Abstract: Image processing device comprises a maximum luminance setting unit that associates a maximum luminance value included in a corresponding area of a luminance image with each of a plurality of areas obtained by classifying a display area of a second liquid crystal panel into multiple areas to include an overlapping area overlapping a plurality of first pixels of a first liquid crystal panel for one pixel, an order setting unit that sets the order of the plurality of areas in descending order of maximum luminance values, and a transmittance setting unit that sets the transmittance of the pixel of interest based on the maximum luminance value are provided. The transmittance setting unit sets the transmittance of the pixel of interest based on a transmittance coefficient indicating a proportion at which each of the plurality of first pixels overlapping the overlapping area influences the overlapping area with transmitted light.

Abstract: A display device includes: a first liquid crystal panel; a second liquid crystal panel disposed on a back face of the first liquid crystal panel; and a controller, wherein the controller determines, based on a maximum value of a target pixel value of the display device and a surrounding pixel value of the display device and a minimum value of the target pixel value and the surrounding pixel value, a value of a gray scale of a target pixel of the second liquid crystal panel with reference to at least one of a plurality of conversion characteristics indicating characteristics different from each other as characteristics configured to convert the target pixel value into the value of the gray scale of the target pixel of the second liquid crystal panel.

Abstract: Image processing device comprises a maximum luminance setting unit that associates a maximum luminance value included in a corresponding area of a luminance image with each of a plurality of areas obtained by classifying a display area of a second liquid crystal panel into multiple areas to include an overlapping area overlapping a plurality of first pixels of a first liquid crystal panel for one pixel, an order setting unit that sets the order of the plurality of areas in descending order of maximum luminance values, and a transmittance setting unit that sets the transmittance of the pixel of interest based on the maximum luminance value are provided. The transmittance setting unit sets the transmittance of the pixel of interest based on a transmittance coefficient indicating a proportion at which each of the plurality of first pixels overlapping the overlapping area influences the overlapping area with transmitted light.

Abstract: A display device includes a first liquid crystal panel, a second liquid crystal panel disposed on a back face side of the first liquid crystal panel, a position compensation unit that compensates for a display position of an image on the second liquid crystal panel based on position compensation information indicating a relative positional relationship between the first liquid crystal panel and the second liquid crystal panel, and an area expansion unit that expands a displayable area of the image before the display position is compensated for or a displayable area of the image after the display position is compensated for by the position compensation unit.

Abstract: The display device includes a first liquid crystal panel that displays a first image, a second liquid crystal panel that faces a rear surface of the first liquid crystal panel and displays a second image synchronized with the first image, and an image enlargement processing unit configured to generate the second image to be displayed on the second liquid crystal panel by enlargement from a predetermined enlargement center position toward at least one end portion of the second liquid crystal panel.

Abstract: A display device includes: a first liquid crystal panel; a second liquid crystal panel disposed on a back face of the first liquid crystal panel; and a controller, wherein the controller determines, based on a maximum value of a target pixel value of the display device and a surrounding pixel value of the display device and a minimum value of the target pixel value and the surrounding pixel value, a value of a gray scale of a target pixel of the second liquid crystal panel with reference to at least one of a plurality of conversion characteristics indicating characteristics different from each other as characteristics configured to convert the target pixel value into the value of the gray scale of the target pixel of the second liquid crystal panel.

Abstract: A display device includes a first liquid crystal panel, a second liquid crystal panel disposed on a back face side of the first liquid crystal panel, a position compensation unit that compensates for a display position of an image on the second liquid crystal panel based on position compensation information indicating a relative positional relationship between the first liquid crystal panel and the second liquid crystal panel, and an area expansion unit that expands a displayable area of the image before the display position is compensated for or a displayable area of the image after the display position is compensated for by the position compensation unit.

Abstract: An image processing device in a display device including a first liquid crystal panel configured to display a first image and a second liquid crystal panel disposed on a back surface of the first liquid crystal panel and configured to display a second image, includes: a first image generation unit configured to generate the first image from an input image in which a fourth image is overlapped on a third image, a first region included in the first image forming the fourth image; a second image generation unit configured to generate the second image from the input image, a second region included in the second image forming the fourth image; and an adjustment unit configured to reduce a luminance in the second region, with an amount of reduction of the luminance in the second region being larger than an amount of reduction of a luminance in the first region.

Abstract: A network system includes: at least one network device; and a control apparatus, wherein the control apparatus receives information about a start point and an end point both selected by a user via a user interface, and transmits to the at least one network device setting information for establishing a virtual private network that connects the start point and the end point.

Abstract: A video processing device processing input videos, includes a video processing unit that processes the input videos; and a control unit that sets a control value for controlling the video processing unit, wherein an entire input video is constituted by combining the input videos, and among partial areas associated with the respective input videos constituting the entire input video, one of the partial areas is defined as a first partial area, and another of the partial areas adjacent to, the first partial area is defined as a second partial area, and when processing which is performed, by referring to a pixel value in one of the first partial area and the second partial area, on another of the first partial area and the second partial area, is defined as adjacent boundary processing, the video processing unit performs the adjacent boundary processing on the entire input video, and generates processed videos.

Abstract: A video processing device processing input videos, includes a video processing unit that processes the input videos; and a control unit that sets a control value for controlling the video processing unit, wherein an entire input video is constituted by combining the input videos, and among partial areas associated with the respective input videos constituting the entire input video, one of the partial areas is defined as a first partial area, and another of the partial areas adjacent to, the first partial area is defined as a second partial area, and when processing which is performed, by referring to a pixel value in one of the first partial area and the second partial area, on another of the first partial area and the second partial area, is defined as adjacent boundary processing, the video processing unit performs the adjacent boundary processing on the entire input video, and generates processed videos.

Abstract: A configuration of an image processing apparatus is simplified. In a display apparatus, a first sub input image and a second sub input image are input to a first back-end processor, and a first residual input image and a second residual input image are input to a second back-end processor. A first entire input image is constituted by combining the first sub input image and the first input image. In a case where the display apparatus processes the first entire input image, the first back-end processor processes the first sub input image, and the second back-end processor processes the first residual input image.

Abstract: An oxide superconductor includes: a substrate made of a metal; an insulating intermediate layer provided on the substrate; an oxide superconducting layer provided on the intermediate layer; a metal stabilizing layer provided on the oxide superconducting layer; and a plurality of dividing grooves which divide the metal stabilizing layer and the oxide superconducting layer along a longitudinal direction of the substrate, reach the inside of the intermediate layer through the oxide superconducting layer from the metal stabilizing layer, and do not reach the substrate. The metal stabilizing layer and the oxide superconducting layer are divided to form a plurality of filament conductors by the plurality of dividing grooves, and in each dividing groove of the plurality of dividing grooves, a width of a groove opening portion of the dividing groove is equal to or greater than a width of a groove bottom portion of the dividing groove.

Abstract: A coordinate processing unit (23) defines, from a coordinate value of a touched position acquired by a sensor unit (21) and a display mode, a video corresponding to the touched position, and converts the coordinate value into a coordinate value in the defined video, and the coordinate value converted by the coordinate processing unit (23) is transmitted to PC(0) to (2) serving as a supply source of the defined video.

Abstract: An oxide superconductor includes: a substrate made of a metal; an insulating intermediate layer provided on the substrate; an oxide superconducting layer provided on the intermediate layer; a metal stabilizing layer provided on the oxide superconducting layer; and a plurality of dividing grooves which divide the metal stabilizing layer and the oxide superconducting layer along a longitudinal direction of the substrate, reach the inside of the intermediate layer through the oxide superconducting layer from the metal stabilizing layer, and do not reach the substrate. The metal stabilizing layer and the oxide superconducting layer are divided to form a plurality of filament conductors by the plurality of dividing grooves, and in each dividing groove of the plurality of dividing grooves, a width of a groove opening portion of the dividing groove is equal to or greater than a width of a groove bottom portion of the dividing groove.

Abstract: Provided is an oxide superconductor composition that makes it possible to increase film thickness, increase production speed, and decrease costs when producing a REBaCuO-type oxide superconductor wire (wherein RE is at least one element selected from the group consisting of Y, Nd, Sm, Gd, Dy, Eu, Er, Yb, Pr, and Ho). The oxide superconductor comprises, as essential components thereof, an RE salt of a carboxylic acid that serves as an RE component, that does not contain a ketone group, and that has 3-8 carbon atoms, barium trifluoroacetate that serves as a Ba component, one or more copper salts that serve as a Cu component and that are selected from the group consisting of copper salts of branched saturated aliphatic carboxylic acids having 6-16 carbon atoms and copper salts of alicyclic carboxylic acids having 6-16 carbon atoms, and an organic solvent that dissolves the aforementioned metal salt components.

Abstract: A coordinate processing unit (23) defines, from a coordinate value of a touched position acquired by a sensor unit (21) and a display mode, a video corresponding to the touched position, and converts the coordinate value into a coordinate value in the defined video, and the coordinate value converted by the coordinate processing unit (23) is transmitted to PC(0) to (2) serving as a supply source of the defined video.

Abstract: A three-dimensional image display apparatus polarizes light to be emitted from a first pixels into light having a first polarization characteristic and polarizes light to be emitted from second pixels into light having a second polarization characteristic. The three-dimensional image display apparatus, sets luminance of at least one of luminance of a left-eye image or luminance of a right-eye image such that the luminance of a predefined first image of the left-eye image or the right-eye image is higher than the luminance of a second image of the images. The three-dimensional image display apparatus causes the first pixels to render the first image at the set luminance on a screen and causes the second pixels to render the second image at the set luminance on the screen.

Abstract: An image display device (2) controls a backlight luminance on the basis of a plurality of areas corresponding to LEDs, which are defined by dividing an input image. To cause sides of each subscreen to coincide with sides of its corresponding area, a subscreen control section (10) included in the image display device (2) changes positions and sizes of subscreen input images Dv1 to Dv3 included in a multiscreen input image Dv, the positions and the sizes being determined by subscreen setting data Ds, which is setting information. As a result, the number of areas corresponding to each subscreen is reduced, so that the number of LEDs to be lit up is reduced without causing display failures, thereby achieving low power consumption.

Abstract: Pixels belong to any of a plurality of pixel groups. The pixel groups each include first pixels and second pixels. A three-dimensional image display apparatus polarizes light to be emitted from the first pixels into light having a first polarization characteristic and polarizes light to be emitted from the second pixels into light having a second polarization characteristic. The three-dimensional image display apparatus, sets luminance of at least one of luminance of a left-eye image or luminance of a right-eye image such that the luminance of a predefined first image of the left-eye image or the right-eye image is higher than the luminance of a second image of the images. The three-dimensional image display apparatus causes the first pixels to render the first image at the set luminance on a screen and causes the second pixels to render the second image at the set luminance on the screen.