XGIMI, with its innovative and durable pmulti-level die set of powder molding machine design capabilities, proprietary patents, and commitment to quality and sustainability, ofFers a comprehensive range of advanced die-set solutions that are tailored to meet the diverse needs of modern manufacturing industries. By leveraging the latest technologies and engineering expertise, XGIMI is able to develop die set structures that deliver superior performance and product quality.

Multi-level die set “upper 2 - lower 3”

The multi-level die set “upper 2 - lower 3” represents a more advanced configuration, featuring two upper molds and three lower molds, with all five molds in contact with the powder material during the molding process. This complex design offers significant advantages in terms of molding speed, pressure distribution, and productivity, making it suitable for demanding applications that require high - volume production and superior product quality.

One of the main advantages of the multi-level die set “upper 2 - lower 3” is its exceptional molding speed. With five molds working together, the machine can complete the molding process in less time compared to simpler configurations, significantly increasing the production output. This makes the multi-level die set “upper 2 - lower 3” an excellent choice for industries such as consumer goods, where large quantities of products need to be produced in a short period.

In addition to its high - speed capabilities, the multi-level die set “upper 2 - lower 3” also provides superior pressure distribution. The multiple - mold configuration ensures that the pressure is evenly distributed across the entire mold cavity, resulting in consistent compaction and high - quality molded products. This is particularly important for molding components with complex or large cross - sectional areas, where achieving uniform pressure distribution can be challenging.

However, the multi-level die set “upper 2 - lower 3” also comes with some challenges. The increased number of molds and moving parts results in higher mechanical complexity and maintenance requirements. The higher friction and wear on the mold surfaces can also reduce the mold life and increase production costs. Additionally, the complex design may require more sophisticated control systems and operator training to ensure optimal performance and product quality.