Abstract: A film loading arrangement simplifies the film loading process for a user and prevents the improper loading of a laminate film roll into a laminator. The components allow the laminate roll of film to be loaded in the correct orientation by providing differing connection structures on each end of the laminate film roll. The differing connection structures are received by respective receiving structures on the laminator. Each connection structure is compatible with only one of the receiving structures such that when the connection structures are attached to the roll, the film can be loaded in only one direction, i.e., correctly. Therefore, the user can properly load a laminate film roll and avoid damaging the laminator as a result of improper film loading. A tensioning mechanism can be provided for adjusting the force required to unroll laminating film from the supported roll.

Abstract: The present invention includes an automated binding machine configured for binding a stack of perforated sheets with a binding element. The automated binding machine includes a support member supporting the stack of perforated sheets, a binding element feeder, a plurality of binding elements supported by the binding element feeder, a receiving member configured to receive a first binding element from the plurality of binding elements and to insert at least a portion of the first binding element through the stack of perforated sheets, and a binding mechanism configured to engage the inserted portion and couple the inserted portion to a non-inserted portion of the first binding element.

Abstract: The invention includes a combination of coupling clip structure and a plurality of binding elements for binding stacks of perforated sheets for delivery to an automated machine. The combination comprises at least two binding elements, and at least one coupling clip discrete from said at least two binding elements. At least one of the coupling clip or the binding element(s) comprises at least one recess, at least a portion of at least one said binding element being disposed in said recess in the coupling clip and/or at least a portion of the coupling clip being disposed in said recess in the binding element, the coupling clip coupling the at least two binding elements together in a predetermined adjacent spatial relationship. The coupling clip may be separated from the binding elements by the automated machine. The invention further includes a method of coupling a plurality of binding elements together with at least one coupling clip for delivery to an automated machine.

Abstract: A plurality of binding elements, each of a substantially uniform thickness, the fingers being looped over and coupled to the spine such that the inner surface of the fingers is disposed against the inner surface of the spine by an adhesive when assembled. In an embodiment, at least a portion of the outer surface of the binding element is resistant to a more permanent attachment to the adhesive such that the plurality may be stacked together, and successively decoupled or removed for insertion into a stack. The binding elements may include score lines or bends in the fingers to provide a rounded closed loop structure; optional gussets in the bends inhibit straightening of the fingers. The fingers optionally include variations in cross-section along the length to relieve certain stresses to inhibit the looped finger. The binding elements optionally include structure for facilitating interaction with an automating binding process.

Abstract: A machine for binding a sheath of punched sheets together by means of a spine binder includes a closing assembly for closing the spine binder over the sheath of punched sheets. The closing assembly includes a rail and a closing tool carried by and movable along the rail, and adapted to engage the spine binder for closing the spine binder over the sheath as the closing tool is moved along the rail.

Abstract: The invention includes a combination of coupling clip structure and a plurality of binding elements for binding stacks of perforated sheets for delivery to an automated machine. The combination comprises at least two binding elements, and at least one coupling clip discrete from said at least two binding elements. At least one of the coupling clip or the binding element(s) comprises at least one recess, at least a portion of at least one said binding element being disposed in said recess in the coupling clip and/or at least a portion of the coupling clip being disposed in said recess in the binding element, the coupling clip coupling the at least two binding elements together in a predetermined adjacent spatial relationship. The coupling clip may be separated from the binding elements by the automated machine. The invention further includes a method of coupling a plurality of binding elements together with at least one coupling clip for delivery to an automated machine.

Abstract: The invention provides a modular board arrangement that may be easily transported and assembled. The board arrangement comprises a plurality of boards and individual frame members that can be assembled in a variety of ways to provide a desired arrangement. The board arrangement may additionally comprise side frame members and/or a tray. The board arrangement is expandable to a desired length by adjacently adding additional board and frame units. Multiple board and frame units may be connected to one another by a transition piece. A connector may be provided for attaching an object such as the tray to the board arrangement. A removable faceplate may also be provided.

Abstract: The present invention includes an automated binding machine configured for binding a stack of perforated sheets with a binding element. The automated binding machine includes a support member supporting the stack of perforated sheets, a binding element feeder, a plurality of binding elements supported by the binding element feeder, a receiving member configured to receive a first binding element from the plurality of binding elements and to insert at least a portion of the first binding element through the stack of perforated sheets, and a binding mechanism configured to engage the inserted portion and couple the inserted portion to a non-inserted portion of the first binding element.

Abstract: A punch assembly for punching a plurality of consecutive sheets each having a first edge and a second edge generally opposite the first edge includes a punch and a transport assembly having a feeding path for feeding the first edge of a sheet in a feeding direction relative to the punch for punching thereof, and a removal path different from the feeding path for removing the sheet from the punch in a removal direction generally opposite to the feeding direction relative to the punch such that the second edge becomes a leading edge.

Abstract: An improved thermal laminating film includes a tackified resin. The film can be manufactured by extruding the tackified resin onto a base layer of the film.

Abstract: A laminating machine configured to apply a film to a media. The laminating machine includes a pair of first rollers that define an in-feed nip, and a pair of second rollers that define an out-feed nip. The laminating machine further includes a threading member movable from the in-feed nip toward the out-feed nip, and wherein the threading member is configured to engage the film.

Abstract: A laminating machine configured to apply a film to a media. The laminating machine includes a first roller and a second roller. The first and second rollers together define an in-feed nip point where the first and second rollers contact each other. An in-feed location is defined as a point on the first roller where coupled media and film first contacts the first roller. An in-feed angle is defined as the angle between a line that extends from the center of the first roller to the in-feed location and a line that extends from the center of the first roller to the in-feed nip point, and the in-feed angle is greater than about 10 degrees.

Abstract: The invention provides a group of standardized plastic binding elements that include two, three, four, five, or seven fingers that are spaced along the spine at precise locations to accommodate the perforations spaced according to specific standardized loose-leaf hole patterns. The binding elements preferably have spines likewise corresponding to at least the length of specific standardized paper sizes, i.e., 8.27 inches (21 cm), 8.5 inches (21.5 cm) 11 inches (28 cm), 11.69 inches (30 cm), 14 inches (39.5), and 16 inches (40.5 cm). The fingers of the binding elements either secure together or to the spine when in the closed position, or the binding elements are held in the closed position by other structure such that the binding elements may be utilized to bind a stack of standard, loose-leaf sheets without the use of a binding machine.

Abstract: A thermal laminating film includes a substrate layer and a thermally-activated adhesive layer. A full spectrum optical brightener is coupled with at least one of the substrate layer and the adhesive layer to counteract any coloration present in the substrate and/or adhesive and reduce color shift for colors displayed on the sheet material or other object laminated with the film.