Abstract: A document processing apparatus includes a processor configured to receive purpose information indicating a purpose of creating a document, extract item definition information corresponding to the purpose indicated by the received purpose information from item definition information stored in a memory for the item definition information in which one or more items to be posted in the document are defined in correspondence with the purpose of creating the document, extract an item value corresponding to each item defined in the extracted item definition information from item information stored in a memory for the item information including the item value of each item, and assign the extracted item value in each predetermined area of the document to create the document.

Abstract: A semiconductor device includes a first die pad with a first obverse surface facing in z direction, a second die pad spaced from the first die pad and including a second obverse surface facing in z direction, a first semiconductor element on the first obverse surface, a second semiconductor element on the second obverse surface, an insulating element on the first or second obverse surface and located between the first and second semiconductor elements in x direction to relay signals between the first and second semiconductor elements while electrically insulating these semiconductor elements, and a wire bonded to the first semiconductor element and the first obverse surface. The first die pad includes a first bond portion bonded to the wire, and a first opening located between the first bond portion and the first semiconductor element in y direction and including an opening end in the first obverse surface.

Abstract: An imaging system (100) includes an imaging unit (140) configured to capture an image of a target object while the imaging unit (140) being mounted on a movable apparatus (500); and an exposure condition determination unit (161) configured to determine any one of a fixed exposure condition and an automatic exposure (AE) condition, as an exposure condition, based on a distance detected between the movable apparatus (500) and the target object.

Abstract: An imaging system (100) includes an imaging unit (140) configured to capture an image of a target object while the imaging unit (140) being mounted on a movable apparatus (500); and an exposure condition determination unit (161) configured to determine any one of a fixed exposure condition and an automatic exposure (AE) condition, as an exposure condition, based on a distance detected between the movable apparatus (500) and the target object.

Abstract: An image processing device includes an image input unit, a shake-amount measuring unit, a shake correcting unit, a dividing unit, a feature-value calculating unit, and an enhancement processing unit. The image input unit receives an input of an image in chronological order. The shake-amount measuring unit measures an amount of shake of an image. The shake correcting unit corrects shake of the image in accordance with the amount of shake measured. The dividing unit divides the image corrected into multiple areas. The feature-value calculating unit calculates a histogram indicating a feature value of an image, for each of the divided areas. The enhancement processing unit determines processing details of enhancement processing to change a form of the histogram for each of the areas in accordance with the measured amount of shake of the image, and conducts enhancement processing on the area based on the histogram calculated for each area.

Abstract: An image processing system, an image processing device, and image processing method are provided. Each of the image processing system, the image processing device, and the image processing method includes dividing an image into a plurality of areas according to a predetermined division condition, measuring an optical transmittance of each of the plurality of divided areas or data correlating with the optical transmittance as transmittance data, calculating the optical transmittance or the data correlating with the optical transmittance from the image as the transmittance data, determining a parameter for adjusting a contrast for each of the plurality of areas according to the transmittance data obtained by the measuring or the calculating, and adjusting a contrast of each one of the plurality of areas using the parameter determined by the determining.

Abstract: An image processing apparatus useable for correcting an image includes an input unit to receive an input of an image; an area dividing unit to divide the image, input to the input unit, into a plurality of areas having different lighting conditions; a computing unit to compute a correction coefficient for each of the divided areas divided by the area dividing unit; a movement detector to detect a movement between the first image and the second image supplied from the input unit along the time line; a boundary determination unit to determine a boundary between the areas to which correction coefficients of each of the areas are blended based on the movement detected by the movement detector; and a setting unit to set image correction coefficient data for the image input to the input unit based on the boundary between the areas determined by the boundary determination unit.

Abstract: An image conversion apparatus extracts from among pixel rows parallel to an object pixel row, a first pixel row overlapping an aperture shape; and further extracts a second pixel row having the number of pixels successively overlapping the aperture shape equal to or greater than that of the first pixel row. The image conversion apparatus calculates a value of a second pixel in the case of converting an original image, by referring to a storage unit that stores a value of a first pixel in the case of converting the original image. For example, the image conversion apparatus defines an average of the value of the first pixel in the case of converting the original image, a value of a diffusion source pixel (IN[5][2]), and a diffusion source pixel (IN[5][3]) as the value of the second pixel in the case of converting the original image.

Abstract: An image processing device includes an image input unit, a shake-amount measuring unit, a shake correcting unit, a dividing unit, a feature-value calculating unit, and an enhancement processing unit. The image input unit receives an input of an image in chronological order. The shake-amount measuring unit measures an amount of shake of an image. The shake correcting unit corrects shake of the image in accordance with the amount of shake measured. The dividing unit divides the image corrected into multiple areas. The feature-value calculating unit calculates a histogram indicating a feature value of an image, for each of the divided areas. The enhancement processing unit determines processing details of enhancement processing to change a form of the histogram for each of the areas in accordance with the measured amount of shake of the image, and conducts enhancement processing on the area based on the histogram calculated for each area.

Abstract: An image processing system, an image processing device, and image processing method are provided. Each of the image processing system, the image processing device, and the image processing method includes dividing an image into a plurality of areas according to a predetermined division condition, measuring an optical transmittance of each of the plurality of divided areas or data correlating with the optical transmittance as transmittance data, calculating the optical transmittance or the data correlating with the optical transmittance from the image as the transmittance data, determining a parameter for adjusting a contrast for each of the plurality of areas according to the transmittance data obtained by the measuring or the calculating, and adjusting a contrast of each one of the plurality of areas using the parameter determined by the determining.

Abstract: A display device includes: an input controller configured to detect a first contact coordinate input by a drag operation on a touch panel on a surface of a display and record the first contact coordinate in a memory in association with an acquisition time of the first contact coordinate; and a display controller configured to calculate a second contact coordinate at a time preceding a current time by a given time based on the first contact coordinate and the acquisition time corresponding to the first contact coordinate and control a display operation on the display with defining the second contact coordinate as a display coordinate.

Abstract: A projection display device according to the invention includes a separating unit that assigns X separation information for identifying a type of an image to each pixel by using a characteristic amount of the input image, a luminance detecting unit that detects a luminance of a screen, a first determining unit that determines a first target region indicating a region on which halftone processing of converting the number of gradations is performed on the input image by using the X separation information, and a halftone processing unit that executes the halftone processing that varies depending on the luminance on the first target region.

Abstract: An image projecting apparatus includes an image projecting unit configured to project received original image data on an image projection surface; an area identifying unit configured to identify an obstruction area in which different content is displayed as compared to a normal projection surface to be projected based on the original image data; and a layout modifying unit configured to modify a layout of an object included in the original image data that is projected, on the basis of the object and the obstruction area on the image projection surface.

Abstract: An image processing apparatus useable for correcting an image includes an input unit to receive an input of an image; an area dividing unit to divide the image, input to the input unit, into a plurality of areas having different lighting conditions; a computing unit to compute a correction coefficient for each of the divided areas divided by the area dividing unit; a movement detector to detect a movement between the first image and the second image supplied from the input unit along the time line; a boundary determination unit to determine a boundary between the areas to which correction coefficients of each of the areas are blended based on the movement detected by the movement detector; and a setting unit to set image correction coefficient data for the image input to the input unit based on the boundary between the areas determined by the boundary determination unit.

Abstract: An image conversion apparatus extracts from among pixel rows parallel to an object pixel row, a first pixel row overlapping an aperture shape; and further extracts a second pixel row having the number of pixels successively overlapping the aperture shape equal to or greater than that of the first pixel row. The image conversion apparatus calculates a value of a second pixel in the case of converting an original image, by referring to a storage unit that stores a value of a first pixel in the case of converting the original image. For example, the image conversion apparatus defines an average of the value of the first pixel in the case of converting the original image, a value of a diffusion source pixel (IN[5][2]), and a diffusion source pixel (IN[5][3]) as the value of the second pixel in the case of converting the original image.

Abstract: A mobile terminal device includes a display unit that includes a display area in which an image indicating an operation unit is displayed, a detecting unit that detects a touch operation performed on the display unit, and a control unit that changes the image indicating the operation unit displayed on the display unit according to a trajectory of the touch operation detected by the detecting unit.

Abstract: A mobile terminal device, method, and program that displays, on a display unit, an image indicating an operation unit corresponding to a physical operation unit and used to navigate in place of the physical operation unit, detects a touch operation performed on the display unit, and changes the image indicating the operation unit according to a trajectory of the touch operation.

Abstract: A display device includes: an input controller configured to detect a first contact coordinate input by a drag operation on a touch panel on a surface of a display and record the first contact coordinate in a memory in association with an acquisition time of the first contact coordinate; and a display controller configured to calculate a second contact coordinate at a time preceding a current time by a given time based on the first contact coordinate and the acquisition time corresponding to the first contact coordinate and control a display operation on the display with defining the second contact coordinate as a display coordinate.

Abstract: A projection display device according to the invention includes a separating unit that assigns X separation information for identifying a type of an image to each pixel by using a characteristic amount of the input image, a luminance detecting unit that detects a luminance of a screen, a first determining unit that determines a first target region indicating a region on which halftone processing of converting the number of gradations is performed on the input image by using the X separation information, and a halftone processing unit that executes the halftone processing that varies depending on the luminance on the first target region.

Abstract: An image projecting apparatus includes an image projecting unit configured to project received original image data on an image projection surface; an area identifying unit configured to identify an obstruction area in which different content is displayed as compared to a normal projection surface to be projected based on the original image data; and a layout modifying unit configured to modify a layout of an object included in the original image data that is projected, on the basis of the object and the obstruction area on the image projection surface.