The disclosure describes a system for applying custom branded tape to packages that are shipped from a multi-seller materials handling facility. In some implementations, a materials handling facility may store, process and ship items for multiple sellers. As items are packed for shipping, a tape dispensing device may dispense custom branded tape associated with the seller of the item(s) being packed such that the sellers brand, logo or other information is presented on the exterior of the container.

A booklet making method includes: cutting a web of paper on one side and on another side into first and second continuous sheets, alternately bonding the first and second continuous sheets widthwise with a setting paste and a throwaway paste to form a double set continuous sheet of paper, and cutting the double set continuous sheet of paper into split double sheets of a selected longitudinal length. A plurality of split double sheets is integrally bound with an integrating paste to form a booklet-like product. Portions of the booklet-like product which are pasted and bonded with the throwaway paste are cut off to provide a plurality of booklets. Thus, by the booklet making method, booklets having an odd number of leaves or pages are formed without waste of paper and with reduced paper jams.

A station (100, 110) for inspecting rolled strips wound in coils, comprises:a first pair of mutually opposed pinch rolls (3, 4), adapted to receive and feed a rolled strip (1) from a coil (10);a carriage (7) sliding between a first start position, near said first pair of pinch rolls (3, 4), and a second end position, said sliding carriage (1) comprising a gripping member to grasp said rolled strip (1) coming from said first pair of pinch rolls (3, 4), said carriage allowing the strip to be unwound without contact with a surface (S1) to be inspected.

A sheet product package and method of making discrete plastic sheets includes a package enclosure with a dispensing opening structure and a plurality of discrete plastic sheets arranged in a stack. The plurality of discrete plastic sheets are disposed within the package enclosure, and each of the plurality of discrete plastic sheets is electrostatically charged. In the method of making the dispensable plastic sheets, electrostatically charged discrete plastic sheets are formed and arranged in a stack. The method may include forming a continuous plastic film, cutting the continuous plastic film into discrete plastic sheets, and, after cutting, electrostatically charging the discrete plastic sheets.

A non-stop constant-speed efficient winding machine for separator relates to the technical field of lithium ion cell manufacturing. The non-stop constant-speed efficient winding machine for separator includes a base plate, an electrode feeding mechanism, a winding mechanism, a separator cutting mechanism, and a separator compounding mechanism. The winding mechanism includes a winding head and three winding needles rotatably provided on the winding head. By additionally providing the separator compounding mechanism between the electrode feeding mechanism and the winding mechanism, thermal compounding of the separator is realized, and through rolling separator cutting of the separator cutting mechanism, the separator cutting is realized. The winding needle located at the winding position can adsorb a separator end after the cutting, and wind the separator end on an outer circumferential surface of the corresponding winding needle.

An apparatus for preparing a cell is provided. The apparatus includes an electrode reel from which an electrode sheet is unwound, wherein the electrode sheet is configured to form a plurality of electrodes, a separator reel from which a separator sheet is unwound, wherein the separator sheet is configured to stack with the electrode while covering the electrode by being folded when the electrode is stably placed, a table having an upper surface on which the electrode and the separator sheet are stably placed, and a nozzle configured to apply an adhesive to at least a portion of a region of the separator sheet stably placed on the table.

The application discloses a roll paper cutting device. The roll paper cutting device adopts an improved opening and closing design. When paper cutting is required, the left semi-cylinder and the right semi-cylinder can be opened, and the left semi-cylinder and the right semi-cylinder can be closed after paper is put in, and then the paper can be cut with a blade. This design is more convenient for putting in roll paper, and it is also more convenient to change and cut other roll paper.

A fort lift tool holder apparatus. The fork lift tool holder includes a spindle with a cutting component for storing and dispensing a roll of materials for wrapping a pallet of goods, storing for plural types of cups and/or bottles and plural types of writing utensils. The fork lift tool holder includes connection components usable on plural different types of fork lifts with plural different types of structural components (e.g. round, square, rectangular, etc.).

A sheet conveyance apparatus includes: a cutting section that cuts, in a conveyance direction, a sheet on which images are printed to divide the sheet into multiple effective sheets; a conveyance section capable of individually conveying the effective sheets divided by the cutting section; a conveyance operation switching mechanism capable of switching a conveyance operation of the effective sheets conveyed by the conveyance section; and a hardware processor that controls the conveyance operation switching mechanism. Based on at least either information on image formation on the effective sheets or information on cutting of the sheet into the effective sheets, the hardware processor controls the conveyance operation switching mechanism to switch the conveyance operation of the effective sheets.

An apparatus for manufacturing unit cells includes reels, rollers, conveyors, headers, and a cutter. A lower separator sheet is unwound from a lower separator reel. A feeding roller moves the lower separator sheet in a first direction. A conveyor moves a first electrode in a second direction parallel to the first direction. A first header conveys that electrode from the conveyor and onto the lower separator sheet. An upper separator sheet is unwound from an upper separator reel. Another feeding roller moves, in the first direction, a first ordered stack of the lower separator sheet, first electrode, and upper separator sheet. Another conveyor moves a second electrode in the second direction. Another header conveys that electrode from the second conveyor and onto the upper separator sheet. The cutter cuts, at preset intervals, a second ordered stack of the lower separator sheet, first electrode, upper separator sheet, and second electrode.