stage is to ensure that the product meets functional requirements while being efficient and cost-effective to manufacture.
During the mold design stage, the team uses CAD/CAM software to create 3D models and design the various components of the mold in detail. Considerations include material selection, cooling systems, ejection mechanisms, etc., to ensure the mold meets production requirements. After outputting the drawings, precise guidance is provided for mold manufacturing, ensuring mold quality and performance.
In the mold manufacturing stage, raw materials are prepared, rough machining, and finish machining are carried out based on the design drawings. Processes such as electrical discharge machining (EDM) and wire cutting are used to handle complex features. Subsequently, surface treatment is performed to improve mold hardness and wear resistance. Finally, the mold components are assembled to ensure smooth operation of the mold, preparing it for mold testing and mass production.
During the mold testing stage, the mold is installed on the injection molding machine for initial injection testing. Based on the test results, adjustments are made to the mold and injection molding process parameters to optimize product quality. The mold-tested products are thoroughly inspected to ensure they meet design requirements. Successful mold testing is a key indicator of mold qualification and the selection of the optimal molding process.
In the mass production stage, a production plan is developed based on market demand, and injection molding materials and auxiliary equipment are prepared. Mass production is carried out according to the production plan and injection molding process parameters to ensure stable product quality. Continuous quality control is implemented, with strict inspection of products during the production process. Finally, qualified products are packaged and delivered to meet customer needs.
Precision camera components are widely used in machinery, automotive, industrial equipment, electronics, and other fields, requiring high precision, complexity, and strength in the injection molding process. Through high-quality mold design, precision injection molding, strict quality control, and appropriate post-processing, high-performance precision injection-molded camera components can be produced to meet the demands of various high-precision mechanical parts.
Precision injection-molded parts made of PBT material are widely used in the automotive, electronics, electrical, home appliance, and other industries. With its excellent mechanical properties, heat resistance, electrical properties, and corrosion resistance, PBT is an ideal choice for manufacturing high-precision and high-performance industrial components. Through precise injection molding processes and post-processing, high-quality parts that meet strict quality requirements and dimensional tolerances can be produced.
Typically, we require 2D and 3D drawings to provide an accurate mold quotation and manufacturing. Supported 2D drawing formats include: AI, PDF, DWG, CAD, DXF, DLG, etc.; supported 3D drawing formats include: STP, IGS, etc.
Our company designs molds based on product drawings, but we do not design products. If customers do not provide product design drawings or physical samples, we cannot proceed with processing.
Our annual mold capacity is 300 sets. We have multiple professional mold designers and experienced technicians. Our team consists of over 130 personnel, and we have over 180 imported advanced mold manufacturing equipment.
Yize Mould manufactures strictly according to the drawing accuracy provided by the customer and communicates with the customer regarding the mold's purpose and accuracy requirements. If the mold does not meet the customer's requirements due to our manufacturing issue, we will arrange for rework. If the product is scrapped due to errors in the customer's drawings, it will be discussed separately.
Custom Medical Cleanroom Injection Molding Service
The Custom Medical Cleanroom Injection Molding Service provides injection molding solutions that meet dust-free and sterile requirements specifically for the medical device industry, mainly used for producing high-precision, high-hygiene standard medical equipment components and consumables. This service adopts advanced injection molding technology and a strict dust-free production environment to ensure that products meet rigorous medical and hygiene requirements.
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