Abstract: A flip-cover multifunctional image forming device includes a lower body, a first image forming module, a cover body, at least one pivoting mechanism, an upper body and a second image forming module. The first image forming module is disposed inside the lower body. The at least one pivoting mechanism is connected to the lower body and the cover body and for pivoting the cover body relative to the lower body between a folded position and an unfolded position. The upper body is detachably disposed on a side of the cover body away from the lower body. The upper body is driven by the cover body to move relative to the lower body when the cover body pivots relative to the lower body. The second image forming module is disposed inside the upper body. The present invention has advantages of simple structure, easy operation and flexibility in use.

Abstract: There is provided an image recording apparatus including: a head; a driving element; a controller configured to output, to the driving element, a driving signal having a first voltage level or a second voltage level greater than the first voltage level; and a moving mechanism causing one of the recording medium and the head to move relative to the other of the recording medium and the head. The controller sets the voltage level of the driving signal to be the first voltage level in a case that the controller causes the head to move relative to the recording medium at the first velocity; and the controller sets the voltage level of the driving signal to be the second voltage level in a case that the controller causes the head to move relative to the recording medium at the second velocity.

Abstract: In an example, a method includes identifying, within data for use in printing, a first element set associated with a first print addressable area. The first element set may include at least one element, and each element of the set may be associated with a print material or print material combination. An element may be selected from the first element set and assigned to the first print addressable area. A second print addressable area may be identified as a candidate print addressable area for error diffusion, the second print addressable area being associated with a second element set. Any common elements of the first element set and the second element set may be identified and, if at least one common element is identified, an error associated with the selection of the element from the first element set may be diffused to the at least one common element.

Abstract: A system and method for using multi-axis deposition tool heads on a machine such as a three dimensional fabrication device like a 3D Printer, for novel automation and additive manufacturing techniques which offer increased output product quality and fabrication speed by introducing a novel cartridge and deposition systems and techniques. The system allows a plurality of materials, some reacted or mixed by the device, to be extruded through a deposition head, which may adaptively (and automatically) change shape and lumen size to accommodate different path widths and shapes. The cartridge system may employ pellets which may be comprised of a plurality of materials and/or colors.

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 generation unit is configured to generate a plurality of pieces of chromatic color material data, for each color positioned at a surface of a dark portion in a color gamut that can be reproduced using a black color material and the plurality of chromatic color materials, in such a way as to set a number of specific colors of the plurality of chromatic color materials whose dots are arranged exclusively with dots of other chromatic color materials on a recording medium to be equal to or less than one color.

Abstract: A magnetic business communication is produced in a unique manner in which a pigmented coating is applied over one face of the magnetic substrate so as to change the appearance of the magnetic material. An image is applied either directly over the pigmented coating or alternatively, the image may be reverse printed on a transparent film such that when the film is applied over the pigmented coating, the image will be visible through the face of the film.

Abstract: An optical navigation device may include an image sensor with an imaging surface, a laser, and an optical waveguide layer having an exposed user surface and a total internal reflection (TIR) surface on the underside of the exposed user surface. The waveguide layer, the laser, and the image sensor may be together arranged to direct radiation emitted by the laser onto the imaging surface at least partly by total internal reflection by the TIR surface.

Abstract: A computer implemented method includes: providing a database of digital images of colors and metadata related to the colors; using one or more search criteria to identify one or more of the digital image colors; displaying the digital images of the identified colors; selecting a color of interest from the displayed colors; using the metadata to identify additional information related to the color of interest; displaying the digital image of the selected color and the additional information; and using the displayed digital image of the selected color and the additional information to make a final color selection. An apparatus that can be used to implement the method is also provided.

Abstract: For each totally black pixel of image data to be printed using a fluid-ejection printing device, it is determined whether the pixel is part of a line feature or an area fill feature of the image data. Where the pixel is part of a line feature, a first printing mask selected that is optimized for printing line features. Where the pixel is part of an area fill feature, a second printing mask is selected that is optimized for printing area fill features. Each mask specifies a number of fluid droplets to be printed and positions where the fluid droplets are to be printed. The selected mask is applied to the pixel. The pixel is printed using the mask that has been applied. The fluid-ejection printing device prints the pixel by ejecting the number of fluid droplets specified by the mask at the positions specified by the mask.

Abstract: An image forming apparatus includes an input part for receiving image data; an image processor for image-processing the input image data; an output part for outputting data processed at the image processor; and a controller for controlling the image processor to process the image using one of a plurality of image processing modes having a toner consumption lower than a toner density to use when the toner density to use for outputting the input image data exceeds a preset reference density. The plurality of the image processing modes includes a boundary image processing mode which outputs only boundaries of objects in the image data. Thus, the toner used for the image forming can be saved.

Abstract: A wide-format color printer includes a carriage, an ink carrier (2) disposed on the carriage, a motor (3) for driving the carriage and a guide-rail frame (4). The motor is mounted on the carriage and a motor wheel (3-1) of the motor is fitted to a guide rail (4-1) of the guide-rail frame. An anti-friction strip (6) is disposed on the bottom of the guide rail. The carriage includes a carriage frame (1-1) and a motor holder (1-2). The ink carrier is buckled to a front end face of the carriage frame. The motor is fixed to the motor holder. The motor holder is connected to the carriage frame through an elastic member (5) on the top of the motor holder. The motor of the printer drives directly the carriage frame to move on the guide rail of the guide-rail frame reciprocally.

Abstract: A color processing apparatus includes an obtaining unit, a setting unit, and a color converting unit. The obtaining unit obtains a predetermined corresponding relationship between total amount limit information regarding limitation of a total amount of inks of colors, and a combination in which, among droplet diameters of inks of colors ejectable to satisfy the total amount limit information, droplet diameters of at least two or more inks are made uniform, and the types of droplet diameters of inks of the colors are two or fewer types. The setting unit sets the combination of droplet diameters corresponding to the accepted ink total amount limit information, on the basis of the obtained corresponding relationship. The color converting unit converts a color in an input color gamut reproducible by an input device into a color in an output color gamut in accordance with the set combination of droplet diameters.

Abstract: An image processing apparatus is provided that is capable of very accurately and efficiently reducing uneven color caused by variation in ejection characteristics among nozzles that eject ink and that occurs in a color image that is formed by mixing a plurality of different kinds of ink. A patch is printed by ejected ink from a plurality of nozzles, a region is specified so as to perform color correction in a test color image that is printed on a printing medium, a plurality of different color correction processing is performed on color signals that correspond to a color correction region, a plurality of color correction patches are printed, a color correction patch to be used is selected from among the plurality of different color correction patches and table parameters that correspond to the nozzles are created based on the selected color correction processing.

Abstract: When image is formed by a liquid ejection head, input image data is subjected to conversion processing including tone conversion using a first look-up table (LUT) and density correction or non-uniformity correction in nozzle units using second LUTs. Ink use amount in image formation is predicted from reduced image data which is generated from the input image data. In this, the calculation is made more efficient by applying a third LUT which is compiled according to requirements from the second LUTs, to the reduced image data, rather than using the second LUTs directly. Since the image conversion processing is carried out which combines the first LUT for tone conversion and the third LUT corresponding to the non-uniformity correction, and the ink amount distribution data is calculated from the reduced image data after the conversion, then it is possible to ascertain an accurate ink amount which reflects the image adjustment conditions.

Abstract: A multi-resolution imaging device (10) for a high-speed multi-color printer includes at least one high-resolution sensor array (23), wherein an output of the high-resolution sensor array is transmitted to a controller (19); at least one low-resolution sensor array (24); wherein the controller calculates a correction for stitch; wherein the controller, based on the calculated correction, adjusts a timing of image data provided to individual print elements comprising print stations (12) to aligned an output of the print elements; and wherein the low-resolution sensor array provides full page viewing.

Abstract: A device for driving a recording head comprises select data input elements, a waveform signal selector, and a drive signal supplier. To the select data input elements, select data sets corresponding to recording elements included in the recording head are inputted in a serial manner. Each one of the select data sets indicates which one among waveform signals is to be employed for a corresponding recording element in a single printing cycle. The waveform signal selector selects, for each of the recording elements, one among the waveform signals on the basis of a corresponding one among the select data sets inputted to the select data input. The drive signal supplier supplies, based on the selected waveform signal, a drive signal to each of the recording elements. The number of the select data input elements is greater than the number of bits included in each of the select data sets.

Abstract: An image recording apparatus includes: a conveying section that accelerates a long-length recording medium to a predetermined speed, conveys the long-length recording medium, and decelerates the long-length recording medium to a stopped state; a recording section that records an image on the recording medium, and forms a first test pattern on the recording medium after the image is recorded at a time of deceleration of the recording medium; a reading section that reads the image that the recording section has recorded and the first test pattern that the recording section has formed; an image converting section that converts inputted image data into image data that the recording section outputs; a maintenance section that performs maintenance of the recording section; and a controller that decides, on the basis of first data obtained by reading the first test pattern, whether or not the maintenance is needed and the content thereof.

Abstract: A method for aligning image data printed on a receiver medium in a multi-printhead printer that includes printing a test pattern including features separated by predefined test pattern feature separations, where some features are printed with a first printhead and some features printed with a second printhead. An image of the printed test pattern is analyzed to determine a first camera pixel separation between two features printed with the first printhead, which is used to determine a camera scale factor. The camera scale factor is used to scale a second camera pixel separation between a feature printed with first printhead and a feature printed with the second printhead. The scaled second camera pixel separation is compared to a corresponding test pattern feature separation to determine an alignment error, which is used to adjust the alignment of the image data printed with at least one of the printheads.

Abstract: A multi-printhead printing system, including first and second printheads adapted to print on a receiver medium. An alignment process includes printing a test pattern including features separated by predefined test pattern feature separations, where some features are printed with a first printhead and some features printed with a second printhead. An image of the printed test pattern is analyzed to determine a first camera pixel separation between two features printed with the first printhead, which is used to determine a camera scale factor. The camera scale factor is used to scale a second camera pixel separation between a feature printed with first printhead and a feature printed with the second printhead. The scaled second camera pixel separation is compared to a corresponding test pattern feature separation to determine an alignment error, which is used to adjust the alignment of the image data printed with at least one of the printheads.

Abstract: An image forming apparatus includes: an image processing unit acquiring image data, performing image processing, and generating color image data for respective colors; plural toner image forming units each forming and developing an electrostatic latent image on the basis of the color image data, and forming a color toner image; and a toner image holding member moving while holding each color toner image. Each electrostatic latent image has pixel rows arranged in a slow scan direction, with pixels aligned in a fast scan direction. The image processing unit performs, on the color image data, image processing to add or delete the pixel rows for a position of the electrostatic latent image in the slow scan direction. The number of the pixel rows corresponds to the amount of change in a moving velocity of the toner image holding member when each color toner image formed at the position is held.

Abstract: A printing apparatus capable of executing color printing and monochrome printing includes: a mode controller which controls a monochrome printing mode where the monochrome printing is executed, a first mode where reception of a printing job stops when a color image forming medium has run out, and a second mode where procession to the monochrome printing mode is possible; an exclusive controller which receives only one printing job in a first time period; and a print executing unit which execute printing on the basis of the printing job received by the exclusive controller.

Abstract: A system for printing and emissive image on a substrate that includes red, green, and blue additive-color emissive inks configured to be printed to a substrate using an ink printer device intended for use with subtractive-color ink. An image to be printed can be converted to color negative form prior to printing using the subtractive-color ink printer. The system may include a subtractive-color ink printer intended for use with subtractive-color ink cartridges. The system may also include a computer device programmed to convert an image to a color negative form.

Abstract: A system adjusts at least one operational parameter for at least one electrical energy consuming device. The system monitors electrical energy consumption measurements for operational activity periods, identifies an electrical energy consumption measurement difference between an electrical energy consumption measurement for an operational activity period and an electrical energy consumption measurement for a corresponding operational activity period, and modifies an operational parameter for the electrical energy consuming device in response to the difference being greater than a predetermined threshold. The modified operational parameter is sent to the electrical energy consuming device to enable modified operation of the electrical energy consuming device.

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 printing device includes a receiving part receiving print job data, an analysis part, a memory part, an image forming part that executes a print process of image information using first and second consumable products and that includes a remaining amount detecting part, and a print control unit that controls the print process. When the remaining amount of the first consumable product is detected to be lower than a predetermined amount, the print process using the first consumable product is temporarily suspended, the memory part stores the image information and the print information of the print job data that are sequentially received by the receiving part. When the print information for another print process not using the first consumable product is stored in the memory part, the print control unit deletes information relating to the print job data of the suspended print process.

Abstract: A method of printing a high density image on a transparent medium. In some examples, the method includes calculating an expected optical density for an input pixel value, using a first function configured to output an optical density which produces a substantially linear relationship between the input pixel value and the output optical density as substantially perceived by a human eye. The method may also include calculating an L* value which represent a parameter in a CIELAB colorspace using the expected optical density. In some examples, the method includes calculating a response function that describes the relationship between L* and an output pixel value, the output pixel value specifying the amount of ink to deposit onto the transparent medium. In other examples, the method includes using the response function to solve for an output pixel value for the L* value; and creating a look up table.

Abstract: A method for printing on transparent medium using an ink-jet printer. The method includes providing a grayscale image having a plurality of pixels, each pixel having a pixel value corresponding to a brightness of the pixel; converting each pixel value to an ink output value for the ink-jet printer using a conversion function, wherein the conversion function maps the darkest pixel value to an optical density of greater than 2.5 and maps all other pixel values to an appropriate output pixel value such that a resulting printed image is perceived to be linearly bright across the image.

Abstract: Commands, which are stored in a queue within controllers in order of acquisition, are transmitted to mechanical I/F units (steps (1) and (2) in FIG. 7). A determination portion in each mechanical I/F unit determines whether or not the command is an internal command (for example, an error command) which is generated in the controllers. If the command is the internal command, the command is directly output to the mechanical controller. In contrast, if the command is not the internal command, a virtual mechanical controller outputs the command through synchronization processing for confirming whether the commands issued from the controllers are synchronized (steps (3) to (7) in FIG. 7).

Abstract: A printing method includes obtaining an initial printer profile corresponding to a printing system having a plurality of ink colors, identifying a remaining ink parameter corresponding to each of the ink colors, and determining whether the remaining ink parameter of each of the ink colors are approximately equal to each other such that: performing a print job using the initial printer profile when the remaining ink parameter determination is that the remaining ink parameter of each of the ink colors are approximately equal to each other, and determining a modified printer profile by selectively changing color saturation for one or more of the ink colors to balance ink usage and performing the print job using the modified printer profile when the remaining ink parameter determination is that the remaining ink parameter of each of the ink colors are not approximately equal to each other.

Abstract: Systems, apparatuses, and methods for selecting bits from a defined print image in memory of a handheld imaging translation device are described herein. The bits may be selected by determining a location of a print nozzle, mapping the location to a memory location, and selecting a bit from the memory location. Other embodiments may be described and claimed.

Abstract: A nail printer and printing method for printing on nails of fingers in a short time. Printing of nails starts a predetermined time after a print start command is given by a print switch or a both-hand switch. When nails of thumbs or fingers of both right and left hands are printed with an image, a print switch is operated by one of the hands, the thumbs or fingers of the both hands are fixed at a predetermined printing position within a printed finger receiver and then the nails of both the thumbs or fingers are printed with a design or pattern.

Abstract: A waiting time Ts is decided on the basis of ink type information and ink feed amount information, referring to waiting time table A (Step 6). Along with this, a dried printing paper is carried to and stopped in a waiting area 9 (Step 7), a time period T is measured after stopping, and measurement processing in the next step is delayed until the time period T reaches the waiting time Ts. Then, when the time period T reaches the waiting time Ts, a measuring instrument 10 is used to measure a density of a patch printed on the printing paper (Steps 8 and 9).

Abstract: A multi-resolution imaging device (10) for a high-speed multi-color printer includes at least one high resolution sensor (20), wherein an output of the high resolution sensor is transmitted to a controller (19); at least one low resolution sensor (24); wherein the controller calculates a correction for stitch; wherein the controller, based on the calculated correction, adjusts a timing of image data provided to imaging inkjets (12) to aligned an output of the inkjets; and wherein the low resolution sensor provides full page viewing.

Abstract: A method for performing color registration on template media having template markings thereon comprises sensing the template media using a sensor to obtain first image data; printing a test pattern on the template media; sensing the template media along with the test pattern printed thereon using the sensor to obtain second image data; determining an output image data of the test pattern from the first image data, the second image data, and an estimated image data of the template media with the test pattern printed thereon; determining process direction and cross-process direction misregistrations from the output image data; and adjusting printheads based on the process direction and the cross-process direction misregistrations to provide adjusted color registration on subsequent template media. The estimated image data is representative of light scatter from the test pattern and light absorption by the test pattern.

Abstract: A plurality of control boards can be connected to each other via a high-speed bus. An image forming unit performs an image forming process, which is housed in a casing. A slot is arranged on any one of a plurality of side surfaces perpendicular to a bottom surface of the casing, which is elongated in a direction perpendicular to the bottom surface and guides the control boards to inside of the casing. The control boards are connected in parallel to each other.

Abstract: An image processing device includes a multi-layer data acquiring part configured to acquire multi-layer data having a required-formation-amount-related value representing a value relating to a formation amount required to form an image, and an expanding part configured to expand, based on a correspondence relationship for expansion, the acquired multi-layer data into multiple sets of single-layer data. The correspondence relationship for expansion has a correspondence relationship between the required-formation-amount-related value in each of the sets of single-layer data and the required-formation-amount-related value in the multi-layer data. The required-formation-amount-related value in the multi-layer data is image data that exceeds a maximum-formation-amount-related value representing a value relating to a maximum formation amount of a color value of the single-layer data with which an image can be printed in a single printing process.

Abstract: A printed layer formation processing device performs a part of a process for forming a printed layer on a part of the print medium by a first colorant in a molded object formation process. The printed layer formation processing device includes: a formation amount correspondence relationship storage part that stores a formation amount correspondence relationship, which is a correspondence relationship between a degree of deformation of the print medium and a formation amount of the first colorant, which are correlated so that the thickness of the printed layer is substantially the same in respective regions of the molded object, a deformation degree acquisition part that acquires the degree of deformation in the respective regions of the print medium; and a formation amount determining part that determines the formation amount of the first colorant in the respective regions based on the degree of the deformation and the formation amount correspondence relationship.

Abstract: A plurality of grid points for forming a quadrangle, and an internal point included within the quadrangle, are quasi-formed on a medium prior to deformation, and position information is acquired that relates to the positions of the quasi-formed grid points and internal point moved in conjunction with the deformation of the medium. A triangle deformation ratio is acquired from the areas of triangles formed by the grid points and internal point before and after deformation, and a discharge amount of ink formed on the medium is computed in accordance with the deformation ratio after deformation, with respect to the triangles before deformation.

Abstract: An ink jet printing apparatus that improves the visibility of a character and its background in different colors or of outline characters is provided. Specifically, outline character bold data is inverted and each of the pixels in the data is expanded to adjacent eight pixels. Then, the expanded outline character is processed into expanded inverted data. The logical AND of the inverted expanded data and K data on a background image is then calculated to generate K data with the outline character expanded. This results in an image with the outline character expanded. That is, the present invention enables characters with improved visibility and free from blurredness to be printed while preventing the adverse effect of bleeding on the outline character.

Abstract: An image forming apparatus includes: a reading mechanism having an original placement portion on which an original document is placed for reading an image; a recording mechanism having a medium supply tray on which a recording medium is set, the recording mechanism being disposed in such a manner that a longitudinal direction of the medium supply tray is substantially perpendicular to a longitudinal direction of the original placement portion; an angular casing that houses the reading mechanism and the recording mechanism while stacking the reading mechanism and the recording mechanism vertically; and a cartridge holder that houses an ink cartridge and is disposed in a space located at a corner position of the casing below the reading mechanism and surrounded by a circumferential wall of the casing and a side wall of the medium supply tray.

Abstract: A printing system and method include analyzing a plurality of properties of a document, and for each of a plurality of ink sets, calculating a metric for each of the properties.

Abstract: An image forming apparatus (50) at least includes a paper output tray (80), an actuator (16) and a photo sensor (15). The actuator (16) is supported in such a manner as to be swingable above a paper loading surface of the paper output tray (80). The actuator (16) includes a fullness detection section (164) and a rear edge curling detection section (162). The fullness detection section (164) is disposed at a tip portion of the actuator (16), being configured so as to contact the uppermost paper on the paper output tray (80). The rear edge curling detection section (162) is formed so as to extend from the fullness detection section (164) toward a direction that gets further away from the paper loading surface of the paper output tray (80) toward a direction generally parallel to the paper loading surface of the paper output tray (80) and opposite to a paper conveying direction.

Abstract: In an inkjet printer, a feeding side tension applying means is provided with a feeding side tension adjustment mechanism, which is structured of a feeding side ballast arm that is extended toward a winding side tension applying means and vertically swingable around a rotation shaft perpendicular to a feeding direction of a printing medium and a feeding side ballast member that is attached to a tip end of the feeding side ballast arm, and a winding side tension applying means is provided with a winding side tension adjustment mechanism which is structured of a winding side ballast arm that is extended toward the feeding side tension applying means and vertically swingable around a rotation shaft perpendicular to the feeding direction of the printing medium “M” and a winding side ballast member that is attached to a tip end of the winding side ballast arm.

Abstract: A system and method detect missing inkjets in an inkjet image generating system. The system and method generate digital images of printed documents that do not have test pattern data within them. The digital images are processed to detect light streaks and the positions of the light streaks are correlated to inkjet positions in printheads. Identification of the ink color associated with the correlated inkjet positions are obtained with analysis of color separated images and/or color errors.

Abstract: An image processing apparatus includes: a color information acquiring unit that acquires color information of each scanning line of each head in a main scanning direction; and a correction unit that corrects a parameter used for a halftone process of a scanning line in the main scanning direction and a parameter used for a halftone process of an adjacent line adjacent to the scanning line, and, based on the acquired color information, corrects a difference in colors of the scanning line and the adjacent line.

Abstract: For a printing apparatus which saves on a color material, an image processing apparatus is realized which enables a user to incur printing costs only for necessary information and necessary areas in a print product. For this purpose, there is provided an image processing apparatus including a separation unit configured to analyze and separate print information into text, photograph, and graphic constituent elements, a display unit configured to display information about a color material used amount to be used in printing for each of the separated constituent elements, and a setting unit configured to allow a user to set a change in the color material used amount for each of the separated constituent elements.

Abstract: The present invention provides a print module, an information processing device, a print system, a print unit, an ink supply unit, a print method and program, all capable of quickly and easily meeting demands for a print medium size change, particularly to increased sizes, while at the same time coping with demands for faster printing speed. To this end, this invention constructs the print heads (811) in the form of print modules (M) so that their ink systems and signal systems are independent among the print modules. Each print module is set with identity information for its identification.

Abstract: Embodiments of the present invention provide apparatuses and methods for determining usage maps in handheld image deposition devices. The utilization of usage maps in combination with color planes may facilitate the output of varying levels of intensity. Additionally, the storage of processed images and the print data associated with various image locations of the processed image, according to a consistent offset of memory addresses, may expedite retrieval of print information.

Abstract: Disclosed is a system for printing an image comprising a plurality of pixels, the system comprising: a carriage arranged to make a plurality of passes along a scanning axis with respect to a print medium; a plurality of printheads mounted on the carriage, each printhead corresponding to a different ink color and comprising at least one ejection nozzle; and, a print controller configured to receive data defining for each pass zero or more locations at which to deposit each of the ink colors to produce each pixel; wherein the data is such that for at least one pixel, at least one of the ink colors is deposited at substantially more locations on one pass relative to the other passes.