Abstract: There is provided an axial gap type generator. The an axial gap type generator includes: generator cases are fixed to a crank case of an engine; a rotor yoke housed inside the generator cases and fixed to a crankshaft of the engine; a first stator core and a second stator core fixed to inner faces of the generator cases and disposed flanking the rotor yoke in a rotation axis direction; generator case supports for supporting the generator case in such a manner that a surface section of the generator case opposing the crank case has a spacing between the surface section and the crank case.

Abstract: A range switching device for performing switching the range of a transmission includes first control valve, a second control valve having a characteristic opposite to the first control, and first, second, third and fourth switching valves for controlling the transmission of oil pressures. The first and second switching valves cooperatively control the transmission of the oil pressure from the first control valve to a forward or reverse driving element (R). The third and fourth switching valve cooperatively control the transmission of the oil pressure from the second control valve to the forward or reverse driving element (R). The third and fourth switching valves each perform a substantially same oil pressure transmission when the state of the second and third actuators is reversed with respect to the first switching and second switching valves, respectively.

Abstract: Provided is an exterior environment recognition device including: a parallax deriving unit for obtaining parallax by means of the pattern matching; a position information deriving unit for deriving a relative distance from the parallax; a grouping unit for grouping a block of which difference of the relative distance is included within a predetermined range, and specifying specified objects; a specified object selection unit for selecting a specified object; an offset amount deriving unit for, when the relative distance of the selected specified object becomes less than a threshold value determined in advance, deriving an amount of offset in accordance with the relative distance; and an offset execution unit for offsetting the image by the amount of offset. When the amount of offset is not zero, the position information deriving unit limits deriving of the relative distance in an image other than an image range corresponding to the selected specified object.

Abstract: There is provided a vehicle driving support device. The vehicle driving support device according to the present invention calculates a time-to-collision to an obstacle ahead. When the time-to-collision is shorter than a predetermined threshold value, which means the possibility of the collision between the obstacle and a vehicle is determined to be high, and in at least either one of cases in which an engine automatic stop controller automatically stops an engine and in which a brake negative pressure is higher than a set pressure, so that the negative pressure of a brake booster is insufficient, the device outputs a signal to a brake controller so as to start a pump of a brake driver for realizing a prefill function in which a brake pad of each wheel is pressed against a braking surface of a disc rotor.

Abstract: There is provided a vehicle hood moving device for a vehicle having a hood movably supported at a vehicle body front. The hood moving device includes a first magnet disposed in the hood, a second magnet provided to the inside of an engine room and disposed so as to face the first magnet, a collision detecting sensor to detect that a pedestrian collides with the vehicle, and a collision predicting device to detect whether or not a pedestrian has a danger of colliding with the vehicle. When detection is made with these sensors and predicting device that a pedestrian has collided with the vehicle or has a danger of colliding with the vehicle, the hood is moved as to the vehicle body by magnetic force of the first magnet and second magnet. The second magnet is an electromagnet, and the first magnet is a permanent magnet.

Abstract: There is provided an axial gap type generator. The axial gap type generator includes: a stator core fixed to a crank case of an engine; a rotor yoke fixed to a crankshaft of the engine and opposing the stator core across spacing in an axial direction of the crankshaft; a first planar section provided in the crankshaft and formed to have a planar shape that is perpendicular to a rotation center axis; a second planar section provided at a base, at which the rotor yoke is mounted on the crankshaft, and disposed opposing the first planar section; and a shim clamped between the first planar section and the second planar section.

Abstract: There is provided a separation distance derivation system and a thickness gauge. The separation distance derivation system has a thickness gauge that includes: a plurality of blades having first ends inserted between objects; and RFID tags respectively fixed to part of the blades and storing readably thickness information corresponding to the thickness of the respective blades. The separation distance derivation system has also a reading device that includes an RF receiver for establishing contact-less communication with the RFID tags and reading the thickness information, and a controller for summating the thicknesses of the blades, as denoted by the read thickness information, to derive thereby a separation distance.

Abstract: There is provided an axial gap type generator exhibiting improved precision in positioning stator cores. An axial gap type generator comprises a generator case fixed to a crank case of an engine, a rotor yoke housed inside the generator case, and fixed to a crankshaft of the engine, and a first stator core and a second stator core fixed to generator case inner faces, and disposed flanking the rotor yoke in a rotation axis direction. The generator case is configured through direct connection of a first member to which the first stator core is fixed and a second member to which the second stator core is fixed.

Abstract: There is provided a vehicle driving environment recognition apparatus. When an onboard camera does not recognize a vehicle ahead during when a vehicle runs at night, an exposure amount of the onboard camera is set to a first exposure amount mode. When the vehicle ahead is not recognized, or only a light source of an oncoming vehicle is recognized, the exposure amount of the onboard camera is set to a second exposure amount mode. In the first exposure amount mode, a low-luminance detection exposure amount and a high-luminance detection exposure amount are alternately switched for each frame, and an image is captured with the switched exposure amount. In the second exposure amount mode, the exposure amount is fixed to the low-luminance detection exposure amount.

Abstract: There is provided an idling stop device. An ECU sets a lighting color index by recognizing a lighting color of a traffic light in front of a vehicle based upon external environment captured by an onboard camera, sets a distance index based upon a distance between the traffic light and a vehicle just in front of the vehicle, and sets a brake index based upon whether a brake lamp of the vehicle just in front of the vehicle is turned on or not. The ECU adds up these indices to obtain an ISS general index, sets a basic ISS speed based upon the ISS general index, and sets an ISS start speed based upon the basic ISS speed and a mode-based coefficient set based upon an engine mode.

Abstract: There is provided a mounting structure for a battery and a fuel tank of a gasoline-electric hybrid vehicle. The mounting structure allows the battery to be disposed on one side of a propeller shaft, and the fuel tank to be disposed on the other side of the propeller shaft. The propeller shaft is disposed in the center of the vehicle and below the bearing surface of the rear seat, under the floor of the vehicle body so as to substantially extend in the fore-aft direction of the vehicle.

Abstract: There are provided an environment recognition device and an environment recognition method. An exterior environment recognition device obtains an image in a detection area, generates a block group by grouping, based on a first relative relationship between blocks, multiple blocks in an area extending from a plane corresponding to a road surface to a predetermined height in the obtained image, divides the block group into two in a horizontal direction of the image, and determines, based on a second relative relationship between two divided block groups, whether the block group is a first person candidate which is a candidate of a person.

Abstract: There is provided a vehicle bumper structure. The vehicle bumper structure includes a bumper face exposed outward from a vehicle at a front end of a vehicle body, and a load transmission member having a front end opposing a surface of the bumper face at a vehicle rear side and a rear end secured to a vehicle body structural member. The load transmission member has a groove in either of an upper portion and a lower portion thereof. The groove serves as a starting point for bending the load transmission member in response to a compressive load in the lengthwise direction of the vehicle.

Abstract: A drill includes a substantially cylindrical cutting portion includes a first region located at a front end portion, and a second region which has a step whose diameter increases as going from the first region to a rear end in a sectional view perpendicular to a rotation axis, and which is continuous with the first region in an end of the second region on a side of the step, and using this drill, a method of manufacturing a machined product is provided.

Abstract: There is provided a body structure of a hybrid vehicle. The hybrid vehicle is driven using power of an engine and power of a drive motor driven by electrical power supplied from a battery module. The body structure includes a propeller shaft disposed in a lower side of a floor panel in a vertical direction of the vehicle so as to extend in a fore-aft direction of the vehicle and configured to transmit the power of the engine and the power of the drive motor to at least a rear wheel; and an integrated battery pack below the floor panel so as to cover the propeller shaft. The integrated battery pack has at least the battery module. The battery pack includes a recess to house the propeller shaft.

Abstract: There is provided an electric charging system in which an electric charger and an electric vehicle are connected by a charging cable. The electric charger calculates a voltage drop amount in the charging cable on the basis of a supplied current at the electric charger side and an electric resistance of the charging cable. The electric charger also compares a determination voltage with a supplied voltage at the electric charger side and determines that a battery has been charged to a fully charged state when the supplied voltage reaches the determination voltage. The determination voltage used for such full charge determination is updated by adding the voltage drop amount to a basic determination voltage that is set in advance.

Abstract: There is provided an exterior environment recognition device and an exterior environment recognition method. The exterior environment recognition device obtains a first image in a first exposure mode according to a level of light of an exterior environment, and obtains a second image in a second exposure mode of which exposure time is different from the first exposure mode and which allows determination as to whether a light emitting source is emitting light by itself or not. The exterior environment recognition device identifies, based on the first image, a vehicle area occupied by a vehicle preceding in a detection area, identifies a position of the light emitting source, based on luminance of the second image, and associates the position of the light emitting source and the vehicle area.

Abstract: In an electric charging system (and electric vehicle), Electric-charger-side data Ds are calculated by subjecting an electric-charger-side supplied voltage Vs to filter processing, and electric-vehicle-side data Dr are calculated by subjecting an electric-vehicle-side received voltage Vr to filter processing. A reference point ?1 is set for the electric-charger-side data Ds on the basis of the variation in the rise rate of the electric-charger-side data Ds. Likewise, a reference point ?2 is set for the electric-vehicle-side data Dr based on variation in the rise rate of the electric-vehicle-side data Dr. When an insulation failure between the electric charger and the electric vehicle is determined, a time lag T between the electric-charger-side data Ds and the electric-vehicle-side data Dr is calculated based on the reference points ?1 and ?2, and the electric-charger-side data Ds and the electric-vehicle-side data Dr that are synchronized based on the time lag T are compared.

Abstract: There are provided an electric charging system and an electric vehicle. The electric vehicle has a battery and is provided with power receiving terminals for charging. A converter is provided between the battery and the power receiving terminals, and relays are provided between the converter and the power receiving terminals. An electric charger is provided with a power converter that outputs charging power and power supply terminals connected to the power converter. When the interruption of charging power supply from the power converter fails during charging, the converter is actuated and the stored electric power of the battery is boosted and supplied to the relays.

Abstract: There is provided an output control device for a vehicle. The device includes an accelerator operator to receive an output adjustment operation of a drive power of a vehicle; a brake operator to receive a braking operation of a braking device; an accelerator operation amount detection unit for detecting an operation amount of the accelerator operator; a brake operation force estimation unit for estimating an operation force of the brake operator; and an output suppression control unit for suppressing an output of the drive power regardless of a state of the accelerator operator, in the case where for a predetermined time or longer, a state continues in which the operation amount of the accelerator operator is greater than or equal to a predetermined accelerator threshold value, and the operation force estimated by the brake operator is greater than or equal to a predetermined brake threshold value.