Abstract: Foam backed carpet tiles are removed from a supporting floor surface without leaving a residue of foam by providing a flexible thin polyester sheet material with a first adhesive material bonding the bottom surface of the foam layer to the top surface of the sheet material and a second adhesive between the bottom surface of the sheet material and the supporting floor surface. The sheet material is caused to separate from the supporting floor surface when removing the carpet tile by the pulling force being applied also to the polyester sheet which has low stretch less than the carpet itself. Also the first adhesive material provides a greater bond strength between the sheet material and the second layer than a bond strength of the second adhesive material and by causing the structural integrity of the second layer to be greater than the bond strength of the second adhesive material.

Abstract: Systems and methods for presenting a user with one or more forms of data, including, systems and methods of interactively searching and/or matching a user to an opportunity as well as obtaining a related score, and other information related thereto, preferably where the user has the ability to manage, utilize tools and receive education related thereto.

Abstract: A covering system is designed as an elongated strip of covering material having a fibrous layer and an integral moldable layer for mounting on the upper surface of boards, such as deck planks. In a preferred embodiment, strips are preferably secured to the length of the boards solely by a layer of a hot melt pressure sensitive adhesive carried by the strip. The moldable material is applied in a volume of about at least 185 grams per square meter. A removable release sheet covers the adhesive surface of the moldable material. The release sheet can include a positioning mechanism and indicia such as the direction of the pile and measuring guides. The moldable material provides sufficient adhesion across the width of the strip for both initial application and sufficient thickness for subsequently molding to the board surface for long term adhesion.

Abstract: A package has at least one stack of a strip of material repeatedly folded back and forth so that the stack contains a plurality of folded overlying strip portions of the strip. Each strip portion is folded relative to one next adjacent strip portion about a first fold line transverse to the strip and relative to a second next adjacent strip portion about a second fold line transverse to the strip and spaced from the first fold line. The strip portions form a plurality of first fold lines at each end of the stack. The stack can be arranged substantially upright and has a splice tail portion of the strip extending from the bottom strip portion beyond an end of the stack to be accessible for splicing. The entire top surface and the entire bottom surface of the stack is compressed from an external force in a direction at right angles to the top surface and the bottom surface of the stack. The stack is engaged by packaging which maintains the compression.

Abstract: A package of layered nonwoven strip material is formed by an apparatus having a driven belt that surrounds and uniformly compresses the layers of strip material. The package is formed with strips supplied at negligible tension to promote uniform growth and pressure. As a result, the material in the package is not damaged, and the package is independently stable.

Abstract: A package of strip material includes a plurality of stacks of the strip side by side where each strip forms a stacked fan folded supply of the strip which is spliced to or arranged so that it can be subsequently spliced to a next adjacent strip for supply of a continuous strip from the package. The side by side stacks are simultaneously built up from the bottom by moving a carriage back and forth below a stationary bottom surface of the stacks with the strips supplied side by side through a slot in the carriage. The stacks are supported side by side as they are built up by rigid side walls of a chute or rectangular container into which the package is to be packaged for transportation. Splice tail portions extend from the strips and are supported or arranged so that they are ready for splicing when the package is completed before transportation. Transfer of the completed stacks is effected simultaneously by a slip sheet arrangement or by moving one of the belts of the carriage as an ejection belt.

Abstract: A method is provided for forming a package of a plurality of side-by-side stacks of continuous strips of material. Each strip is folded back and forth about first and second fold lines to form a stack of a plurality of folded overlying strip portions which are arranged side-by-side so that the side edges are aligned. The fold lines are transverse to the strip and arranged at opposite ends of the stack. A splice tail portion extending from a first strip end portion of each stack is spliced to a second strip end portion. The stacks are compressed such that their height is equal to that of the container and the splice tail portions remain loose and uncompressed.

Abstract: A package of a strip of material has a plurality of parallel side by side stacks each containing a length of the strip which is folded back and forth such that each folded portion of the stack is folded relative to the next portion about a line transverse to the strip. Preferably, the side edges of the strip portions are aligned. The strip can be continuous through each stack and connected by a splice from the end of one stack to beginning of the next stack. To reduce the height of the stacks, the package is compressed and maintained in the compressed condition by, for example, an evacuated sealed bag. The strip of each stack is formed to have a varying width, for example to form diaper inserts when the strip is cut into individual strip elements. The length of each strip portion of the stack is arranged to equal a whole number of strip elements so that the cut lines can be arranged at the fold lines.

Abstract: A product, such as a package, is provided and includes a plurality of layers of sheet material including at least a first layer and at least one second layer defined by a strip of material. The two layers are assembled in parallel overlying relationship to form a body in which the strip is covered by the first layer. The strip of material has a splice therein, with the splice being defined by two ends of the strip material. The two ends are held together by a plurality of yarn stitches passing through the strip of material and bridging the ends of the strip of material. The splice is arranged such that the strip of material has a surface characteristic at the splice which is substantially equal to that at other locations thereon and is not compromised by the splice.

Abstract: A package of a continuous strip of material includes a plurality of parallel side by side stacks each containing a length of the strip which is folded back and forth such that each folded portion of the stack is folded relative to the next portion about a line transverse to the strip and such that the side edges of the strip portions are aligned. The strip of material includes a splice defined by the two ends of the strip. The two ends of the strip are held together by yarn stitches passing through and bridging the strip ends.

Abstract: A package of a strip of material has a plurality of parallel side by side stacks each containing a length of the strip which is folded back and forth such that each folded portion of the stack is folded relative to the next portion about a line transverse to the strip. Preferably, the side edges of the strip portions are aligned. The strip can be continuous through each stack and connected by a splice from the end of one stack to beginning of the next stack. To reduce the height of the stacks, the package is compressed and maintained in the compressed condition by, for example, an evacuated sealed bag. The strip of each stack is formed to have a varying width, for example to form diaper inserts when the strip is cut into individual strip elements. The length of each strip portion of the stack is arranged to equal a whole number of strip elements so that the cut lines can be arranged at the fold lines.

Abstract: A package of strip material includes a plurality of stacks of the strip side by side where each strip forms a stacked fan folded supply of the strip which is spliced to or arranged so that it can be subsequently spliced to a next adjacent strip for supply of a continuous strip from the package. The side by side stacks are simultaneously built up from the bottom by moving a carriage back and forth below a stationary bottom surface of the stacks with the strips supplied side by side through a slot in the carriage. The stacks are supported side by side as they are built up by rigid side walls of a chute or rectangular container into which the package is to be packaged for transportation. Splice tail portions extend from the strips and are supported or arranged so that they are ready for splicing when the package is completed before transportation. Transfer of the completed stacks is effected simultaneously by a slip sheet arrangement or by moving one of the belts of the carriage as an ejection belt.

Abstract: A package has at least one stack of a strip of material repeatedly folded back and forth so that the stack contains a plurality of folded overlying strip portions of the strip. Each strip portion is folded relative to one next adjacent strip portion about a first fold line transverse to the strip and relative to a second next adjacent strip portion about a second fold line transverse to the strip and spaced from the first fold line. The strip portions form a plurality of first fold lines at each end of the stack. The stack can be arranged substantially upright and has a splice tail portion of the strip extending from the bottom strip portion beyond an end of the stack to be accessible for splicing. The entire top surface and the entire bottom surface of the stack is compressed from an external force in a direction at right angles to the top surface and the bottom surface of the stack. The stack is engaged by packaging which maintains the compression.

Abstract: A method is provided for forming a package of a plurality of side-by-side stacks of continuous strips of material. Each strip is folded back and forth about first and second fold lines to form a stack of a plurality of folded overlying strip portions which are arranged side-by-side so that the side edges are aligned. The fold lines are transverse to the strip and arranged at opposite ends of the stack. A splice tail portion extending from a first strip end portion of each stack is spliced to a second strip end portion. The stacks are compressed such that their height is equal to that of the container and the splice tail portions remain loose and uncompressed.

Abstract: A package of a strip of material has a plurality of parallel side by side stacks each containing a length of the strip which is folded back and forth such that each folded portion of the stack is folded relative to the next portion about a line transverse to the strip. Preferably, the side edges of the strip portions are aligned. The strip can be continuous through each stack and connected by a splice from the end of one stack to beginning of the next stack. To reduce the height of the stacks, the package is compressed and maintained in the compressed condition by, for example, an evacuated sealed bag. The strip of each stack is formed to have a varying width, for example to form diaper inserts when the strip is cut into individual strip elements. The length of each strip portion of the stack is arranged to equal a whole number of strip elements so that the cut lines can be arranged at the fold lines.

Abstract: A method is provided for forming a package of a plurality of side-by-side stacks of continuous strips of material in a rectangular container. Each strip is folded back and forth about first and second fold lines to form a stack of a plurality of folded overlying strip portions which are arranged side-by-side so that the side edges are aligned. The fold lines are transverse to the strip and arranged at opposite ends of the stack. A splice tail portion extending from a first strip end portion of each stack is spliced to a second strip end portion. The stacks are compressed such that their height is equal to that of the container and the splice tail portions remain loose and uncompressed.

Abstract: A package has at least one stack of a strip of material repeatedly folded back and forth so that the stack contains a plurality of folded overlying strip portions of the strip. Each strip portion is folded relative to one next adjacent strip portion about a first fold line transverse to the strip and relative to a second next adjacent strip portion about a second fold line transverse to the strip and spaced from the first fold line. The strip portions form a plurality of first fold lines at each end of the stack. The stack can be arranged substantially upright and has a splice tail portion of the strip extending from the bottom strip portion beyond an end of the stack to be accessible for splicing. The entire top surface and the entire bottom surface of the stack is compressed from an external force in a direction at right angles to the top surface and the bottom surface of the stack. The stack is engaged by packaging which maintains the compression.

Abstract: A method is provided for forming a package of a plurality of side-by-side stacks of continuous strips of material without intervening rigid container walls. Each strip is folded back and forth about first and second fold lines to form a stack of a plurality of folded overlying strip portions. The fold lines are transverse to the strip and arranged at opposite ends of the stack. The strip portions of each stack are arranged side-by-side so that the side edges are aligned. The strips are fed simultaneously through a guide slot in a movable carriage that is parallel to the stacks end upon which the stacks are arranged.

Abstract: A strip is wound at a winding location onto a winding support stand carrying a rotatable elongate support core while effecting a traversing movement of the strip back and forth along the core to form a large package of the strip of diameter up to 8 feet and of length tip to 8 feet. Such a package is supported on the stand and the core during transportion from the supply location to an end use machine and during unwinding until the core is emptied of the strip. The stand with the emptied core is returned from the end use location to the supply location. The stand can be reduced in effective size while the core remains attached during return by partial collapse and/or, stacking or nesting stands together. A sling attached to the stand can be provided to support the bottom of the package to prevent sagging of material.

Abstract: A package of a continuous strip of material includes a plurality of parallel side by side stacks each containing a length of the strip which is folded back and forth such that each folded portion of the stack is folded relative to the next portion about a line transverse to the strip and such that the side edges of the strip portions are aligned. The strip of material includes a splice defined by the two ends of the strip. The two ends of the strip are held together by yarn stitches passing through and bridging the strip ends.