Abstract: An RFID tag 300 with a boost antenna includes a boost antenna 100 and an RFID tag 200, wherein the boost antenna 100 includes: a radiation unit 10 which is conductive; a ground unit 30 which faces the radiation unit 10 and is conductive; and a short circuit unit 20 which connects one end of the radiation unit 10 and one end of the ground unit 30, and electrically connecting the radiation unit 10 and the ground unit 30 with each other, and wherein the RFID tag 200 is arranged at a position close to the short circuit unit 20 on the ground unit 30, wherein each of the boost antenna 100 and the RFID tag 200 has resonance characteristics.

Abstract: An electrified vehicle includes a motor, a clutch, a transmission, a rotational speed sensor configured to detect a rotational speed of the motor, and a control circuit configured to control the motor. The control circuit performs: a learning process of detecting a change in the rotational speed of the motor by the rotational speed sensor when the shift change is performed; and a control process of controlling the rotational speed of the motor based on the change in the rotational speed detected in the learning process, when the shift change is performed after the learning process.

Abstract: A module is used in a semiconductor composite device that supplies a direct-current voltage adjusted by a voltage regulator including a semiconductor active element to a load. The module includes a capacitor layer including at least one capacitor portion forming a capacitor, a connection terminal used for electrical connection with at least one of the voltage regulator and the load, and a through-hole conductor formed to penetrate the capacitor portion in a thickness direction of the capacitor layer. The capacitor is electrically connected to at least one of the load and the voltage regulator with the through-hole conductor interposed between the load and the voltage regulator.

Abstract: An RFID tag 300 with a boost antenna includes a boost antenna 100 and an RFID tag 200, wherein the boost antenna 100 includes: a radiation unit 10 which is conductive; a ground unit 30 which faces the radiation unit 10 and is conductive; and a short circuit unit 20 which connects one end of the radiation unit 10 and one end of the ground unit 30, and electrically connecting the radiation unit 10 and the ground unit 30 with each other, and wherein the RFID tag 200 is arranged at a position close to the short circuit unit 20 on the ground unit 30, wherein each of the boost antenna 100 and the RFID tag 200 has resonance characteristics.

Abstract: A vehicle control apparatus is configured to execute gear shifting in an automatic transmission, in accordance with at least one selected shifting line, which is selected from among at least one first shifting line and at least one second shifting line, depending on (i) acceleration representative information related to an acceleration representative value representing an acceleration of the vehicle required by an operator of the vehicle and (ii) location information related to a current location of the vehicle, wherein each of the at least one first shifting line is a shifting line stored in a storage device provided in the vehicle, and each of the at least second shifting line is a shifting line in which other-vehicle-related information is reflected. The other-vehicle-related information is information received from an external device located outside the vehicle, and related to other vehicle that is at least one vehicle other than the vehicle.

Abstract: A vehicle control apparatus is configured to execute gear shifting in an automatic transmission, in accordance with at least one selected shifting line, which is selected from among at least one first shifting line and at least one second shifting line, depending on (i) acceleration representative information related to an acceleration representative value representing an acceleration of the vehicle required by an operator of the vehicle and (ii) location information related to a current location of the vehicle, wherein each of the at least one first shifting line is a shifting line stored in a storage device provided in the vehicle, and each of the at least second shifting line is a shifting line in which other-vehicle-related information is reflected. The other-vehicle-related information is information received from an external device located outside the vehicle, and related to other vehicle that is at least one vehicle other than the vehicle.

Abstract: A reliable semiconductor light-emitting device can include a mounting board, at least one semiconductor light-emitting chip mounted on the mounting board, a wavelength converting layer having a side surface covering the light-emitting chip, and a seal member having an opening contacting the side surface of the wavelength converting layer and covering chip electrodes. The light-emitting device can also include a transparent layer disposed into the opening of the sealing member so as to be located over the light-emitting chip and within a top surface of the light-emitting chip, and can be configured to emit various mixture lights having a high uniformity by using lights emitted from the light-emitting chip and the wavelength converting layer. Thus, the disclosed subject matter can provide the reliable light-emitting device, which can emit the mixture lights including a substantially white color light from a small light-emitting surface as a light source for a headlight, etc.

Abstract: A reliable semiconductor light-emitting device can include a mounting board, at least one semiconductor light-emitting chip mounted on the mounting board, a wavelength converting layer having a side surface covering the light-emitting chip, and a seal member having an opening contacting the side surface of the wavelength converting layer and covering chip electrodes. The light-emitting device can also include a transparent layer disposed into the opening of the sealing member so as to be located over the light-emitting chip and within a top surface of the light-emitting chip, and can be configured to emit various mixture lights having a high uniformity by using lights emitted from the light-emitting chip and the wavelength converting layer. Thus, the disclosed subject matter can provide the reliable light-emitting device, which can emit the mixture lights including a substantially white color light from a small light-emitting surface as a light source for a headlight, etc.

Abstract: A light-emitting device having an LED element and a resin layer including a convex portion covering the LED element can suppress color unevenness to achieve light emission with uniform color distribution. The light-emitting device can include a substrate, an LED element mounted on the substrate, a resin layer which contains a wavelength conversion material and is formed on the substrate to cover the LED element, the resin layer including a convex portion directly covering the LED element and a flat thin film portion extending around the convex portion, and a reflective portion which is formed over the thin film portion around the convex portion. A diffusion portion can be formed to cover the convex portion of the resin layer.

Abstract: In the production of a light emitting device, in which a plurality of light emitting element parts carrying LED elements are formed on a substrate, and the substrate is diced, generation of shaving dusts is suppressed at the time of the dicing, and breakage of the substrate during the production process can be prevented. In the process of forming a slit crossing a region for forming a light emitting element part in a metal substrate, a recess which serves as a resin reservoir can be formed so as to cross the slit. The slit can be filled with an insulating material, the recess can be filled with a resin, and they both can be cured. A light emitting element part can be formed in the region for forming the light emitting element part, the metal substrate can be cut into units comprising one or a plurality of the light emitting element parts, and can be mounted on a printed circuit board on which a pattern is formed.

Abstract: A semiconductor light emitting device which has a wavelength converting part on a semiconductor film and can eliminate unevenness in emission color without a reduction in light output. The semiconductor film includes a light emitting layer. The support substrate is bonded to the semiconductor film via a light-reflecting layer and has a support surface supporting the semiconductor film and edges located further out than the side surfaces of the semiconductor film. The light-shielding part covers the side surfaces of the semiconductor film and part of the support surface around the semiconductor film in plan view. The wavelength converting part contains a fluorescent substance and is provided over the support substrate to bury the semiconductor film and the light-shielding part therein. The wavelength converting part has a curved surface shape in which its thickness increases when going from the edges toward the center of the semiconductor film.

Abstract: A metal plate is prepared, on which at least one joint slit made up of a joint and an opening is formed in a predetermined direction for integrating multiple mounting plates of the light emitting apparatuses. Multiple light emitting elements set in array are mounted on the metal plate. An aperture is provided at a position corresponding to a position for mounting the light emitting element on the metal plate, and a plate-like reflector made of resin, on which a first reflector splitting groove is formed at a position coinciding with the joint slit of the metal plate, is mounted and fixed on the metal plate in such a manner as superimposed thereon. The metal plate and the resinous reflector are superimposed one on another and broken together, whereby the metal plate can be split successfully.

Abstract: A metal plate is prepared, on which at least one joint slit made up of a joint and an opening is formed in a predetermined direction for integrating multiple mounting plates of the light emitting apparatuses. Multiple light emitting elements set in array are mounted on the metal plate. An aperture is provided at a position corresponding to a position for mounting the light emitting element on the metal plate, and a plate-like reflector made of resin, on which a first reflector splitting groove is formed at a position coinciding with the joint slit of the metal plate, is mounted and fixed on the metal plate in such a manner as superimposed thereon. The metal plate and the resinous reflector are superimposed one on another and broken together, whereby the metal plate can be split successfully.

Abstract: A light-emitting device that suppresses color unevenness can be provided. A transparent member can be disposed on a fluorescence-containing resin layer. Part of excitation light can be emitted upward from an edge surface of the fluorescence-containing resin layer directly and without passing through the transparent member. Thus, fluorescent light emitted in large quantities from a place near an edge surface of the transparent member can be mixed with the excitation light emitted from the edge surface of the fluorescence-containing resin layer directly without passing through the transparent member, thereby suppressing color unevenness at a location near the edge surface of the transparent member.

Abstract: An electric vehicle drive system in which an electric motor is accommodated within a motor chamber that is formed so as to be separated from a gear chamber by a partition within a case, and a transmission device that transmits power from the electric motor to an axle is accommodated within the gear chamber includes a rotation member that is disposed apart from the partition with a predetermined clearance within the gear chamber, and connected to an output shaft of the electric motor. The partition has a first communication hole that is formed at a position radially inward of a most outward point of the rotation member in a radial direction, and that provides communication between the gear chamber and the motor chamber.

Abstract: A light-emitting device that suppresses color unevenness can be provided. A transparent member can be disposed on a fluorescence-containing resin layer. Part of excitation light can be emitted upward from an edge surface of the fluorescence-containing resin layer directly and without passing through the transparent member. Thus, fluorescent light emitted in large quantities from a place near an edge surface of the transparent member can be mixed with the excitation light emitted from the edge surface of the fluorescence-containing resin layer directly without passing through the transparent member, thereby suppressing color unevenness at a location near the edge surface of the transparent member.

Abstract: A light-emitting device having an LED element and a resin layer including a convex portion covering the LED element can suppress color unevenness to achieve light emission with uniform color distribution. The light-emitting device can include a substrate, an LED element mounted on the substrate, a resin layer which contains a wavelength conversion material and is formed on the substrate to cover the LED element, the resin layer including a convex portion directly covering the LED element and a flat thin film portion extending around the convex portion, and a reflective portion which is formed over the thin film portion around the convex portion. A diffusion portion can be formed to cover the convex portion of the resin layer.

Abstract: In an optical semiconductor device module constructed by an optical semiconductor device having a light emitting portion on its top surface, a mounting substrate adapted to mount the optical semiconductor device thereon, at least one wiring pattern layer formed on a front surface of the mounting substrate, and at least one power supplying portion in contact with the wiring pattern layer, at least one of the power supplying portion and the wiring pattern layer is uneven.

Abstract: An automobile weather strip has a trim part having a substantially U-shaped section and a sealing part. The automobile weather strip is characterized in that: the trim part has an insert member and a covering material for covering the insert member; the covering member is provided with holding lips for holding a flange part on an inner surface of the trim part; a sponge material of a rubber formed by using a blend material of an EPDM rubber and an olefin-based thermoplastic synthetic resin and a sponge material of a rubber having physical properties of a specific gravity of 0.6 to 0.8 and a 25%-stretching stress of 500 KPa or more are used as the covering material.

Abstract: A light emitting device is provided which has a reflector having a reflection surface made of porous alumina having an apparent density of 2.5 to 3.3 g/cm3, and an LED disposed on the reflection surface or near the reflection surface. There are provided: a light emitting device equipped with an LED chip and a reflector having a high reflectivity relative to near infrared to ultraviolet rays irradiated from an LED chip and fluorescent material; and the reflector.