Abstract: In a power control device for a vehicle in which an electric motor for driving the vehicle to travel is supplied with power from a battery mounted on the vehicle and a fuel cell, a control unit sets a target charging rate (SOCt) of the battery in such a manner that the target charging rate decreases as a remaining fuel amount (Qf) of the fuel cell decreases after the power generation of the fuel cell is started during high-output/high-speed travelling and controls a power generation output (Pf) of the fuel cell based on a difference between the target charging rate (SOCt) and a current charging rate (SOC).

Abstract: Provided is a video encoding/decoding technique for improving the compression efficiency by reducing the motion vector code amount. In a video decoding process, the prediction vector calculation method is switched from one to another in accordance with a difference between predetermined motion vectors among a plurality of motion vectors of a peripheral block of a block to be decoded and already decoded. The calculated prediction vector is added to a difference vector decoded from an encoded stream so as to calculate a motion vector. By using the calculated motion vector, the inter-image prediction process is executed.

Abstract: High-quality video is provided using a small amount of coded bits. The moving picture decoding method performs inter-frame prediction processing. With the aforementioned inter-frame prediction processing, blocks with similar motion vectors from among the motion vectors in multiple blocks that have already been decoded are combined and a combined area is computed. A predicted vector for a target block to be decoded is computed using the motion vector of the aforementioned combined area, and a motion vector for the aforementioned target block is computed based on the aforementioned predicted vector and a difference vector which is included in a coded stream that is input. A predicted image is generated using the aforementioned motion vector, and a difference image which is included in the aforementioned coded stream and the aforementioned predicted image are added to generate a decoded image.

Abstract: An imaging device includes an imaging unit, a sensor, and a controller. The imaging unit sequentially outputs a digital image by capturing a subject. The sensor includes a photoelectric element for receiving a part of luminous flux from the subject incident on the imaging unit. The sensor detects an AC current component of the luminous flux from the luminous flux received by the photoelectric element. The controller detects a flicker cycle in the luminous flux from the AC current component.

Abstract: Players are allowed to urge them to cooperate with each other.

Abstract: An imaging device that is capable of having a fisheye lens attached to a main body, and that is capable of shooting digital images, comprising, an image sensor on which photometric domains and/or AF region are arranged, a lens communication circuit that performs communication with a lens that has been attached and acquires lens information, and a processor that detects whether or not a lens that has been attached is a circular fisheye lens based on the lens information, and, if it has been determined that the lens is a circular fisheye lens, restricts the photometric domains and/or AF regions based on an image circle of the circular fisheye lens.

Abstract: High-quality video is provided using a small amount of coded bits. The moving picture decoding method performs inter-frame prediction processing. With the aforementioned inter-frame prediction processing, blocks with similar motion vectors from among the motion vectors in multiple blocks that have already been decoded are combined and a combined area is computed. A predicted vector for a target block to be decoded is computed using the motion vector of the aforementioned combined area, and a motion vector for the aforementioned target block is computed based on the aforementioned predicted vector and a difference vector which is included in a coded stream that is input. A predicted image is generated using the aforementioned motion vector, and a difference image which is included in the aforementioned coded stream and the aforementioned predicted image are added to generate a decoded image.

Abstract: An imaging device includes an imaging unit, a controller, and a display. The controller changes a shutter speed series to any one of a first shutter speed series and a second shutter speed series. The controller controls an exposure time of the imaging unit according to the first shutter speed series or the second shutter speed series. The controller changes a live view display mode to any of a first live view display mode and a second live view display mode. The first live view display mode has at least an enlarged live view display mode and a normal magnification live view mode. The enlarged live view display mode is a mode in which a part of the digital image is cut out to be displayed at an enlargement magnification substantially equal to or more than a pixel equal magnification.

Abstract: A video game processing apparatus for controlling progress of a video game including a turn-based battle against an enemy character by displaying a player character on a display screen of a display device includes a profile information storage section for storing summon admissibility information in which a battle command used in the turn-based battle is associated with other player character that carries out an action corresponding to the battle command; receives the summon admissibility information from other video game processing apparatus in which the other player character is used as a main character; receives a summoning request indicating a usage request of the summon admissibility information in the turn-based battle; determines summon admissibility information to be used in a case where the summoning request is received; and summons the other player character indicated by the determined summon admissibility information to be caused to carry out the action.

Abstract: An instrument executes: generating pieces of setting information for assigning operation functions to respective operating units; assigning the operation functions to the respective operating units based on first one of the pieces of setting information; setting one of the operating units as a setting operating unit to which an operation function for switching the first one of the pieces of setting information to second one of the pieces of the setting information assigned to the setting operating unit is assigned; changing, upon a first operation of the setting operating unit, the operation functions of the operating units based on the second one of the setting information and inhibiting a change in the operation function assigned to the setting operating unit; and returning, upon a second operation of the setting operating unit after the first operation, the operation functions of the operating units to those assigned before the first operation.

Abstract: An imaging device includes: an imaging unit configured to image a subject and generate image data; a display configured to display information including an image corresponding to the image data; a first recording slot mounting a first recording medium for recording the image data; a second recording slot mounting a second recording medium for recording the image data; a recording controller configured to set a recording mode between: an automatic switching mode in which recording of the image data is performed by repeatedly switching between the first and the second recording media in a predetermined order; and a simultaneous recording mode in which recording of the image data to the first and the second recording media is simultaneously performed; and a display controller configured to display setting mode information relating to the recording mode set by the recording controller in a different display mode for each recording mode.

Abstract: An imaging apparatus includes: an imaging unit configured to continuously image a subject and generate moving image data of the subject; a display unit configured to display a moving image corresponding to the moving image data; a shooting controller configured to control the imaging unit to continuously image the subject in a moving image mode capable of connecting different pieces of the moving image data having different shooting time-points; a thumbnail generation unit configured to generate resized image data by performing resize processing of reducing a size of image data of at least one frame constituting the moving image data, and generate a thumbnail by combining a resized image corresponding to the resized image data with a template having a display area displaying information indicating that a different piece of the moving image data may be connected; and a display controller configured to display the thumbnail.

Abstract: Provided is a video encoding/decoding technique for improving the compression efficiency by reducing the motion vector code amount. In a video decoding process, the prediction vector calculation method is switched from one to another in accordance with a difference between predetermined motion vectors among a plurality of motion vectors of a peripheral block of a block to be decoded and already decoded. The calculated prediction vector is added to a difference vector decoded from an encoded stream so as to calculate a motion vector. By using the calculated motion vector, the inter-image prediction process is executed.

Abstract: Provided is a video encoding/decoding technique for improving the compression efficiency by reducing the motion vector code amount. In a video decoding process, the prediction vector calculation method is switched from one to another in accordance with a difference between predetermined motion vectors among a plurality of motion vectors of a peripheral block of a block to be decoded and already decoded. The calculated prediction vector is added to a difference vector decoded from an encoded stream so as to calculate a motion vector. By using the calculated motion vector, the inter-image prediction process is executed.

Abstract: The present invention provides a compound having a CaMKII inhibitory action, which is expected to be useful as an agent for the prophylaxis or treatment of cardiac diseases (particularly catecholaminergic polymorphic ventricular tachycardia, postoperative atrial fibrillation, heart failure, fatal arrhythmia) and the like. The present invention relates to a compound represented by the formula (I): wherein each symbol is as defined in the specification, or a salt thereof.

Abstract: An image forming apparatus includes at least a load unit, a driving unit that drives the load unit, and a controller that controls the driving unit. The controller determines that at least one of the load unit and the driving unit malfunctions if a velocity change time period that the driving unit has taken to reach a second velocity from a first velocity is off a predetermined threshold value.

Abstract: High-quality video is provided using a small amount of coded bits. The moving picture decoding method performs inter-frame prediction processing. With the aforementioned inter-frame prediction processing, blocks with similar motion vectors from among the motion vectors in multiple blocks that have already been decoded are combined and a combined area is computed. A predicted vector for a target block to be decoded is computed using the motion vector of the aforementioned combined area, and a motion vector for the aforementioned target block is computed based on the aforementioned predicted vector and a difference vector which is included in a coded stream that is input. A predicted image is generated using the aforementioned motion vector, and a difference image which is included in the aforementioned coded stream and the aforementioned predicted image are added to generate a decoded image.

Abstract: Disclosed are compounds of Formula 1, and pharmaceutically acceptable salts thereof, wherein G, L1, L2, R1, R2, R3, and R4 are defined in the specification. This disclosure also relates to materials and methods for preparing compounds of Formula 1, pharmaceutical compositions containing them, and their use for treating disorders, diseases, and conditions involving the immune system and inflammation, including rheumatoid arthritis, hematological malignancies, epithelial cancers (i.e., carcinomas), and other disorders, diseases, and conditions for which inhibition of SYK is indicated.

Abstract: Provided is a video encoding/decoding technique for improving the compression efficiency by reducing the motion vector code amount. In a video decoding process, the prediction vector calculation method is switched from one to another in accordance with a difference between predetermined motion vectors among a plurality of motion vectors of a peripheral block of a block to be decoded and already decoded. The calculated prediction vector is added to a difference vector decoded from an encoded stream so as to calculate a motion vector. By using the calculated motion vector, the inter-image prediction process is executed.

Abstract: High-quality video is provided using a small amount of coded bits. The moving picture decoding method performs inter-frame prediction processing. With the aforementioned inter-frame prediction processing, blocks with similar motion vectors from among the motion vectors in multiple blocks that have already been decoded are combined and a combined area is computed. A predicted vector for a target block to be decoded is computed using the motion vector of the aforementioned combined area, and a motion vector for the aforementioned target block is computed based on the aforementioned predicted vector and a difference vector which is included in a coded stream that is input. A predicted image is generated using the aforementioned motion vector, and a difference image which is included in the aforementioned coded stream and the aforementioned predicted image are added to generate a decoded image.