A device, system and method for making custom printed products. In one embodiment of the method, input selecting one or more vector graphics is received from a user device along with a size of for the printed product. Pixel edge detection is performed on the image to generate a plurality of polygons corresponding to all shapes in the image. Polygons below a size threshold are removed. An offset is applied to each polygon. The polygons are combined. A smoothing algorithm is applied to the combined polygon. A set of curves that define the smoothed polygon is determined. A cut path is dynamically generating for the printed product in real-time in dependence on the modified vector graphic cut path and the received size so that the cut path has a shape dependent on the modified vector graphic cut path and a size dependent on the received size. The image is printed on a substrate for the image product in dependence on the received size and the offset so that the printed image has a printed size equal to the received size less the offset. The substrate is cut in dependence on the cut path.

Paper is disclosed for use in making repositionable or removable adhesive labels. The adhesive can be applied in patches or discrete areas to the paper or to a layer of material that cleans rollers in the manufacturing line and/or in printers. The adhesive can be applied in single or multiple layers. The paper is light weight paper and preferably thermal paper for use in POS printers.

A device, system and method for making custom printed products. In one embodiment of the method, an image is received from a user device along with a size of for the printed product. Pixel edge detection is performed on the image to generate a plurality of polygons corresponding to all shapes in the image. Polygons below a size threshold are removed. An offset is applied to each polygon. The polygons are combined. A smoothing algorithm is applied to the combined polygon. A set of curves that define the smoothed polygon is determined. A cut path is dynamically generating for the printed product in real-time in dependence on the set of curves and the received size so that the cut path has a shape dependent on the set of curves and a size dependent on the received size. The image is printed on a substrate material for the image product in dependence on the received size and the offset so that the printed image has a printed size equal to the received size less the offset. The substrate is cut in dependence on the cut path.

A label is to be wrapped around an adherend after being printed. The adherend has a diameter equal to or smaller than a prescribed diameter. In the label, a base material has a printing surface. An adhesive layer is provided on an opposite side surface of the base material from the printing surface. A release material is bonded to the adhesive layer with a portion of the adhesive layer exposed. The release material has a higher stiffness than the base material. A mark for alignment is to be used when bonding together exposed sections of the adhesive layer or an exposed section of the adhesive layer with the release material in order to form the label into a loop shape. The mark is provided at a position for forming the label in the loop shape having an inner diameter greater than the prescribed diameter.

A process for automatically correcting defects and non-compliances in self-adhesive labels or the like on a continuous band, comprising the steps of: advancing the continuous band (10) so as to expose the self-adhesive labels to inspection means (12); if these inspection means (12) detect a non-compliance in at least one self-adhesive label, imparting a bend to the continuous band (10) as to cause detachment of the defective label from said main continuous band (10); replacing this defective label with a replacement label (11); and rewinding the continuous band (10) in a direction opposite to the direction of travel until the replacement label (11) is upstream of the inspection means (12).

A label web and method utilize a substrate, first and second longitudinally spaced label arrays each including two or more double-sided adhesive labels removably attached to the substrate, and a peelable protective covering web extending generally coextensive with the substrate. The label arrays and the peelable protective web are configured such that the peelable protective web is selectively removable to expose the first label array while remaining removably attached to the second label array, with both the first and second label arrays remaining removably attached to the substrate, to thereby facilitate removal of all labels in the first label array as a group while the peelable protective covering web remains in place over the second label array.

An RFID tag manufacturing system is provided that includes a conveyance device that conveys a base sheet provided with a plurality of antenna patterns to each of which an RFIC module is fixed. The system includes a laminating device that attaches a cover seal on the base sheet to cover the antenna patterns and a punching device that produces RFID tags by punching the cover seal and the base sheet with a punching blade that includes a frame-shaped cutting edge surrounding the antenna patterns to form a frame-shaped cut. The base sheet includes alignment mark in a non-attachment part of the cover seal. The punching device specifies the position of each of the antenna patterns covered with the cover seal based on the alignment mark, and punches the cover seal and the base sheet based on the specified position of the antenna pattern.

A liner in a label-liner combination is provided with a die cut portion made in the liner. The die cut portion is aligned with at least one edge in a label and a front side of the liner is attached to a backside of the label. The die cut portion of the liner is adapted to be removed from the liner when the label is removed from the label-liner combination. Dimensions, and orientation, and a location of the die cut portion in the liner are adapted to allow the label to be removed from the label-liner combination and applied to a surface by digits of a hand without touching an adhesive coating on the backside of the label and adapted to maintain proper printer waste liner spool operations when the liner is wound after application of the label.

This invention relates to a method for manufacturing a direct thermal linerless label web (100), the direct thermal linerless label web (100) comprising a face (110) having a first side (111) and a second side (112), the face comprising a direct thermal printable coating, wherein the method comprises supplying the face (110), and applying modified adhesive coating (121) on to a substrate (110, 611). The modified adhesive coating comprises water-based acrylic adhesive, and emulsified silicone additive. The method further comprises thermally drying the modified adhesive coating (121) on the substrate (110, 611) into a pressure sensitive adhesive coating (120). The substrate is the face (110) or a carrier material (611, 611a, 611b). This invention further relates to a direct thermal linerless label web (100), and a use of a direct thermal linerless label (100) in on-demand printing.

A die cutting method that cuts patterns in a label is provided. According an embodiment, a method adjusts temperature of a label sheet comprising a laminated layer and a liner layer. The method further separates the laminated layer from the liner layer prior to making the cuts on the laminated layer. The method further cuts one or more patterns on the laminated layer. The method further re-attaches, the laminated layer to the liner layer.