Abstract: A conveyor is configured to convey a sheet in a conveyance direction. A print engine is configured to perform image recording of recording an image on the sheet conveyed by the conveyor. A cutter is configured to cut the sheet. A display is configured to display a screen. A controller is configured to: control the print engine to perform the image recording based on acquired first recording data; control the cutter to cut the sheet at a particular position; in response to determining that recording of the first recording data is not performed on at least one of sheets acquired by cutting of the cutter, control the display to display a first object indicating that a blank sheet will be generated after the cutting, the blank sheet being a sheet on which an image can be recorded.

Abstract: A printing device comprises a head including nozzles configured to eject ink and is configured to print, with use of the ink, an image having a plurality of pixels on a printing medium, an input device configured to receive information designating a pixel in the image, and a controller. The controller performs judging a priority of a designated color of a designated pixel designated by the information designating the pixel, determining one of conditions including a number, sizes, and the number and sizes of the designated patches of the designated color, based on the priority judged by the judging, and printing a patch chart containing the designated patch according to the one of the conditions on the printing medium.

Abstract: A supporting program is executable by a controller of an information processing apparatus and corresponds to a printer connected to the information processing apparatus. The supporting program causes the information processing apparatus to perform processing intermediate image data in accordance with a print parameter received in a print parameter editing process, displaying an image indicated by the processed inter mediate image data on a print preview screen. The information processing apparatus does not restrict printing when print continuation is instructed, while restricting the printing when re-edit or print cancel is instructed.

Abstract: A printer may include a controller configured to: in a case where a predetermined instruction is obtained from a user under a situation where a service state of the printer for receiving a print job providing service from a server is a disabled state, shift the service state from the disabled state to an enabled state; in a case where a registration instruction to register printer information related to the printer in the server is obtained, send the printer information to the server; in a case where the registration instruction is obtained under the situation where the service state is the disabled state, shift the service state from the disabled state to the enabled state without obtaining the predetermined instruction from the user.

Abstract: A textile printing system for digital printing of colored images onto typically colored fabrics, digitally using print nozzles or other digital means, the nozzles printing print pixels onto the fabrics. The system comprises a print file defining pixel colors for the individual printing pixels; and a deletion unit which deletes print pixels from the print file wherever a respective pixel color is within a threshold distance of the fabric color. The textile printer then prints the print pixels onto the fabric to form a colored image without printing any of the deleted pixels.

Abstract: Methods and systems for secure media processing may be used to execute and certify a digital media asset by verifying that the digital media asset is authentic and has not been altered since capture. In some cases, these secure media processing techniques may be used in the mobile certification and execution application and a corresponding server system. The mobile application and the corresponding server system may automatically generate finalized documents upon receiving certified digital media and the corresponding metadata from the users. The digital media and other information from the users may be received while the user is in communication with other users. A biometric and artificial intelligent feature recognition system may be utilized to receive biometric data and verify identity. Data transferred to a secure server are accessible by various parties involved in the certification and execution process to provide transparency.

Abstract: A printing apparatus includes an image forming portion which forms a chart image on a sheet conveyed from a sheet feeding deck, a color measure portion which performs color measurement by reading the chart image formed by the image forming portion, and one or more controllers including one or more processors and one or more memories. The one or more controllers are configured to generate correction data based on color measurement results by the color measurer portion and a reference value, and perform correction for target image data by using the generated correction data. The reference value is obtained by performing color measurement by the color measure portion and is registered in association with a type of sheet on which the chart image is formed, and in a case where the type of sheet on which the chart image is formed is changed, the reference value is updated.

Abstract: A communication apparatus capable of communicating with an information processing apparatus and an access point includes an establishment unit configured to establish connection between the access point and the communication apparatus, and a control unit configured to execute, based on a fact that an authentication method used for connection between the communication apparatus and the access point is a predetermined authentication method, predetermined processing to inhibit at least part of communication between the communication apparatus and the information processing apparatus without interposing the access point.

Abstract: A method of printing an image using a printing system having first and second printheads supplied with a same ink. The method includes the steps of: allocating first lines of the image to the first printhead; allocating second lines of the image to the second printhead; dithering the first lines of the image using a selected first dither mask; dithering the second lines of the image using a selected second dither mask; printing the dithered first lines of the image using the first printhead; and printing the dithered second lines of the image using the second printhead. The first and second dither masks are selected based on a relative alignment of the first and second printheads.

Abstract: A printing plate having a printing surface for receiving ink, including a defined area of an image intended to print with ink and a surface pattern applied to the defined area. The surface pattern includes a plurality of rows each having a plurality of diagonally oriented line segments, each line segment corresponding to an ink-carrying relief structure in a raised area of the plate, the plurality of diagonally oriented line segments having orientations alternating between a positive angle in one row and a negative angle in an adjacent row, wherein each line segment has a first end aligned with a middle portion of and spaced apart from a first line of a first adjacent row and a second end aligned with a middle portion of and spaced apart from a second line of a second adjacent row.

Abstract: A processing device including a hardware processor that: determines a dot position at which a dot is to be generated by multiple recording elements arranged in a first direction on a medium which moves relative to the recording elements in a second direction crossing the first direction, based on tone data for each pixel of an image to be formed; determines a corrected dot number that is a number of a dot position by a malfunctioning recording element to which an offset number is added, wherein the malfunctioning recording element is set as a recording element by which a dot is not generated normally among the recording elements; and determines the corrected dot number of a dot position within a dot generation possible range by a recording element other than the malfunctioning recording element.

Abstract: A system is disclosed. The system includes at least one physical memory device to store compensation logic and one or more processors coupled with the at least one physical memory device to execute the compensation logic to generate transfer functions for each of a plurality of color planes to compensate for non-functioning pel forming elements, wherein the transfer functions are generated based on ink deposition functions for groups of pel forming elements including functioning pel forming elements and the non-functioning pel forming elements, wherein the transfer functions transform input digital counts and the ink deposition functions represent output ink amount versus input digital count.

Abstract: An image processing apparatus includes an acquisition unit configured to acquire a reference image serving as a reference printing result and a target image serving as a printing result to be inspected, a correction unit configured to correct the target image based on a paper white area of each of the reference image and the target image so that a paper white color of the paper white area of the target image matches a paper white color of the paper white area of the reference image, wherein the paper white area is determined based on a positional displacement between the reference image and the target image, and an inspection unit configured to inspect the printing result by comparing the corrected target image with the reference image.

Abstract: A method for correcting in-track position errors in a digital printing system includes determining a non-linear in-track position correction function responsive to measured in-track position errors, wherein the in-track position corrections are quantized to integer in-track position corrections. A representation of the in-track position correction function is stored in a digital memory, wherein the representation of the in-track position correction function includes the cross-track positions and transition direction of transitions in the in-track position correction function. Digital image data for a digital image to be printed is received, and corrected image lines are determined by resampling the digital image data responsive to the stored representation of the in-track position correction function. The corrected image lines are modified to provide anti-aliasing pixels at cross-track positions adjacent to transitions in the in-track position correction function.

Abstract: There is provided an apparatus including a forming unit configured to form an image on a sheet fed from a stage in response to execution of printing of a predetermined number of images based on a print job, a measurement unit configured to read the formed image and perform color measurement, a generation unit configured to generate data based on a result of the color measurement and a reference value, and a correction unit configured to perform a gradation correction to image data by using the generated data, wherein the sheet on which the image is formed is determined based on a setting of the print job.

Abstract: An image forming apparatus includes an image forming unit configured to form an image on a sheet; an image processing unit configured to perform processing, which comprises correction of color misregistration, on image data for controlling the image forming unit to form the image; and a controller configured to instruct the image forming unit to perform calibration in a case where a component of the image forming unit is replaced. The image forming unit includes a storage unit, and is configured to acquire correction information to be used for the correction of color misregistration in the calibration to store the correction information in the storage unit, and the image processing unit includes a memory configured to store first image data, which is the image data before being processed, and second image data, which is obtained by compressing the image data after being processed.

Abstract: An information processing apparatus generates print data by executing a printer driver based on an instruction issued by an application operating in an operating system. The information processing apparatus includes an eliminating unit configured to eliminate conflict or inconsistency of a print setting based on conflict eliminating information for eliminating conflict of a setting to be input to the printer driver under control of an application which processes the print setting, and an input unit configured to input a print setting obtained after conflict is eliminated by the eliminating unit to the printer driver using the application.

Abstract: An image processing apparatus includes: a designating unit configured to designate a color; a reading unit configured to read a document to generate a document image; a conversion unit configured to convert a color of a pixel in the document image to a specific color based on a designated color designated by the designating unit; and a specification unit configured to specify a graphic region in the document image. The conversion unit is configured not to convert a color of a pixel in the graphic region specified by the specification unit to the specific color.

Abstract: A computer analyzes submitted data to identify insufficient data among data necessary for executing C×F color conversion process. When spectral characteristic data of a patch constituting a C×F chart is insufficient, a computer supplements the spectral characteristic data. When complete printing order data has not been obtained, the computer supplements printing order data. The color conversion process is performed using the data after supplement.

Abstract: A system comprising an electronic device that includes a processor is described. During operation, the processor acquires a full version of a neural network, the neural network including internal elements for processing instances of input image data having a set of color channels. The processor then generates, from the neural network, a set of sub-networks, each sub-network being a separate copy of the neural network with the internal elements for processing at least one of the color channels in instances of input image data removed, so that each sub-network is configured for processing a different set of one or more color channels in instances of input image data. The processor next provides the sub-networks for processing instances of input image data—and may itself use the sub-networks for processing instances of input image data.