Abstract: A method for printing a package substrate prior to molding the package substrate into a desired shape. The present teachings include printing an aqueous ink onto a sacrificial carrier to form an ink pattern, and then drying the ink pattern on the carrier. The carrier and ink pattern are aligned with a package substrate and placed into a mold fixture. The ink pattern is transferred to the package substrate within the mold fixture during the molding of the package substrate into the desired shape. The ink pattern may be transferred from the sacrificial carrier to the package substrate using, for example, a dye sublimation (dye diffusion) process.

Abstract: A system and method are provided for implementing selectable roll positioning for web printing in devices, including post processing devices, for advanced image forming systems. A selectable drive system for continuous feed or web material image receiving medium substrate can “with the flip of a switch” transition the drive system from a tensioned web (transport) pulling system in a downstream device to a slack web nip-drive system as may be dictated by other system and/or operating characteristics. The selection of a particular drive method is based on a constitution of the continuous feed or web material image receiving media; a composition of a marking material deposited on the continuous feed or web material image receiving media; or a post-processing technique that the continuous feed or image receiving media, as marked, may undergo in the production of an output document.

Abstract: A re-time sheet buffering system is used in connection with a finisher for a digital printing system and a plurality of media sheets arranged in sets. A path loop between a sheet path entrance and exit provides space for buffering. A registration nip decelerates, registers and accelerates sheets 1 through N. A first retime nip holds sheets 1 and 2 of the set at registration speed for a longer time than remaining sheets, to gain time for finishing, and then accelerates sheets 1 and 2. A second retime nip accelerates sheets 1 and 2 of the set to compiling speed. Sheets are transported, compiled, stapled, and ejected.

Abstract: A system and method are provided for implementing selectable roll positioning for web printing in devices, including post processing devices, for advanced image forming systems. A selectable drive system for continuous feed or web material image receiving medium substrate can “with the flip of a switch” transition the drive system from a tensioned web (transport) pulling system in a downstream device to a slack web nip-drive system as may be dictated by other system and/or operating characteristics. The selection of a particular drive method is based on a constitution of the continuous feed or web material image receiving media; a composition of a marking material deposited on the continuous feed or web material image receiving media; or a post-processing technique that the continuous feed or image receiving media, as marked, may undergo in the production of an output document.

Abstract: A re-time sheet buffering system is used in connection with a finisher for a digital printing system and a plurality of media sheets arranged in sets. A path loop between a sheet path entrance and exit provides space for buffering. A registration nip decelerates, registers and accelerates sheets 1 through N. A first retime nip holds sheets 1 and 2 of the set at registration speed for a longer time than remaining sheets, to gain time for finishing, and then accelerates sheets 1 and 2. A second retime nip accelerates sheets 1 and 2 of the set to compiling speed. Sheets are transported, compiled, stapled, and ejected.

Abstract: According to aspects described herein, there is disclosed an apparatus and method for de-skewing substrate media in a printing system. The apparatus includes at least one sensor for measuring skew of the substrate media being transferred relative to a process direction, and a nip assembly for moving the substrate media in the process direction. The nip assembly includes a nip having a drive roller and an idler roller for engaging the substrate media. The nip assembly is pivotal from a default position an amount responsive to the measured media skew. The drive roller is selectively stopped to permit a leading edge of the substrate media to engage the stopped drive roller.

Abstract: According to aspects described herein, there is disclosed an apparatus for de-skewing substrate media in a printing system. The apparatus including and idler roller and a drive roller. The idler roller for engaging substrate media. The drive roller cooperating with the idler roller to form a nip assembly for moving the substrate media in a process direction. The drive roller rotatably supported on a shaft axis by a first bearing element and a second bearing element. The first and second bearing elements disposed remote from one another along the shaft axis. The shaft axis pivotally supported at the first bearing element for aligning the shaft axis with a substrate media skew. The shaft axis configured to pivot about a pivot axis perpendicular to the shaft axis and extending through the first bearing element.

Abstract: According to aspects described herein, there is disclosed an apparatus for de-skewing substrate media in a printing system. The apparatus including and idler roller and a drive roller. The idler roller for engaging substrate media. The drive roller cooperating with the idler roller to form a nip assembly for moving the substrate media in a process direction. The drive roller rotatably supported on a shaft axis by a first bearing element and a second bearing element. The first and second bearing elements disposed remote from one another along the shaft axis. The shaft axis pivotally supported at the first bearing element for aligning the shaft axis with a substrate media skew. The shaft axis configured to pivot about a pivot axis perpendicular to the shaft axis and extending through the first bearing element.

Abstract: According to aspects described herein, there is disclosed an apparatus for de-skewing substrate media in a printing system. The apparatus includes at least one sensor for measuring skew of the substrate media being transferred relative to a process direction. The apparatus also includes a nip assembly for moving the substrate media in the process direction. The nip assembly includes a drive roller and an idler roller for engaging the substrate media. The drive roller is rotatably supported on a shaft axis, with the shaft axis being pivotally supported substantially at one end thereof for aligning the shaft axis with the measured substrate media skew. The shaft axis pivots about a pivot axis perpendicular to the shaft axis.

Abstract: According to aspects described herein, there is disclosed an apparatus and method for de-skewing substrate media in a printing system. The apparatus includes at least one sensor for measuring skew of the substrate media being transferred relative to a process direction, and a nip assembly for moving the substrate media in the process direction. The nip assembly includes a nip having a drive roller and an idler roller for engaging the substrate media. The nip assembly is pivotal from a default position an amount responsive to the measured media skew. The drive roller is selectively stopped to permit a leading edge of the substrate media to engage the stopped drive roller.

Abstract: According to aspects described herein, there is disclosed an apparatus for de-skewing substrate media in a printing system. The apparatus includes at least one sensor for measuring skew of the substrate media being transferred relative to a process direction. The apparatus also includes a nip assembly for moving the substrate media in the process direction. The nip assembly includes a drive roller and an idler roller for engaging the substrate media. The drive roller is rotatably supported on a shaft axis, with the shaft axis being pivotally supported substantially at one end thereof for aligning the shaft axis with the measured substrate media skew. The shaft axis pivots about a pivot axis perpendicular to the shaft axis.