Abstract: A vehicle information communication system includes a vehicle device and a center device. The center device includes a storage unit, a center computer, and a center-device communication unit. The storage unit stores memory structure information for each of the ECUs. The memory structure information indicates whether a corresponding memory has a memory structure that supports Read While Write (RWW) operation defined as having a plurality of physically independent memory regions. The center computer is programmed to generate specification data including the memory structure information for each of the at least one target ECUs. The vehicle device includes a vehicle computer. The vehicle computer is programmed to perform the program data rewrites of the at least one target ECU according to the memory structure information included in the specification data.

Abstract: Object: To provide a monomer that is useful in forming a photoresist resin that has excellent swelling resistance. Resolution Means: A photoresist resin containing a polymerization unit represented by Formula (Y), where RX denotes a halogen atom or an alkyl group having from 1 to 6 carbon atoms substituted with a halogen atom; A1 denotes a single bond or a linking group, and when A1 denotes a linking group, A1 and RX1 may be bonded to each other to form a ring; RX1 denotes a hydrogen atom, an alkyl group having from 1 to 6 carbon atoms, or an alkenyl group having from 2 to 6 carbon atoms; n denotes an integer from 0 to 5, and when n is 2 or greater, the multiple RX1 may be the same or different and may be bonded to each other to form a ring; and m denotes an integer from 1 to 4.

Abstract: A vehicle information communication system including a center apparatus and a vehicle apparatus is provided. The vehicle apparatus is mounted in a vehicle and includes electronic control units (ECUs) each associated with a respective ECU software identifier (SWID). The vehicle apparatus send the ECU SWIDs of the ECUs to the center apparatus via the wireless communications. When all of the ECU SWIDs received from the vehicle apparatus are included in any one of approved ECU SWID combinations and software update data exists for at least one of the ECUs, the center apparatus sends the software update data to the vehicle apparatus via the wireless communications. The vehicle apparatus performs ECU software update based on the software update data sent from the center apparatus.

Abstract: A vehicle information communication system including a center apparatus and a vehicle apparatus is provided. The vehicle apparatus is mounted in a vehicle and includes electronic control units (ECUs) each associated with a respective ECU software identifier (SWID). The vehicle apparatus send the ECU SWIDs of the ECUs to the center apparatus via the wireless communications. When all of the ECU SWIDs received from the vehicle apparatus are included in any one of approved ECU SWID combinations and software update data exists for at least one of the ECUs, the center apparatus sends the software update data to the vehicle apparatus via the wireless communications. The vehicle apparatus performs ECU software update based on the software update data sent from the center apparatus.

Abstract: A vehicle information communication system includes a vehicle device and a center device. The center device includes a storage unit, a center computer, and a center-device communication unit. The storage unit stores memory structure information for each of the ECUs. The memory structure information indicates whether a corresponding memory has a memory structure that supports Read While Write (RWW) operation defined as having a plurality of physically independent memory regions. The center computer is programed to generate specification data including the memory structure information for each of the at least one target ECUs. The vehicle device includes a vehicle computer. The vehicle computer is programmed to perform the program data rewrites of the at least one target ECU according to the memory structure information included in the specification data.

Abstract: A data overwriting device includes an overwriting unit that overwrites a part of data stored in a memory, the part in which a difference is generated; a first writing unit that writes first information in a first storage unit when a data overwriting process is completed by the overwriting unit; a second writing unit that writes second information in a second storage unit when confirming that the part of the data overwritten by the overwriting unit includes no error; and a deleting unit that clears the first storage unit storing the first information and the second storage unit storing the second information before the overwriting unit starts executing the data overwriting process.

Abstract: A log information generation apparatus includes: a process information generation unit which generates first identification information for temporally and spatially uniquely identifying a process that is an execution subject of an application program at a start of a process behavior constituted by a series of events of the process, in a space of a system including a plurality of computers, and which generates process information including the first identification information; an event information generation unit which generates event type information indicating an event type for each of the events and which generates event information including the event type information; and a log information generation unit which generates, for each of the events, log information including the process information generated by the process information generation unit and the event information generated by the event information generation unit.

Abstract: A vehicle system includes: a reprogramming slave device that is an electronic control unit (hereinafter, referred to as ECU) to be a target of updating an update file of a program stored among a plurality of the ECUs; a reprogramming master device that transmits the update file to the reprogramming slave device in response to a request from a terminal operable by a vehicle user to control updating of the program stored in the reprogramming slave device; and a determination unit that determines traveling propriety of a vehicle when the update file is rewritten in the reprogramming slave device. The vehicle device functions as the reprogramming master device, and includes: an obtaining unit that obtains the traveling propriety determined by the determination unit; and a notification command unit that commands a notification medium to notify information of the traveling propriety obtained by the obtaining unit.

Abstract: A vehicle system includes: a reprogramming slave device implemented by an electronic control unit (hereinafter “ECU”) to be a target of updating an update file of a program stored among a plurality of the ECUs; a reprogramming master device that transmits the update file to the reprogramming slave device to control the update of the program stored in the reprogramming slave device according to a request from a terminal operable by a vehicle user; and a determination unit determines the progress of update processing on the update file. A vehicle device functions as the reprogramming master that includes: an obtaining unit for obtaining the progress determined by the determination unit; and a notification command unit for commanding a notification medium to notify the progress obtained by the obtaining unit.

Abstract: A log information generation apparatus includes: a process information generation unit which generates first identification information for temporally and spatially uniquely identifying a process that is an execution subject of an application program at a start of a process behavior constituted by a series of events of the process, in a space of a system including a plurality of computers, and which generates process information including the first identification information; an event information generation unit which generates event type information indicating an event type for each of the events and which generates event information including the event type information; and a log information generation unit which generates, for each of the events, log information including the process information generated by the process information generation unit and the event information generated by the event information generation unit.

Abstract: A log information generation apparatus includes: a process information generation unit which generates first identification information for temporally and spatially uniquely identifying a process that is an execution subject of an application program at a start of a process behavior constituted by a series of events of the process, in a space of a system including a plurality of computers, and which generates process information including the first identification information; an event information generation unit which generates event type information indicating an event type for each of the events and which generates event information including the event type information; and a log information generation unit which generates, for each of the events, log information including the process information generated by the process information generation unit and the event information generated by the event information generation unit.

Abstract: A log information generation apparatus includes: a process information generation unit which generates first identification information for temporally and spatially uniquely identifying a process that is an execution subject of an application program at a start of a process behavior constituted by a series of events of the process, in a space of a system including a plurality of computers, and which generates process information including the first identification information; an event information generation unit which generates event type information indicating an event type for each of the events and which generates event information including the event type information; and a log information generation unit which generates, for each of the events, log information including the process information generated by the process information generation unit and the event information generated by the event information generation unit.

Abstract: Provided is a method for easily and efficiently recovering an oxoacid catalyst without deterioration in reaction product yield and catalytic activity, where the oxoacid catalyst has been used in a reaction for oxidizing an organic compound with hydrogen peroxide, also provided is a method for producing an oxide in which an organic compound is oxidized with hydrogen peroxide using the oxoacid catalyst recovered by the method, to yield the corresponding oxide. A method according to the present invention recovers an oxoacid catalyst used in a reaction for oxidizing an organic compound with hydrogen peroxide in an aqueous/organic solvent two-phase system. The method includes Step 1 in which the pH in the reaction system is adjusted to 5.0 or higher so as to transfer the oxoacid catalyst to the aqueous phase, and the organic phase is removed.

Abstract: A receiver includes a local signal generator, a power phase adjuster, and a frequency converter so as to perform frequency conversion on signals included in a plurality of radio frequency bands. The local signal generator supplies a plurality of local signals. The power phase adjuster adjusts local signals in terms of signal power or relative phases. The frequency converter performs frequency conversion on radio frequency bands by use of local signals adjusted with the power phase adjuster, thus sorting them in a desired frequency range.

Abstract: A plurality of display areas are provided in a liquid crystal panel (display portion) and a plurality of illumination areas respectively allowing light from light-emitting diodes (light sources) to be incident upon the plurality of display areas are set in a backlight device (backlight portion). Further, light-emitting diodes of RGB (a plurality of colors) are provided per illumination area. In the light-emitting diodes of RGB, a reference point of start of lighting of the light-emitting diode to be switched on lastly in a frame period is set so as to coincide with a beginning point of a lighting period of the light-emitting diode, and a reference point of start of lighting of the light-emitting diode to be switched on firstly in the frame period is set so as to coincide with an end point of the lighting period of the light-emitting diode.

Abstract: A liquid crystal display device (1) includes a backlight device (backlight unit) (3) and a liquid crystal panel (display unit) (2) and displays information with one frame period divided into first to third subfield periods. The liquid crystal panel (2) displays information using illumination light from the backlight device (3). In the liquid crystal display device (1), a plurality of illumination areas are set that make light from light emitting diodes (light sources) (11) incident on a plurality of display areas, respectively. A local dimming calculation unit (6) is provided to, in each of the first to third subfield periods, calculate luminance values based on an input image signal on a per illumination area basis and on a per light emitting diode (11) basis, and calculate per-pixel transmittances based on determined luminance values.

Abstract: A receiver includes a local signal generator, a power phase adjuster, and a frequency converter so as to perform frequency conversion on signals included in a plurality of radio frequency bands. The local signal generator supplies a plurality of local signals. The power phase adjuster adjusts local signals in terms of signal power or relative phases. The frequency converter performs frequency conversion on radio frequency bands by use of local signals adjusted with the power phase adjuster, thus sorting them in a desired frequency range.

Abstract: A plurality of display areas are provided in a liquid crystal panel (display portion) and a plurality of illumination areas respectively allowing light from light-emitting diodes (light sources) to be incident upon the plurality of display areas are set in a backlight device (backlight portion). Further, light-emitting diodes of RGB (a plurality of colors) are provided per illumination area. In the light-emitting diodes of RGB, a reference point of start of lighting of the light-emitting diode to be switched on lastly in a frame period is set so as to coincide with a beginning point of a lighting period of the light-emitting diode, and a reference point of start of lighting of the light-emitting diode to be switched on firstly in the frame period is set so as to coincide with an end point of the lighting period of the light-emitting diode.

Abstract: A display device includes: an area active backlight; a backlight control section determining and controlling light intensity of each illumination area according to input data DF; and a sub-frame data generating section generating sub-frame data according to the determined light intensity. In at least one example embodiment, one frame is divided into first and second sub-frames, and the sub-frame data generating section generates first and second sub-frame data such that at one of adjacent pixels, display luminance during the first sub-frame is not higher than display luminance during the second and at the other, display luminance during the second sub-frame is not higher than display luminance during the first. Display is performed as a sum of these displays. This provides a display device capable of simultaneously achieving improvement in moving image quality, reduction in power consumption, and improvement in display quality due to reduction in flickers.

Abstract: A wideband low-noise amplifier of the present invention is designed such that an input terminal is connected to a base of a first transistor, one terminal of a first passive element, and one terminal of a third passive element; an emitter of the first transistor is grounded; a collector of the first transistor is connected to an output terminal, a base of a second transistor, one terminal of a capacitor, and one terminal of a second passive element; the other terminal of the first passive element is connected to the other terminal of the capacitor; an emitter of the second transistor is connected to the other terminal of the third passive element; and a power terminal is connected to a collector of the second transistor and the other terminal of the second passive element, wherein impedance of the third passive element is determined based on impedance of the first transistor whose emitter size is determined to suite desired saturation level of amplification, thus establishing input impedance matching.