Abstract: In a method to execute a pause in an ink printing system printing operation in which a printing substrate web is printed with print bars having print heads, with aid of a take-up roller moving the printing substrate web at printing speed past the print bars in a transfer printing zone in order to generate print images. Upon triggering the pause, a strain state of the printing substrate web is measured at a beginning of the pause and stored as a desired strain state. During the pause, the strain state of the printing substrate web is measured as a real strain state at selectable points in time, and the real strain state is compared with desired strain state. Given a deviation of the real strain state from the desired strain state, at the selectable points in time the take-up roller is controlled so that the strain state of the printing substrate web assumes the desired strain state at the beginning of the pause.

Abstract: A printing system including a staggered inkjet printhead including at least two inkjet nozzle arrays arranged along first and second print lines in an alternating pattern, wherein the inkjet nozzle arrays along a particular print line alternate with non-printing regions. A media guide including first and second rollers is used for guiding receiver media along a media path past the first and second print lines of the inkjet printhead. A center roller having a contoured media guide surface is positioned between the first and second rollers for guiding the recording media along the media path between the first and second print lines, wherein the diameter of the center roller is smaller for portions of its length corresponding to the inkjet nozzle arrays of the first print line than it is for at least some portion of its length corresponding to the non-printing regions of the first print line.

Abstract: A printing system including a staggered inkjet printhead including at least two inkjet nozzle arrays arranged along first and second print lines in an alternating pattern, wherein the inkjet nozzle arrays along a particular print line alternate with non-printing regions. A media guide including first and second media guide surfaces is used for guiding receiver media along a media path past the first and second print lines of the inkjet printhead. At least one of the media guide surfaces is contoured such that it is closer to the staggered inkjet printhead along portions of the associated print line that correspond to the associated inkjet nozzle arrays than it is for at least some portion of the associated print line that corresponds to the non-printing regions.

Abstract: A printing system including a staggered inkjet printhead including at least two inkjet nozzle arrays arranged along first and second print lines in an alternating pattern, wherein the inkjet nozzle arrays along a particular print line alternate with non-printing regions. A media guide including first and second rollers is used for guiding receiver media along a media path past the first and second print lines of the inkjet printhead. A center roller having a contoured media guide surface is positioned between the first and second rollers for guiding the recording media along the media path between the first and second print lines, wherein the diameter of the center roller is smaller for portions of its length corresponding to the inkjet nozzle arrays of the first print line than it is for at least some portion of its length corresponding to the non-printing regions of the first print line.

Abstract: A printing system including a staggered inkjet printhead including at least two inkjet nozzle arrays arranged along first and second print lines in an alternating pattern, wherein the inkjet nozzle arrays along a particular print line alternate with non-printing regions. A media guide including first and second media guide surfaces is used for guiding receiver media along a media path past the first and second print lines of the inkjet printhead. At least one of the media guide surfaces is contoured such that it is closer to the staggered inkjet printhead along portions of the associated print line that correspond to the associated inkjet nozzle arrays than it is for at least some portion of the associated print line that corresponds to the non-printing regions.

Abstract: A liquid ejection device may include a liquid ejection head, a conveyor mechanism, a liquid discharging device, and a control device. The control device may be configured to determine a dimension of a recording medium, and determine one or more first ejection nozzles of the liquid discharging device, which correspond to an edge of the recording medium, based on the dimension. The control device may be further configured to control the liquid discharging device to perform a liquid discharging process after the liquid ejection head records an image onto the recording medium, wherein in the liquid discharging process, an amount of liquid discharged from each of the one or more first ejection nozzles is larger than an amount of liquid discharged from each of one or more second ejection nozzles, which correspond to a more inward area of the recording medium than an area corresponding to the one or more first ejection nozzles.

Abstract: A printhead is provided having an elongate support having a plurality of internal webs protruding from a base section to define a plurality of parallel fluid supply channels, a shim supported by the support and defining a plurality of rows of openings through which fluid from respective supply channels is supplied, and a plurality of elongate printhead modules supported serially on the shim. Each module defines a plurality of fluid supply passages through which fluid passes to fluid ejection nozzles from respective rows of the openings. Either end of each module defines complementary formations such that adjacent modules nest together.

Abstract: A controller is configured to control ink ejection timings of a plurality of head modules on a basis of a positional relation in a print width direction of a sheet between nozzles, covering a same pixel, of the plurality of head modules of different colors in each of a plurality of head module lines such that, among landing positions of inks from the nozzles of the different colors covering the same pixel, the landing position of the ink from the nozzle of at least one of the different colors is shifted in a transfer direction of the sheet from the landing positions of the inks from the nozzles of the other colors in at least one of the plurality of head module lines.

Abstract: A printing system comprising an inkjet printhead including at least two inkjet nozzle arrays arranged along a print line, and a media guide having a contoured media guide surface for guiding receiver media along a media path past the inkjet printhead. The inkjet nozzle arrays are separated from each other along the print line by one or more intervening non-printing regions. The media guide surface is contoured such that it is closer to the inkjet printhead for portions of the print line corresponding to the inkjet nozzle arrays than it is for at least some portion of the print line corresponding to the non-printing regions between the inkjet nozzle arrays.

Abstract: Displacement information indicating a displacement amount of landing position in a main scanning direction of ink droplets discharged respectively from the nozzle of the head module of the same array of the line head of each color is acquired for each head module of the same array (steps S5, S7). Based on the displacement information and concentration information for each array, a color degree of an image when the discharge amount of ink droplets discharged from a nozzle of a head module of each color is not adjusted is specified for each head module of each array (step S9). A correction voltage value of a drive signal for the discharge of the nozzle of the head module of each color, which is suitable to return the specified color degree to “0”, is calculated (step S11) and each corresponding nozzle is driven by the drive signal of the correction voltage value.

Abstract: The ink jet recording method according to the invention records an image by discharging liquid droplets of an ink composition from a recording head and allowing the droplets to adhere to a recording medium. The ink composition contains an alkanediol having 6 or less of carbon atoms and having a normal boiling point of 240° C. or more in an amount of 3% by mass or more and 20% by mass or less. The ink droplets of the ink composition have a volume of 5 pL or more and 30 pL or less per droplet. The recording head is a serial scanning head or line scan head. In the serial scanning head, the image resolution in the recording medium-transporting direction is 6 times or less the head resolution in the transporting direction.

Abstract: A liquid ejection head module is disclosed. The liquid ejection head module includes first and second head units disposed in a first direction. The first and second head units have first and second rows of liquid ejecting heads that have a plurality of nozzles disposed in the first direction. The first and second rows of liquid ejecting heads are disposed in a second direction crossing the first direction. The first and second head each have a projecting portion. A connector is disposed on each of the first and second head units and each connector is disposed so that the connecting port is open at a side opposite from a liquid ejecting side.

Abstract: In a printing device, a first control unit prints, by a first print method, an image on a first region of a recording sheet in a first state in which a recording sheet is clamped by both an upstream and downstream clamping portions. A second control unit prints, by a second print method, an image on a second region of the recording sheet in a second state in which the recording sheet is clamped either one of the upstream and downstream clamping portions. A third control unit prints, by a combination of the first and second print methods, an image on a third region of the recording sheet between the first and second regions. When the third control unit prints the image on the third region, a state of the recording sheet is set to be changed from the first state to the second state.

Abstract: Inkjet printing systems are described that have deflection surfaces to guide a condensation reducing airflow between a printing module and a receiver without disrupting inkjet drop placements.

Abstract: An inkjet printhead assembly includes a molded plastics module defining a plurality of converging ink channels. Each ink channel has an inlet for receiving ink, an outlet and tapered sidewalls extending between the inlet and the outlet. Each outlet is defined in a mounting surface of the molded plastics module. A printhead chip is mounted on the mounting surface, which receives different colored inks from the outlets. The inlets are spaced wider apart than the outlets and the inlets have larger dimensions than the outlets.

Abstract: A replaceable printhead cartridge includes: an elongate cartridge body having an elongate structure with a plurality of longitudinally extending channels; a pagewidth printhead mounted on the elongate structure; a first fluid coupling positioned towards one end of the elongate structure; and a second fluid coupling positioned towards an opposite end of the elongate structure. The first and second fluid couplings each has an interface plate supporting a plurality of spouts positioned for sealed engagement with corresponding apertures in a complementary socket of a printer. The spouts are in fluid communication with the respective ends of corresponding longitudinally extending channels. The spouts extend from respective interface plates in a direction transverse to a longitudinal axis of the cartridge body and parallel with a media feed direction.

Abstract: A web press, in particular a variable format book web press, variable format newspaper web press, or variable format periodical web press, has printing units having printing devices or groups of printing devices for applying ink to a paper web. The printing devices or groups of printing devices are constructed without rotating impression cylinders and are designed to apply ink to the paper web in a noncontacting manner.

Abstract: Methods for operating an inkjet printing system are provided. In one method, a cross-module airflow is used to limit concentrations of an evaporated inkjet carrier fluid between barrier that is between inkjet printheads of a printing module and a receiver. In the method, inkjet droplets are printed along a first print line and a second print line as the receiver is moved past the first print line and as the receiver is moved past the second print line. A co-linear airflow that flows along with ink droplets to the receiver is also supplied. Between the first print line and the second print line the receiver is moved to create an integration area in which the cross-module airflow and co-linear airflow can integrate and flow from between the printing module and the receiver without disrupting the travel of ink droplets.

Abstract: A liquid ejecting apparatus includes the following elements. A carriage allows a head ejecting liquid which is curable by light irradiation to move in the moving direction intersecting the transporting direction in which a medium is transported. A precuring light source, provided for the carriage, radiates light for precuring to dots formed by applying the liquid ejected from the moving head onto the medium. A full curing light source is provided for the carriage so as to be located downstream of the precuring light source in the transporting direction. The full curing light source radiates light for full curing to the dots which have been irradiated with light for precuring.

Abstract: A printing apparatus comprising, a printhead including an element array in which a plurality of printing elements are arrayed, scanning unit configured to reciprocally scan the printhead, driving unit configured to time-divisionally drive the printing elements, conveyance unit configured to convey a printing medium, and setting unit configured to set a driving order, wherein the conveyance unit performs a first conveyance operation of conveying the printing medium by a conveyance amount which is an integer multiple of a width of the group of the time-divisional driving, and a second conveyance operation of conveying the printing medium by a conveyance amount which is not an integer multiple of the width of the group, and the setting unit sets the driving order in the time-divisional driving for each scan based on the conveyance amount by the conveyance unit.

Abstract: A method of forming a test pattern in a printer, wherein the printer may include at least one liquid discharge head including a nozzle plate, and the nozzle plate has a plurality of nozzles formed therethrough, wherein the plurality of nozzles are configured to discharge a liquid and are arranged in a plurality of rows which are parallel to each other and extend in a particular direction, the method may comprise the steps of selecting a first nozzle of the plurality of nozzles from a first row of the plurality of rows, selecting a second nozzle of the plurality of nozzles from a second row of the plurality of rows, and discharging the liquid from the first nozzle and from the second nozzle onto a medium, wherein a third row of the plurality of rows is positioned between the first row and the second row.

Abstract: In one embodiment, a hammer bank for a line printer includes a back plate having a front surface, a back surface and a uniform thickness between the front and back surfaces. At least one hammer is disposed in front of the back plate. The at least one hammer is spring-biased for forward movement and away from the back plate and is releasably retained against such forward movement by a magnetic force acting rearwardly thereon. An elongated pole piece that is associated with the at least one hammer extends forwardly from the front surface of the back plate and is selectively operable to interrupt the magnetic force acting thereon.

Abstract: An inkjet recording head includes plural element substrates and a coolant flow channel. Each of the plural element substrates is provided with an ejection port surface and plural energy generating elements. The coolant flow channel is provided with a first heat transfer portion overlapping, in a direction vertical to the ejection port surface, a central portion of each of the element substrates in a direction in which the plural energy generating elements are arranged, and a second heat transfer portion overlapping, in the vertical direction, an area between the plural element substrates which adjoin in the arranged direction. The first heat transfer portion and the second heat transfer portion are provided with recesses or projections, and arrangement density of the recesses or the projections of the first heat transfer portion being greater than that of the second heat transfer portion.

Abstract: In an inkjet head, at least one of a plurality of nozzle arrays to eject ink of different colors from one another is arranged with nozzles displaced in position from nozzles of the other nozzle arrays in an arrangement direction of the nozzles. A controller is configured to reduce an amount of ink to be ejected to a pixel at an end portion of an image on one side in the arrangement direction from a nozzle array of the plurality of nozzle arrays having a nozzle protruding to the one side the most among the nozzles of the nozzle arrays for a same ejection target pixel.

Abstract: A micro-fluid ejection head has multiple ejection chips joined adjacently to create a lengthy array across a media to-be-imaged. The chips have fluid firing elements arranged along skewed fluid vias to enable seamless stitching of fluid ejections. The firing elements are energized to eject fluid and ones are spaced according to colors or fluid types. Overlapping firing elements serve redundancy efforts during imaging for reliable print quality. Variable chips sizes and shapes are disclosed as are relationships between differently colored fluid vias. Skew angles range variously each with noted advantages. Singulating chips from larger wafers provide still further embodiments.

Abstract: According to one embodiment, an inkjet head includes a substrate, a nozzle plate which includes nozzle lines, each of which includes nozzles, the nozzles which are included in one of the nozzle lines and the nozzles which are included in another of the nozzle lines alternating with each other, and forming one imaginary nozzle line, piezoelectric members which are opposed to the respective nozzle lines, and groove parts which are provided in each of the piezoelectric members, the groove parts corresponding to the nozzles to eject ink from the nozzles and being processed by cutting edges, one of the groove parts which corresponds to one of the nozzles in the imaginary nozzle line and another of the groove parts which corresponds to another nozzle adjacent to the nozzle in the imaginary nozzle line being processed by the cutting edges which are independent of each other.

Abstract: An image forming apparatus includes: a transport section including a first transport section configured to transport the recording medium in a first direction having a component of a downward direction in a vertical direction, a second transport section configured to transport the recording medium in a second direction having a component of an upward direction in the vertical direction, and a third transport section configured to connect the first transport section and the second transport section; a first head provided to face the first transport section and includes a plurality of first nozzles formed in different positions in the vertical direction; a second head provided to face the second transport section and includes a plurality of second nozzles formed in different positions in the vertical direction; and a control device configured to control the transport section, the first head, and the second head.

Abstract: A recording apparatus may include a recording head including a discharge surface in which liquid discharge openings are arranged in a particular direction. The recording apparatus may include a supplying member which is positioned at a first end portion in the particular direction, and supplies the liquid to the recording head. The recording apparatus may include a liquid supplying device which is connected to the supplying member, and supplies the liquid to the recording head. The recording apparatus may include a position adjusting device including a contact member which contacts the recording head, and adjusts a position of the recording head by moving the contact member. The position adjusting device may be positioned at a second end portion opposite to the first end portion in the particular direction.

Abstract: The liquid ejection head capable of securing a high performance of supplying liquid through supply ports while reducing the size of the substrate is provided. The liquid ejecting apparatus using such a liquid ejection head are also provided. The third supply ports situated between the first ejection port array and the second ejection port array include a portion of a large dimension and a portion of a small dimension.

Abstract: A printhead module includes a plurality of rows of printhead nozzles, at least some of the rows including at least one displaced row portion, the displacement of the row portion including a component in a direction normal to that of a pagewidth to be printed, wherein the displaced row portions of at least some of the rows are different in length than the displaced row portions of at least some of the other rows.

Abstract: Disclosed is a head alignment assembly in which a deviation of the head can be aligned conveniently with simple operation from the outside of the printer head section. The head alignment assembly includes a base plate to which at least one head unit is fixed to be exposed downward by a first head support block and a second head support block; a first fine adjustment section configured to shift the first head support block in a longitudinal direction of the head unit; and a second fine adjustment section configured to shift the second head support block in a transverse direction orthogonal to the longitudinal direction of the head unit. The first fine adjustment section includes a first push rod supported by fixed guides which are fixed on the base plate to press the first head support block; and a first handle fixed to one end of the first push rod to move the first push rod in the longitudinal direction.

Abstract: A pagewidth printhead assembly for an inkjet printer includes: a plurality of channels for distributing the ink along a length of the printhead assembly; a plurality of printhead integrated circuits; and an ink distribution member upon which the printhead integrated circuits are fixed and which distributes ink from the channels to the printhead integrated circuits. The ink distribution member has a plurality of ink supply holes and a plurality of ink supply conduits defined in a surface thereof and the printhead integrated circuits are fixed to the ink distribution member via a bonding film. The bonding film includes a plurality of through-holes coinciding with the ink supply holes and end portions of the ink supply conduits.

Abstract: A fluid ejection apparatus includes a printhead having a substrate. The substrate includes a nozzle face having a width direction and a length direction. The nozzle face includes a set of four columns of nozzles oriented in a column direction substantially along the width direction of the nozzle face, and the nozzles in each column are positioned on a straight line along the column. A spacing between two adjacent columns of the four adjacent columns is different than a spacing between another two adjacent columns of the four adjacent columns. In some implementations, a controller can control timing of ejection of fluid droplets from the nozzles to deposit lines of fluid droplets on a medium, and the medium can travel relative to the nozzle face.

Abstract: Inkjet print head dies are directly seated upon an exterior of a tubular member so as to face different directions.

Abstract: A manifold assembly for a fluid-ejection device having multiple-fluid type fluid-ejection printheads organized in a page-wide array includes a lower-most deck and an upper-most deck. The lower-most deck is to supply a first type of fluid and a second type of fluid to the fluid-ejection printheads. The first type of fluid and the second type of fluid are exterior-most fluids ejected by the fluid-ejection printheads in relation to a direction of media movement through the fluid-ejection device. The upper-most deck is to supply a third type of fluid and a fourth type of fluid to the fluid-ejection printheads. The third type of fluid and the fourth type of fluid are interior-most fluids ejected by the fluid-ejection printheads in relation to the direction of media movement through the fluid ejection device.

Abstract: A method of printing includes firing a first group of one or more printheads at a moving medium at a first firing angle to the medium and firing a second group of one or more printheads at the moving medium at a second, different, firing angle to the medium.

Abstract: An ink jet printer comprising a conveyor belt unit 106 for transferring a print sheet 2 on a rotating conveyor belt 106a, a resist roller pair 111 and a BU roller 112 for feeding the print sheet 2 while flexing it in the transferring direction, and first and second ink jet head 104a, 104b for ejecting ink toward the print sheet, wherein the ink jet head 104b ejects ink darker in color than ink ejected from the ink jet head 104a. The ink jet head 104b serves to eject ink, that is darker in color than that of the ink jet head 104a, and is located at a position farther than the arriving position of the print sheet 2 when the print sheet 2 is displaced from the conveyor belt 106a in the transferring direction as the elasticity of the print sheet 2 due to flexure exceeds adhesion between the print sheet 2 and the conveyor belt 106a, while the ink jet head 104a is arranged between the ink jet head 104b and the BU roller 112.

Abstract: The liquid ejection head capable of securing a high performance of supplying liquid through supply ports while reducing the size of the substrate is provided. The liquid ejecting apparatus using such a liquid ejection head are also provided. The third supply ports situated between the first ejection port array and the second ejection port array include a portion of a large dimension and a portion of a small dimension.

Abstract: A liquid ejection head includes an ejection surface having a plurality of ejection opening sets each of which consists of at least two ejection openings adjacent to each other in a given direction. A straight line defined to connect between centers of the respective at least two ejection openings is parallel with the ejection surface and is inclined with respect to the given direction and a perpendicular direction that is perpendicular to the given direction. The straight line defined in one of each adjacent two of the ejection opening sets, which are adjacent to each other in the given direction, and the straight line defined in another of the each adjacent two of the ejection opening sets, are inclined with respect to the perpendicular direction, in respective directions opposite to each other. Also disclosed is a liquid ejection recording device including the liquid ejection head.

Abstract: A printing method includes the steps of: receiving a color image and separating the color image into a plurality of distinct color planes; dithering a first distinct color plane to obtain dot data for the first distinct color plane; dithering a second distinct color plane to obtain dot data for the second distinct color plane; providing the dot data for the first distinct color plane to a first print head cartridge for printing by a plurality of nozzle rows of the first print head cartridge; and providing the dot data for the second distinct color plane to a second print head cartridge positioned downstream from the first print head cartridge in a direction of print media propagation, the dot data for the second distinct color plane for printing by a plurality of nozzle rows of the second print head cartridge.

Abstract: A printhead assembly includes an ink distribution assembly including an ink distribution molding, the ink distribution molding including a plurality of first ducts; at least one printhead integrated circuit in fluid communication with the ink distribution assembly; and a rotary platen having at least three surface, each surface for providing one of a platen surface, capping portion, and a blotting portion. The ink distribution assembly further includes a plurality of second ducts acutely angled with respect to the plurality of first ducts, a plurality of transfer ports facilitating fluid communication between the plurality of first ducts and the plurality of second ducts, and a plurality of ink inlet ports facilitating fluid communication between an ink cassette and the plurality of first ducts.

Abstract: Inkjet printing systems are provided that use a cross-module airflow to limit condensation between a printing module and a receiver and that supply a co-linear flow of air that flows along with ink droplets toward a receiver. An integration area is created between the inkjet printhead heads, the receiver and a barrier to allow co-linear flow and cross-module flow to integrate and flow from between the printing module and the receiver without disrupting travel paths of the ink droplets.

Abstract: A multichannel printhead for mixing purposes is presented, comprising a first set of fluid outlets each outlet discharging an amount of a first fluid, a second set of fluid outlets each outlet discharging an amount of a second fluid, whereby corresponding outlets of the first and second set are configured to internally or externally lead together and mix the fluids, and whereby at least the fluid discharge of the first set of fluid outlets is controlled by drop-on-demand fluid ejectors responsive to control signals.

Abstract: A print engine assembly includes an elongate chassis defining a print media exit slot; an elongate printhead assembly mounted relative to the chassis and configured to eject ink onto print media; a paper feed mechanism configured to transport the print media past the elongate printhead and out through the exit slot, the paper feed mechanism comprising a pair of bearing moldings received within and mounted on opposite ends of the chassis, the paper feed mechanism further comprising at least one roller mounted between the bearing moldings and a motor mounted to one of said bearing moldings to drive said at least one roller; and a platen member extending parallel to the printhead, the platen member mounted in the bearing moldings. A pair of spacers is mounted to either end of the chassis and on which said printhead assembly is mounted.

Abstract: According to the liquid ejection head and the liquid ejection apparatus of the present invention, it is possible to reduce wasted nozzles in a joint section by reducing the total number of nozzles NA included in a joint section between head units that are positioned and fixed with high accuracy, while diminishing discontinuity of liquid ejection in joint sections between head units and joint sections between intermediate units, and furthermore, it is possible to make the replacement of each intermediate unit easy and hence to reduce the work involved in replacing intermediate units by further increasing the total number of nozzles NB included in joint sections between intermediate units which are fixed with less strict positioning accuracy than the head units.

Abstract: A printhead assembly for an inkjet printer including: an elongate ink distribution member having a plurality of outlets spaced along a length thereof; a plurality of printhead integrated circuits fixed to the ink distribution member, each printhead integrated circuit having nozzles for ejecting ink supplied via the plurality of outlets; and an electrical connector for transmitting power and data to the plurality of printhead integrated circuits. The electrical connector has a first end electrically connected to the plurality of integrated circuits and a second end having an elongate array of contacts for electrical connection with a corresponding array of contacts on the inkjet printer.

Abstract: Disclosed herein is a printing device including: a plurality of heads configured to discharge inks cured by light irradiation and arranged in a transport direction of a medium; a plurality of pre-curing light sources provided in correspondence with the plurality of heads and configured to irradiate pre-curing light to dots formed on the medium by the heads; and a completely-curing light source configured to irradiate completely-curing light to the dots to which the light from the plurality of pre-curing light sources is irradiated, wherein a first printing mode in which a background ink is discharged from a head of an upstream side of the transport direction of the heads for discharging color inks and a second printing mode in which the background ink is discharged from a head of a downstream side of the transport direction of the heads for discharging the color inks are present.

Abstract: A printhead assembly includes a plurality of inkjet ejector arrays having corresponding ink receptacles. Each inkjet array is formed from a plurality of inkjet stack layers that are bonded to a single aperture layer that flexes to position the inkjet arrays at a predetermined distance from a curved image receiving surface.

Abstract: In a print group for an inkjet printing apparatus a printing unit is provided comprising a housing with print bars having print heads. A transport unit is provided for a printing substrate. Drive and guidance units are arranged per print bar which move the print bars independently of one another in a perpendicular direction from a printing position into a transport position and back. In a park unit racks are provided for protective cap bars. A protective cap bar is provided per print bar which when coupled to said print bar seals it. Print bars in an operating position not provided for printing are in the transport position and are coupled with associated protective cap bars. Print bars in said operating position for printing are in the printing position and their associated protective cap bars are arranged in the park unit racks.

Abstract: A method for printing including preparing an image at a first resolution in a first direction, selecting pixels from the prepared image, reordering the selected pixels to create a translated image having a second resolution in the first direction, where the second resolution is different from the first resolution, and printing the translated image. Also included are a printing system and an article of computer readable code.