Elastomeric laminate with activation thickness

1. A method for forming a hybrid gathered elastomeric laminate comprising the steps:

providing an activated zero strain laminate;

providing a second layer;

elongating one of the activated zero strain laminate and the second layer to form a strained layer such that the strained layer comprises a greater strain than a nonstrained layer, the nonstrained layer comprising the other of the activated zero strain laminate and the second layer; and

joining the activated zero strain laminate to the second layer, such that the activated zero strain laminate and the second layer are joined at one or more bonding sites;

wherein the activated zero strain laminate comprises a pre-SELFed coverstock material comprising SELF-specific land areas and deformed areas prior to being joined to an elastomeric material.

2. The method of claim 1 wherein the strained layer comprises the activated zero strain laminate.

3. The method of claim 1 wherein the activated zero strain laminate comprises an elastomeric laminate layer.

4. The method of claim 1 wherein the second layer comprises a coverstock material.

5. A method for forming an elastomeric laminate comprising the steps of:

providing a first coverstock material;

SELF'ing the first coverstock material to create a pre-SELFed coverstock layer having a primary activation pattern comprising SELF-specific land areas and deformed areas;

providing an elastomeric layer;

providing a second coverstock material; activating the second coverstock material to create a second pre-activated coverstock layer having a secondary activation pattern;

laminating the pre-SELFed coverstock layer, the elastomeric layer and the second pre-activated coverstock material, and

offsetting the primary and the secondary activation patterns.

6. The method of claim 5 wherein the lamination step further comprises joining the elastomeric layer to the pre-SELFed coverstock layer in a relaxed state wherein the deformed areas exist.

7. The method of claim 5 wherein the lamination step further comprises:

elongating one of the elastomeric layer and the pre-SELFed coverstock layer to form a strained layer such that the strained layer comprises a greater strain than the other of the elastomeric layer and the pre-SELFed coverstock layer; and

joining the elastomeric layer to the pre-SELFed coverstock layer, such that the elastomeric layer and the pre-SELFed coverstock layer are joined at one or more bonding sites and form a gathered laminate.

8. The method of claim 5 further comprising orienting the pre-SELFed coverstock layer such that the deformed areas are outwardly facing after lamination.

9. The method of claim 5 further comprising orienting the second pre-activated coverstock layer such that the second deformed areas are outwardly facing after lamination.

10. A method for forming an elastomeric laminate comprising the steps of:

providing a first coverstock material;

SELF'ing the first coverstock material to create a pre-SELFed coverstock layer having a primary activation pattern comprising SELF-specific land areas and first deformed areas;

providing an elastomeric layer;

providing a second coverstock material; activating the second coverstock material to create a second pre-activated coverstock layer having a secondary activation pattern having second deformed areas; and

laminating the pre-SELFed coverstock layer, the elastomeric layer and the second pre-activated coverstock layer;

wherein the primary activation pattern is different than the secondary activation pattern.

11. The method of claim 10 wherein the primary and the secondary activation patterns differ by one of the group of: shape of the land areas, shape of the first and second deformed areas, size of the land areas, size of the first and second deformed areas, quantity of the land areas, type of the land areas, number of the first and second deformed areas, location of land areas, location of the first and second deformed areas, pattern uniformity, or combinations thereof.

12. The method of claim 10 wherein the pre-SELFed coverstock layer comprises a first activation thickness and the second pre-activated coverstock material comprises a second activation thickness, and wherein the first and the second activation thicknesses are different.

13. The method of claim 10 further comprising orienting the pre-SELFed coverstock layer such that the first deformed areas are outwardly facing after lamination.

14. The method of claim 10 further comprising orienting the second pre-activated coverstock layer such that the second deformed areas are outwardly facing after lamination.