Compact Tampon with Segmented Absorbent Core

The tampon is segmented into distinct functional zones: a highly absorbent core region surrounded by a less compressed outer region. This segmentation allows the core to provide sufficient fluid absorption capacity while the outer region reduces overall density and weight, minimizing discomfort and irritation during daily use between menstruation days.

Different regions of the tampon have different compression densities: the core region is highly compressed to maximize absorption capacity in a small volume, while the outer region is less compressed to reduce overall weight and improve comfort. This local quality variation resolves the contradiction between absorption capacity and comfort.

The tampon structure segments absorption function into a compact core region, concentrating the absorption capability in a small volume that exerts minimal pressure on surrounding tissues. The less compressed outer region provides structural support without significant absorption function, reducing overall suction force on vaginal muscles.

The tampon uses composite construction with highly compressed absorbent material in the core and less compressed material in the outer region. This composite structure achieves effective fluid absorption in a compact form factor that minimizes mechanical force on vaginal muscles.

The tampon applies local quality variation by creating a highly compressed core region with maximum absorption density surrounded by a less compressed outer region. This allows the overall tampon to be small and comfortable while the core region provides sufficient absorption capacity for daily use between menstruation days.

The composite structure combines highly compressed absorbent core material with less compressed outer material, achieving a compact overall size that provides comfort and minimal pressure, while the dense core region maintains adequate absorption capacity for light fluid management.

The tampon segments the compressed material into a small core region, concentrating the weight-reducing benefit in the absorption zone while the larger outer region uses less compressed, lighter material. This segmentation resolves the contradiction by limiting high-density material to only where absorption is needed.

Highly compressed material is applied locally only to the core region where absorption capacity is critical, while the outer region uses less compressed, lighter material. This local quality approach minimizes overall weight while maintaining compact size and sufficient absorption performance.