Abstract: When an image of a marker existing in a real space is taken by using an outer camera, an image of a plurality of virtual characters which is taken by a virtual camera is displayed on an upper LCD so as to be superimposed on a taken real image of the real space. The virtual characters are located in a marker coordinate system based on the marker, and when a button operation is performed by a user on a game apparatus, the position and the orientation of each virtual character are changed. Then, when a button operation indicating a photographing instruction is provided by the user, an image being displayed is stored in a storage means.

Abstract: A game apparatus automatically receives piece information from another game apparatus by short-range wireless communication. The game apparatus obtains step count data based on an amount of movement of the game apparatus (i.e., a step count of a user of the game apparatus). The game apparatus uses piece information obtained by the short-range wireless communication, thereby performing a predetermined process of an application (i.e., a process of incorporating a piece image into a collection image), or uses step count data (i.e., an owned coin count resulting from conversion of the step count data) instead of piece information obtained by the short-range wireless communication, thereby performing the predetermined process of the application (i.e., the process of incorporating a piece image into a collection image).

Abstract: A normal AWB (auto white balance) correction value is calculated based on inputted image data. Further, a face area is identified from the inputted image data and a face AWB correction value is calculated based on image data in the face area. Then, first feature data and second feature data are extracted from the inputted image data and image data in the face area, respectively. A total AWB correction value is calculated in accordance with at least one of the face AWB correction value and the normal AWB correction value based on a comparison result of the first feature data and the second feature data. Thus, an erroneous correction can be prevented in an AWB correction using a face detection function.

Abstract: A normal AWB (auto white balance) correction value is calculated based on inputted image data. Further, a face area is identified from the inputted image data and a face AWB correction value is calculated based on image data in the face area. Then, first feature data and second feature data are extracted from the inputted image data and image data in the face area, respectively. A total AWB correction value is calculated in accordance with at least one of the face AWB correction value and the normal AWB correction value based on a comparison result of the first feature data and the second feature data. Thus, an erroneous correction can be prevented in an AWB correction using a face detection function.

Abstract: Two photography operations are performed without emitting flash during a second photography operation, to obtain image signals P1 and P2. A flash influence signal value F1 is calculated in image signal P1. A flash influence signal value F2, which is the amount of influence due to flash in the case that flash was emitted during the second photography operation, is calculated based on the differences between the imaging conditions of the first photography operation and the second photography operation and the flash influence signal value F1. An image signal P2?, which is an image signal which is estimated to be obtained in the case that flash was emitted during the second photography operation, is obtained by adding flash influence signal value F2 to image signal P2 obtained by the second photography operation. A dynamic range expanded image signal Pc is calculated based on image signal P1 and image signal P2?.

Abstract: The present invention provides a white balance correcting method and image-pickup apparatus which are able to perform white balance correction on a main subject even if mixed light of flash light and ambient light is radiated on the main subject, as the method and the apparatus are adapted to correctly predict the amount of flash reached, which is the amount of light reached a main subject in the main emission, for performing white balance correction according to the predicted amount of light reached.

Abstract: An air-conditioning system of an electric car has an air-conditioning unit which is configured to perform air-conditioning in a passenger compartment by heater/cooler operation, a setting panel configured to set a target temperature of the passenger compartment, and a control unit which is connected to the air-conditioning unit and setting panel, and has different control of heater operation of the air-conditioning unit, wherein the control unit is configured to select controls of heater operation based on a vehicle speed v.

Abstract: Two photography operations are performed without emitting flash during a second photography operation, to obtain image signals P1 and P2. A flash influence signal value F1 is calculated in image signal P1. A flash influence signal value F2, which is the amount of influence due to flash in the case that flash was emitted during the second photography operation, is calculated based on the differences between the imaging conditions of the first photography operation and the second photography operation and the flash influence signal value F1. An image signal P2?, which is an image signal which is estimated to be obtained in the case that flash was emitted during the second photography operation, is obtained by adding flash influence signal value F2 to image signal P2 obtained by the second photography operation. A dynamic range expanded image signal Pc is calculated based on image signal P1 and image signal P2?.

Abstract: According to the method and apparatus of the present invention, when a non-flash image that is taken without a flash emitted before main photographing and a flash image that is taken with the flash pre-emitted before the main photographing are obtained so that an amount of flash emission light for the main photographing (amount of main emission) based on the obtained non-flash image and flash image, a moving body in the angle of view is detected. If the detected moving body is a main object, the amount of main emission is calculated based on the image of the moving body. If the detected moving body is not the main object, the amount of main emission is calculated based on the image other than the moving body.

Abstract: The plasma display panel of the present invention is a PDP in consideration of environmental problem, capable of achieving a high reliability in high definition display, and further advanced in yield and productivity. The plasma display panel of the present invention is a plasma display panel manufactured by disposing a pair of substrates face to face having a dielectric layer at least at one side, and sealing the surrounding with a sealing member, in which the expansion coefficient of the pair of substrates is 60×10?7 to 75×10?7/° C., and the expansion coefficient of the sealing member is 45×10?7 to 63×10?7/° C.

Abstract: A normal AWB (auto white balance) correction value is calculated based on inputted image data. Further, a face area is identified from the inputted image data and a face AWB correction value is calculated based on image data in the face area. Then, first feature data and second feature data are extracted from the inputted image data and image data in the face area, respectively. A total AWB correction value is calculated in accordance with at least one of the face AWB correction value and the normal AWB correction value based on a comparison result of the first feature data and the second feature data. Thus, an erroneous correction can be prevented in an AWB correction using a face detection function.

Abstract: The present invention provides a white balance correcting method and image-pickup apparatus which are able to perform white balance correction on a main subject even if mixed light of flash light and ambient light is radiated on the main subject, as the method and the apparatus are adapted to correctly predict the amount of flash reached, which is the amount of light reached a main subject in the main emission, for performing white balance correction according to the predicted amount of light reached.

Abstract: An electrode plate, a method of manufacturing the same, a gas discharge panel using an electrode plate, and a method of manufacturing the same are provided by incorporating a relatively simple structure, which can keep electrodes formed on a plate from peeling or becoming misaligned. In the electrode plate, at least one electrode is formed and adhered to a main surface of a plate by a thick film or thin film formation method, wherein of all ends of the electrode, at least an end opposite to an end at a power supply point is adhered to the main surface of the plate with stronger adhesion than the other parts of the electrode.

Abstract: It is aimed to provide a technique for easily suppressing swellings produced in end parts of partitions, thereby achieving a PDP capable of displaying a high-quality image. A PDP therefore has a plurality of partitions that include: (a) a plurality of main parts; and (b) a plurality of sub parts that each extend from an end part of one of the plurality of main parts parallel to a direction perpendicular to a direction in which the main parts extend. This allows each partition to have an end that is wider than a center part of the partition. In the process of forming PDP partitions, end parts of the partitions are partially heated, after they are baked, to a temperature higher than a softening point of a partition material. As a specific partial heating method, a method with which a laser beam is projected onto an end part is suitable.

Abstract: A method of manufacturing at least two layer electrodes that can be utilized, for example, as bus and data electrodes in a plasma display device, includes depositing each layer in a coating step and subsequently exposing the layers at the same time for development. The layers are subsequently baked at the same time. One layer can be thinner than the other layer during a time period between the developing step and the baking step.

Abstract: A manufacturing method for a metal electrode used for a bus electrode, a data electrode, and the like which make up a display panel including a PDP (Plasma Display Panel) by which, when these electrodes are patterned according to a photolithographic method, the edge curl phenomenon can be substantially controlled to the extent that the phenomenon is negligible. The manufacturing method of the invention therefore includes a dry step for drying the layers making up the metal electrode so that flows (F1, F2, and F3) of the solvent occur from a region having a high absorbency of the solvent to a region having a lower absorbency of the solvent.

Abstract: To provide a technique for relatively easily preventing yellowing of a PDP that uses silver electrodes, and a PDP utilizing the technique that is capable of displaying images with high luminance and high quality. To form the electrodes, an alloy composed of Ag as a main constituent and a transition metal (at least one selected from Cu, Cr, Co, Ni, Mn, and Fe) is used, or an oxide of such a transition metal is added. Alternatively, an alloy composed of Ag as a main constituent and a metal (at least one selected from Ru, Rh, Ir, Os, and Re) is used, or an oxide of such a metal is added. Alternatively, Ag particles whose surfaces are each coated with a metal (Pd, Cu, Cr, Ni, Ir, or Ru) or a metal oxide (SiO2, Al2O3, NiO, ZrO2, Fe2O3, ZnO, In2O3, CuO, TiO2, or Pr6O11) are used.

Abstract: An object of the present invention is to provide a method for manufacturing electrodes that can effectively suppress edge-curl when metal electrodes such as bus electrodes and data electrodes are patterned mainly by a photolithography method. In order to achieve the above object, in the manufacturing method in the present invention, an amount of undercut generated by difference in a degree of dissolution caused by developing solution is controlled, and baking is performed at a temperature such that glass in a protrusion formed at side edges becomes soft so as to touch a substrate by gravity. With such method for manufacturing, it becomes possible to make the side edges rounded whose curvature changes continuously.

Abstract: A plasma display device having a front substrate and a rear substrate is provided. The front substrate is constituted from a transparent first insulating substrate, and a plurality of stripe-shaped first electrodes including at least one discharge electrode and extending parallel to each other. The rear substrate is constituted from a second insulating substrate, a plurality of second electrodes extending parallel to each other, and a plurality of ribs forming a plurality of discharge spaces therebetween. The discharge electrode includes a transparent electrode, a black-colored first conductive layer, and a second conductive layer. The second conductive layer has a lower resistivity than the first conductive layer and is made with widths smaller than those of the first conductive layer and extends to the edge of the first insulating substrate.

Abstract: A manufacturing method for a metal electrode used for a bus electrode, a data electrode, and the like which make up a display panel including a PDP (Plasma Display Panel) by which, when these electrodes are patterned according to a photolithographic method, the edge curl phenomenon can be substantially controlled to the extent that the phenomenon is negligible. The manufacturing method of the invention therefore includes a dry step for drying the layers making up the metal electrode so that flows (F1, F2, and F3) of the solvent occur from a region having a high absorbency of the solvent to a region having a lower absorbency of the solvent.