Abstract: Provided are flexible multi-battery assemblies and methods of manufacturing these assemblies. In some examples, a flexible multi-battery assembly comprises a first current collector, parsed into a first plurality of current collector portions such that each portion contacts one of a plurality of electrochemically active stacks. The second current collector may be continuous (e.g., to provide support to the electrochemically active stacks) or similarly parsed into a second plurality of current collector portions. Each electrochemically active stack forms one of flexible electrochemical cells in the flexible multi-battery assembly. Furthermore, at least one outer surface of the first current collector or the second outer surface is fully exposed, e.g., to allow forming electrical and mechanical connections directly to one or both current collectors. In some examples, an insulator layer covers a non-exposed surface of the other current collector.

Abstract: Provided is an anti-static and high-heat resistant label sheet comprising a film, metallic interlayer, and adhesive. The metallic interlayer comprises pigments that are smoother, have a rounded edge, and result in a more homogenous thickness with minimal to no surface defects, which allow for increased reflectivity and vibrancy of the pigments and label sheet. The pigments are also aligned as to form channels within the metallic interlayer for dispersing and preventing buildup of static electricity. The label sheet may further comprise a printable top coat, primer coating, a colored coating, and a liner layer. The printed label sheets may be used for asset tracking and security labeling, such as barcoding products and inventory. The metallic color and reflectivity of the label sheets, and the die-cut labels thereon, may enable readability of the barcodes with a handheld scanner up to 24 inches distance.

Abstract: Provided are electrochemical cells, comprising water-retaining components, and methods of fabricating such electrochemical cells. A water-retaining component is configured to deliver water to the positive active material during the operation of the electrochemical cell. The water-retaining component may be a part of the positive active material layer, a part of the electrolyte layer, and/or a standalone component. In some examples, the water-retaining component comprises one or more crystal hydrates (e.g., MgSO4, MgCl2, Na2SO4, Na2HPO4, CuSO4, CaCl2, KAl(SO4)2, and Mg(NO3)2), one or more water-retaining polymers (e.g., sodium polyacrylate, potassium polyacrylate, ammonium polyacrylate, and a cellulose derivative), one or more inorganic compounds (e.g., fumed silica, precipitated silica). In some examples, a method of forming an electrochemical cell comprises printing a positive active material layer, a negative active material layer, and an electrolyte layer, e.g.

Abstract: A set of sheet dividers comprises a first plurality of sheet dividers, each divider comprising a sheet with a tab extending therefrom at a different location along the same side as all other dividers in the first plurality and to a first extent from the opposite side of the sheet, and a second plurality of sheet dividers, each divider comprising a sheet with a tab extending therefrom at a different location along the same side as all other dividers in the second plurality and to a second extent from the opposite side of the sheet that is greater than the first extent.

Abstract: A label sheet assembly and method is disclosed for improving the process of feeding label sheets through a printer. The label sheet assembly may include a facestock layer and a liner sheet. The facestock layer may include an adhesive layer along at least a portion of a first side and include a label surface along at least a portion of the second side opposite the adhesive layer. The liner sheet layer may include at least one surface feature provided along a back side of the liner sheet. In another embodiment, the facestock layer may include at least one surface feature provided along the front of the facestock layer. The surface features may create a zone of increased friction or increase tactile sensitivity along the various surfaces of the label sheet assembly to improve printer processing.

Abstract: A set of sheet dividers comprises a first plurality of sheet dividers, each divider comprising a sheet with a tab extending therefrom at a different location along the same side as all other dividers in the first plurality and to a first extent from the opposite side of the sheet, and a second plurality of sheet dividers, each divider comprising a sheet with a tab extending therefrom at a different location along the same side as all other dividers in the second plurality and to a second extent from the opposite side of the sheet that is greater than the first extent.

Abstract: Provided is a printable coating, printable media and printable labels thereof, usable in both inkjet and direct thermal printing applications. The coating comprises leuco dye blended into an inkjet coating formulation, wherein the coating is applied on the first face of an appropriate paper or film to form the printable media. The coating may be applied as a single, homogenous topcoat thereby streamlining the manufacturing process and reducing potential printing errors. The coating may provide a printable area compatible for use with both direct thermal printers and inkjet printers. On the opposite face of the paper or film, an adhesive may be applied, in combination with an optional release liner, to form printable label stock. Each step of the process, e.g. application of the coating, application of the adhesive and liner, and die-cutting of labels, may occur in any order combination relative to one another. In addition, reverse printing may also be utilized to print and form the labels.

Abstract: A label sheet assembly is disclosed for improving the process of feeding label sheets through a printer. The label sheet includes a facestock layer and a liner sheet. The facestock layer includes an adhesive layer along a first side and include a label surface along a second side opposite the adhesive layer. The label sheet may include a puncture surface feature along a matrix portion of the facestock layer, wherein the puncture surface feature may include a plurality of puncture holes formed in a shape wherein each puncture hole that forms a slightly concave shape along one side and a slightly convex shape along the opposite side. The puncture surface features provides a zone of tactile sensitivity along the label sheet and are configured to reduce off-registration of printed indicia along the at least one label when processed through a printer device.

Abstract: A printable sheet assembly and method provide for feeding cardstock sheets through a printer. The printable sheet assembly may include a first fold region. The first fold region comprises a robust perforated line disposed horizontally across the sheet assembly. The printable sheet assembly may include a second fold region. The second fold region may comprise a second robust perforated line disposed horizontally across the sheet assembly. The sheet assembly may include a product such as a name tag, business card, label, or card formed into the sheet assembly and configured to be processed through a printer device to receive indicia thereon.

Abstract: A sheet construction including a first material, and methods of making and using the same. The first material can include a leading edge, a trailing edge, a first longitudinal edge, and a second longitudinal edge. The first material can define a first print-receptive medium. The sheet construction can also include a leading margin extending from the first longitudinal edge to the second longitudinal edge and bounded at least by the leading edge, the first longitudinal edge, the second longitudinal edge, and the print-receptive medium. The sheet construction can also include a first side margin bounded at least in part by the leading margin, the first longitudinal edge, and the first print-receptive medium. The first side margin can include at least one compressed region.

Abstract: A printing system may generate custom user designs for printing. The designs may be associated with a selected print medium. The printing system may generate a custom template for a secondary printing on the print medium. The custom template may define print areas based on the print medium and the custom user design.