Abstract: A print head includes a backup plate and a nozzle plate. The backup plate has a non-planar lower surface. The nozzle plate also has a non-planar lower surface. The nozzle plate is coupled to the lower surface of the backup plate.

Abstract: A method, system, and apparatus for capturing information is disclosed. The method includes emitting energy of a first wavelength from a first energy source located proximate to a first end of a digital pen and forming a first set handwritten markings on the substrate by causing the substrate to image as a result of an exposure of the substrate to the energy emitted from the first energy source. The method also includes detecting by an image-capturing sensor of the digital pen a first detected portion of a position-identifying pattern on the substrate and storing in the memory a digital document file comprising the first set of handwritten markings and the first detected portion of the position-identifying data. An apparatus and system for performing the method is also disclosed.

Abstract: A method of assigning a hub to a job source may include identifying one or more job sources where one or more print jobs are received, identifying one or more hubs to which the print jobs can be sent to be processed, determining a processing cost for each unique pair of job sources and hubs, creating, by a computing device, a job source list by identifying the pair associated with the largest processing cost, assigning the job source of the identified pair a highest position in the job source list, and repeating the identifying and the assigning for a next highest position until all identified job sources are assigned, and assigning the job source having the highest position in the job source list to an associated hub having a lowest processing cost.

Abstract: A method of assigning a hub to a job source may include identifying one or more job sources where one or more print jobs are received, identifying one or more hubs to which the print jobs can be sent to be processed, determining a processing cost for each unique pair of job sources and hubs, creating, by a computing device, a job source list by identifying the pair associated with the largest processing cost, assigning the job source of the identified pair a highest position in the job source list, and repeating the identifying and the assigning for a next highest position until all identified job sources are assigned, and assigning the job source having the highest position in the job source list to an associated hub having a lowest processing cost.

Abstract: A method of determining a cell configuration in a print production environment may include identifying a set of print devices to assign to a cell, identifying a print device number, identifying one or more subsets of print devices from the set, where each subset includes a unique portion of the print devices in the set, and each subset includes a number of print devices equal to the print device number, performing a simulation of operation on each subset to determiner a subset performance metric for each subset, selecting one of the subsets based on the associated subset performance metric, decrementing the print device number by an amount, updating the set with the selected subset, and repeating the identifying one or more subsets, performing the simulation, selecting one of the subsets, decrementing the print device number and updating until no subset performance metric satisfies a performance constraint.

Abstract: A method of assigning a job to a production device may include identifying a queue comprising a plurality of print jobs, identifying a plurality of print production devices capable of processing the plurality of print jobs, determining that one of the identified print production devices is an idle print production device, identifying a top priority print job from the queue, determining a completion time associated with processing the top priority print job by each of the identified print production devices, identifying a fastest print production device, assigning the top priority print job to the fastest print production device, determining whether the fastest print production device is the idle print production device, and in response to determining that the fastest print production device is the idle print production device, sending the top priority print job to the fastest print production device and removing the top priority print job from the queue.

Abstract: A workflow information capture system uses a digital pen to capture handwritten information about a production process resource. The pen captures the handwritten markings from a worksheet, identifies the position of the marking, based on the position determines one or more process parameters for the marking, and saves the handwritten markings and their corresponding process parameter in a memory. The system may then use this information to generate recommendations for improving a workflow that is implemented by the process resource.

Abstract: A method, system, and apparatus for capturing information is disclosed. The method includes emitting energy of a first wavelength from a first energy source located proximate to a first end of a digital pen and forming a first set handwritten markings on the substrate by causing the substrate to image as a result of an exposure of the substrate to the energy emitted from the first energy source. The method also includes detecting by an image-capturing sensor of the digital pen a first detected portion of a position-identifying pattern on the substrate and storing in the memory a digital document file comprising the first set of handwritten markings and the first detected portion of the position-identifying data. An apparatus and system for performing the method is also disclosed.

Abstract: Methods and systems of balancing job assignments to a plurality of machines are disclosed. A computing device receives multiple jobs each having a job size and determines a job order for the jobs based on each job's job size. A machine order is determined for a plurality of machines based on a setup time and a processing rate associated with each machine. The computing device assigns one or more jobs to each machine based on the job order and the machine order such that a maximum total processing time for the machines is minimized. A total processing time for each machine is determined based on the number of jobs and the cumulative job size of the jobs assigned to the machine, and the setup time and the processing time associated with the machine. The maximum total processing time is the largest of the total processing times for the machines.

Abstract: An indirect media flatness measurement system, and method, by which the appropriate level of hold-down force may be determined with some degree of quantitative accuracy. In an ink jet printer that is operative to subject a substrate media to a hold down force during printing, the method including printing a predetermined test image having a predetermined pattern on a substrate media using an ink jet print apparatus to produce a test print. Optionally, pattern may be an array of test symbols. The test symbol may include a line printed on the substrate media in a direction perpendicular to a process direction of the printer. The test print is compared with the predetermined test image, including measuring drop placement errors of test symbols. The height of the substrate media at the location of each test symbol is calculated based upon the drop placement error.

Abstract: A method and system for managing print shop workflow determines whether variations in print shop workflow may be reduced by shifting one or more customers' scheduled orders to different time periods. By shifting an order from one time period to another, the system may reduce variability in demand levels over time, thus helping increase overall system efficiency. To do this, one or more customers are selected as candidates for print shop order rescheduling. The system identifies customer orders that, if moved to other time periods, will most reduce demand level variations. A user may accept the system's recommendations, or the system may present a user with several alternative load leveling options for selection. The system may then cause the orders to be printed based on the load leveling proposal and the user's selection.

Abstract: A method of assigning a job to a production device may include identifying a queue comprising a plurality of print jobs, identifying a plurality of print production devices capable of processing the plurality of print jobs, determining that one of the identified print production devices is an idle print production device, identifying a top priority print job from the queue, determining a completion time associated with processing the top priority print job by each of the identified print production devices, identifying a fastest print production device, assigning the top priority print job to the fastest print production device, determining whether the fastest print production device is the idle print production device, and in response to determining that the fastest print production device is the idle print production device, sending the top priority print job to the fastest print production device and removing the top priority print job from the queue.

Abstract: A method of adjusting the registration of an image printed on sheets. The method including determining a first image location relative to a first sheet, adjusting a second image to be printed based on the determined first image location and printing the adjusted second image to subsequent sheet(s). The first image location determination made by measuring at least one dimension of a fiducial mark disposed directly on a transfer surface. The fiducial mark formed by the engagement of the first sheet with the transfer surface, whereby an inner edge of the fiducial mark forms at least a partial outline of a periphery of the first sheet. Each measured fiducial mark dimension extending from the fiducial mark inner edge to an outer edge of the fiducial mark. The fiducial mark outer edge being disposed remote from the at least partial outline of the first sheet periphery.

Abstract: An indirect media flatness measurement system, and method, by which the appropriate level of hold-down force may be determined with some degree of quantitative accuracy. In an ink jet printer that is operative to subject a substrate media to a hold down force during printing, the method including printing a predetermined test image having a predetermined pattern on a substrate media using an ink jet print apparatus to produce a test print. Optionally, pattern may be an array of test symbols. The test symbol may comprise a line printed on the substrate media in a direction perpendicular to a process direction of the printer. The test print is compared with the predetermined test image, including measuring drop placement errors of test symbols. The height of the substrate media at the location of each test symbol is calculated based upon the drop placement error.

Abstract: A method of determining a probability of a set of print jobs being completed within a time period may include receiving a schedule associated with a set of print jobs. The schedule may include a sequence in which the set of print jobs is to be processed, a mean processing time associated with each print job in the set, and a standard deviation of a processing time associated with each print job in the set. The method may include determining a probability that a print shop will complete processing of the set of print jobs within a time period based on the mean processing time and standard deviation associated with each of the print jobs in the set that has not been processed and displaying the probability on a display device.

Abstract: An image transfer assembly and method capable of adjusting the registration of an image printed on paper. A first image location being determined on at least one first sheet by measuring for each of at least three corners of a first sheet the distance between the two adjoining edges of the respective corners to a portion of at least one first fiducial mark. For each of the measured first sheet corners the measured portion of the at least one first fiducial mark is closer to that respective corner than any other of the first sheet corners. Then a second image to be transferred is adjusted by changing, relative to at least one second sheet, at least one of a size, shear, position and orientation of the second image based on the determined first image location. The adjusted second image being then printed on the second sheet(s).

Abstract: A print job planning system determines a current state of a print shop and a set of expected disturbances for the print shop. It uses the current state and the set of expected disturbances to determine a cost for anticipated work in progress associated with various actuations. It also identifies a minimum cost from the determined costs, along with an actuation that corresponds to the minimum cost. It may then generate a report of the actuation, generate a work schedule based on the identified actuation, and/or cause the identified actuation to be implemented by at least one print device of the print shop.

Abstract: A method and apparatus for measuring image on paper registration including placing a test sheet of media including a plurality of test pattern marks on a platen of an image sensing device. The platen defines a scan area over which the image sensing device is capable of scanning an image. The image sensing device includes a plurality of calibration marks falling within the scan area. The method further includes operating the scanner to scan the test sheet; determining a scanned position of the calibration marks and a scanned position of the test marks resulting from the scan; comparing the scanned position of the calibration marks with reference position of the calibration marks to determine scanning error; determining an adjusted position of the test marks responsive to the scanning error; and comparing the adjusted test mark positions with predetermined reference positions to measure registration accuracy. An edge guide disposed on the platen assists in aligning the test sheet for scanning.

Abstract: What is disclosed is a novel system and method for xerographic Dmax control based upon measurements made on the printed paper using an inline spectrophotometer (ILS) or similar device. The disclosed method is based upon directly measuring the color to actuator sensitivity. Each of the separations is controlled independently using an actuator specific to that color separation. The present method is effective at controlling the color of the solid primaries. The fact that the vector of change is highly correlated with solid color variation seen in the field suggests that the teachings hereof effectively increase the solid color stability. Increased solid color stability increases the color stability throughout the printer gamut and the stability of the gamut boundaries, which increases the robustness of gamut mapping algorithms. Advantageously, the present method can be combined with existing ILS-based maintenance architectures.

Abstract: A workflow information capture system uses a digital pen to capture handwritten information about a production process resource. The pen captures the handwritten markings from a worksheet, identifies the position of the marking, based on the position determines one or more process parameters for the marking, and saves the handwritten markings and their corresponding process parameter in a memory. The system may then use this information to generate recommendations for improving a workflow that is implemented by the process resource.