Capsule Bottom Wall Perforation Precision via Segmented Struts

The bottom wall is segmented into multiple radial struts arranged in a star-shaped pattern, dividing the continuous bottom wall into discrete structural elements. This segmentation allows each strut to independently manage stress and deformation, preventing the entire bottom wall from deforming during perforation while maintaining manufacturing ease through the modular structure.

The bottom wall transitions from a uniform structure to a non-uniform star-shaped structure with varying local properties. The radial struts provide localized stiffness in specific directions while maintaining overall flexibility. This local quality variation enables the bottom wall to resist deformation at critical perforation zones while remaining easy to manufacture through standard forming processes.

The rigid bottom wall is segmented into multiple radial struts that can be formed using standard capsule manufacturing processes. This segmentation achieves the required rigidity and perforation precision without requiring complex manufacturing techniques, as each strut can be formed independently during the usual thermoforming or molding process.

The star-shaped bottom wall incorporates curved radial struts that radiate from the center, creating a geometric pattern that naturally distributes stress. This curved geometry provides structural rigidity to prevent deformation during perforation while being easily manufacturable through conventional forming methods that can accommodate curved surfaces.

The bottom wall is divided into multiple radial struts that maintain structural integrity during perforation. This segmentation prevents the bottom wall from deforming inconsistently during the extraction process, ensuring uniform water flow distribution and consistent extraction performance without significantly increasing overall structural complexity.

The star-shaped bottom wall features an asymmetric radial strut pattern that optimizes water distribution during extraction. The asymmetric geometry prevents uniform deformation that would occur with symmetric designs, ensuring consistent perforation and extraction efficiency while maintaining relatively simple manufacturing processes.