PROCESS FOR INTEGRATION OF A SIGNAL CONNECTION, IN AN INCONTINENCE SENSING PRODUCT, USING A UNI-FASTENER INTO A HIGH-SPEED MANUFACTURING LINE

Abstract

This patent describes the design of a novel metal snap, either ball or socket, and the process by which it is integrated and connected to conductive elements in incontinence products, manufactured in high speed production lines, which makes possible the monitoring and detection of incontinent events in the product.

Claims

1. A method for integrating an external connection interface to the sense lines of an incontinence article on a high-speed manufacturing line for incontinence articles.

2. A one-piece snap socket, comprising a metal snap socket with two or more prongs antipodean to the socket face.

3. A carrier tape manufactured and designed for delivery of metal snap sockets with prongs as shown in FIG. 2, comprising a carrier tape with snap posts which will pick up the one-piece snap sockets according to claim 2.

4. A high-speed manufacturing line for incontinence products comprising these additional processing steps and accompanying equipment; a. rollers and guides to introduce an aluminum backed mylar sensing tape; b. rollers and guides to introduce the one piece snap socket on a delivery tape; c. a brush roller or air jet for prong insertion; d. An instantaneous press or roller for compressing prongs; e. rollers and guides to exit the socket delivery tape.

5. A method for integrating an external connection interface according to claim 1, further comprising the once piece snap socket according to claim 2, further comprising a carrier tape according to claim 3, further comprising a high-speed manufacturing line for incontinence products according to claim 4.

6. A method for integrating an external connection interface according to claim 5 where the following sequential steps occur. First, the carrier tape in claim 3, which is synchronized with the line speed, is introduced below the impermeable layer as shown in FIG. 3. The prongs on the socket are up facing the exterior surface of the impermeable layer. When the sockets pass beneath the prong insertion point as shown in FIG. 3, the brush roller or air jets, press the impermeable layer with the accompanying sensing strips downward, causing the prongs to pierce both layers such that the prongs are fully through the layers and against the socket. The line continues to move forward and at the point when the socket is beneath the prong compress, as shown in FIG. 3, the press instantaneously closes, compresses the prongs fast to the sensor tape and the socket body, providing good contact between the sensor tape and the exterior socket, via the prongs. As the line continues to move, the carrier tape is separated from the socket while the product continues to move into the pulp deposition, which buries the prongs and prevents skin and sweat contact from sending erroneous signals.

7. A method for integrating an external connection interface according to claim 6, where the pronged sockets in claim 2 are replace by the pronged socket studs as indicated in claim 8.

8. A one-piece snap post, comprising a metal snap post with two or more prongs antipodean to the post face.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0035] FIG. 1 is a drawing of a pronged socket.

[0036] FIG. 2 is a drawing of pronged sockets on a delivery tape. There are two rows of sockets because there are two sensor strips in the incontinence products and so there must be two sockets presented at the same time, one socket for connection to each sensor line.

[0037] FIG. 3 is the process flow for integration of the pronged sockets to the incontinent product.

[0038] FIG. 4 shows the attachment of two sockets to the sensor strips and shows a completed incontinent product with sensor strips and sensor module attached to sockets

[0039] FIG. 5. Shows renditions of a one-piece pronged socket and a one-pieces pronged stud.