A computer implemented color management system and method are disclosed. The system comprises a color data repository encoding data indexing links on items according to a predetermined color classification scheme and a processor configured to execute computer program code for executing a color management system, including computer program code configured to provide a user interface configured to receive a user query and provide data from the color data repository in dependence on the user query, computer program code configured to provide a plurality of content interfaces. Each content interface is configured to link a respective remote content data repository storing data on items to the item's respective entry in the color data repository and upon presentation of a new item by the respective remote content data repository to classify the new item according to the predetermined color classification scheme and index a link to the new item in the color data repository according to the classification.

A control apparatus causes, to execute image processing of single-color image data, a processing apparatus configured to accept an image processing command including a plurality of fields, each capable of storing a respective one of a plurality of color components in a dot sequential format, and execute image processing by using pixel values included in the command. The control apparatus extracts, from single-color image data, a plurality of partial images by a number corresponding to the number of color components. The control apparatus acquires single-color pixel values from the respective partial images, and stores the single-color pixel values in the respective fields of the image processing command. A generated image processing command is input to the processing apparatus, and the processing apparatus executes image processing using the pixel values included in the command.

A control apparatus causes, to execute image processing of single-color image data, a processing apparatus configured to accept an image processing command including a plurality of fields, each capable of storing a respective one of a plurality of color components in a dot sequential format, and execute image processing by using pixel values included in the command. The control apparatus extracts, from single-color image data, a plurality of partial images by a number corresponding to the number of color components. The control apparatus acquires single-color pixel values from the respective partial images, and stores the single-color pixel values in the respective fields of the image processing command. A generated image processing command is input to the processing apparatus, and the processing apparatus executes image processing using the pixel values included in the command.

Systems and methods for generating an image-based color palette based on a color image. A color palette can be a collection of representative colors each associated with a weight or other metadata. A color palette may be generated based on palette generation criteria, which may facilitate or control a palette generation process. Illustratively, the palette generation process may include image pre-processing, color distribution generation, representative color identification, palette candidate generation and palette determination. Representative colors with associated weight can be identified from a distribution of colors depicted by the color image, multiple palette candidates corresponding to the same color image can be generated based on various palette generation criteria, and a color palette can be identified therefrom.

A method is described to greatly improve the efficiency of and reduce the complexity of image compression when using single-sensor color imagers for video acquisition. The method in addition allows for this new image compression type to be compatible with existing video processing tools, improving the workflow for film and television production.

An imaging apparatus is configured to capture an object image, generate a RAW image, perform simple development on the RAW image during the image capturing operation, and store not only the developed image but also the RAW image in a storage medium. If the imaging apparatus displays an image during the image capturing operation and immediately after the image capturing operation, the imaging apparatus displays the image processed by the simple development. When the imaging apparatus completes processing of high-quality image development, the imaging apparatus replaces the image processed by the simple development with the image processed by the high-quality image development and displays the image processed by the high-quality image development.

An image forming apparatus includes: a first memory for temporarily storing therein image data output to an image forming unit; a data processing processor for reading the image data; a second memory for temporarily storing therein the image data; and a main processor for causing the data processing processor to sequentially read the image data, wherein the data processing processor includes: data transfer units; a transfer control unit; and a table, the main processor sets a start address and a size and instructs the transfer control unit to activate the data transfer units, the transfer control unit divides a size of image data and sets a start address and a size of divided image data, the data transfer units read corresponding image data and output it to the second memory, and the transfer control unit subsequently controls the data transfer units and notifies the transfer completion to the main processor.

An image forming apparatus includes: a first memory for temporarily storing therein image data output to an image forming unit; a data processing processor for reading the image data; a second memory for temporarily storing therein the image data; and a main processor for causing the data processing processor to sequentially read the image data, wherein the data processing processor includes: data transfer units; a transfer control unit; and a table, the main processor sets a start address and a size and instructs the transfer control unit to activate the data transfer units, the transfer control unit divides a size of image data and sets a start address and a size of divided image data, the data transfer units read corresponding image data and output it to the second memory, and the transfer control unit subsequently controls the data transfer units and notifies the transfer completion to the main processor.

An image processing device includes: a compression unit that compresses original image data in units of a block; a first position correction unit that shifts positions of respective pixels contained in the original image data compressed by the compression unit such that the positions are shifted in a sub scanning direction; an expansion unit that expands the original image data shifted by the first position correction unit; and a second position correction unit that converts resolution of the original image data into higher resolution, and shifts the positions of the respective pixels of the converted original image data, wherein the first shift amount is a shift amount set in units of a shift corresponding to an integral multiple of the block, and the second shift amount is a shift amount set in units of a shift corresponding to one pixel with high resolution converted by the second position correction unit.

An image compressing device includes: a histogram creating unit configured to create a histogram regarding an input image; an original type recognizing unit configured to recognize an original type of the input image using the histogram; and an image compressing unit configured to perform a compression process for creating a high-compressed image file from the input image and to control a compression mode of the compression process depending on at least the original type recognized by the original type recognizing unit.