The package includes a box structure defining an inner cavity and a side portion. The box structure includes a front panel, a back panel, a first side panel and a second side panel. The side portion is divided into a lower retention portion, an upper retention portion, and a window recess portion. The window recess portion, the upper retention portion and the lower retention portion is configured to retain the elongated body within the side portion to display the select portion through the window recess portion. A divider panel is in the inner cavity. The divider panel has a first end and a second end, the first end of the divider panel being connected to the second side panel. The divider panel is configured to support a universal serial bus (USB) charger to maintain the USB charger in a fixed position within the inner cavity. The blank forms the package.

A method of displaying an electronic vaping device, display packages, blanks for forming a display package for containing an elongated body housing an electronic vaping device, and a method of manufacturing a display package for an electronic vaping device, include establishing a box structure having an inner cavity and a side portion, dividing the side portion into a lower retention portion, an upper retention portion, and a window recess portion, the dividing including establishing a side recess panel at a location along a first side panel of the box structure, establishing a front recess panel along a front panel of the box structure, and establishing the window recess portion by folding the first and front recess panels into the box structure. The front recess panel is attached to the side recess panel, and the front recess panel has a width greater than that of the side recess panel.

The present disclosure relates to methods for sealing absorbent cores of disposable diaper pants during the assembly process. The diaper pants may include a chassis connected with a ring-like elastic belt. Aspects of the assembly methods involve bonding a continuous length of absorbent cores between a continuous topsheet substrate and a continuous backsheet substrate advancing in a machine direction. The combined continuous topsheet substrate, continuous backsheet substrate, and continuous length of absorbent cores are then cut along a cross direction to create discrete chassis, wherein the topsheet, the backsheet, and the absorbent core of each chassis have equal longitudinal lengths. The discrete chassis are then deposited onto a first continuous elastic laminate and a second continuous elastic laminate. Opposing end regions of the absorbent cores may then be sealed by positioning a sealing layer across the topsheets of the chassis.

In an embodiment, a method for manufacturing a pouch-type secondary battery comprises folding a pouch film to accommodate an electrode assembly in the pouch film, forming a first side sealing portion, a second side sealing portion, and an upper sealing portion at both end portions and an upper portion of the pouch film, and forming a folded portion by pressing a protrusion disposed on ends of the first and second side sealing portions, wherein the folded portion is formed by folding the protrusion towards a bottom portion of the pouch film.

A pouch-type secondary battery includes an electrode assembly including a first electrode plate, and a second electrode plate and a pouch film in which the electrode assembly is accommodated and including a sealing portion on three sides of the pouch film, wherein the pouch film includes a folded portion disposed at an end of the sealing portion, and formed by folding an end portion of the pouch film.

According to one embodiment, a method of manufacturing a flexible substrate, includes forming a release layer on a glass substrate, forming an insulating base, forming a plurality of insulating layers, wiring lines and electrical elements, asking the release layer, the insulating base and the plurality of insulating layers from above to the glass substrate via a mask, forming an upper resin layer, removing the glass substrate and the release layer by peeling off an interface between the release layer and the insulating base and forming a lower resin layer so as to be in contact with a lower surface of the insulating base and a lower surface of the upper resin layer.

A device to apply a trim to textile surfaces is provided that can cut, fold, and adhere end pieces of the trim. The device includes a material holder assembly configured to hold and dispense a roll of trim material and a roll of adhesive material; a control and heating assembly including control inputs, status indicators, control electronics, a heating element and a heating chamber configured to receive the trim material and the adhesive material from the material holder assembly; and a cutting and forming compartment including drive rollers, a cutting device, a folding mechanism configured to fold cut ends of the trim material and the adhesive material, and pressing mechanisms to press the folded cut ends of the trim and adhesive material so that the folded ends are adhered to the remainder of respective trim material lengths.

A machine and method for manufacturing an elastic composite structure for disposable sanitary products involves manufacturing the elastic composite structure with an elasticized leg and leg cuff region in a manner that minimizes or eliminates the use of consumable adhesives. The elastic composite structure includes pairs of leg bonds and cuff bonds that are formed without adhesive and anchor respective leg and cuff elastic threads in position relative to facing web layers. The leg bonds and cuff bonds are formed using one or more anvils that include discrete raised projections.

A machine and method for manufacturing an elastic composite structure for disposable sanitary products involves manufacturing the elastic composite structure with an elasticized leg and leg cuff region in a manner that minimizes or eliminates the use of consumable adhesives. The elastic composite structure includes pairs of leg bonds and cuff bonds that are formed without adhesive and anchor respective leg and cuff elastic threads in position relative to facing web layers. The leg bonds and cuff bonds are formed using one or more anvils that include discrete raised projections.

An elastic composite structure includes a first web layer comprising a first portion, a second portion, and a third portion; a second web layer comprising a first portion and a second portion; and a plurality of elastic threads. The first portion of the first web layer is folded over and overlaps the second portion of the first web layer. The folded first portion of the first web layer is directly bonded to one of the second portion of the first web layer and the first portion of the second web layer. A first portion of the plurality of elastic threads is constrained between the folded first portion of the first web layer and the second portion of the first web layer absent adhesive. The third portion is directly bonded to the second portion of the second web layer and traps a second portion of the plurality of elastic threads therebetween.