Abstract: According to a control method of controlling a fuel cell system, the fuel cell system including a solid oxide fuel cell that is supplied with an anode gas and a cathode gas to generate electric power, a fuel processor that at least reforms fuel to generate the anode gas and supplies the generated anode gas to the fuel cell, and a combustor that combusts the supplied fuel to perform warming of the fuel processor, the method is conducted when warming is performed at least at starting-up of the system.

Abstract: The electric vehicle control method is a control method that includes the motor that gives braking force or driving force to a vehicle in accordance with an accelerator operation, by which the braking force is controlled when an accelerator operation amount is smaller than a given value and the driving force is controlled when the accelerator operation amount is the given value or larger. The electric vehicle control device estimates disturbance torque that acts on the motor as resistance component relating to a gradient and executes correction by which the braking force or the driving force is increased or decreased so as to cancel the resistance component in accordance with a disturbance torque estimated value Td. Then, on a downhill road at a given gradient or more, a correction amount of the braking force or the driving force is reduced.

Abstract: Provided is control method for hybrid vehicles capable of suppressing an increase in the frequency of mode switching while suppressing a decrease in the regenerative amount when the hybrid vehicle is set at the self-driving mode. The control method for hybrid vehicles that change an operation mode of the vehicle between HEV mode and EV mode in accordance with the size of a target drive force. When the manual-driving mode is set, the target driving force is calculated based on a vehicle-speed (VSP) and a driver's driving operation (APO), and when self-driving is set, the target driving force is calculated based on a target vehicle-speed and an actual vehicle-speed.

Abstract: A power control system that includes a power generation device that generates low-voltage power, a high-voltage battery that is charged with power generated by the power generation device, an external load that receives power from the high-voltage battery and a power converter that is connected between the power generation device and the high-voltage battery. The power converter includes an insulating power converter.

Abstract: A cell structure for a fuel cell including: power generation cell assemblies each including a power generation cell which includes a fuel electrode, an oxidant electrode, and an electrolyte sandwiched therebetween and is configured to generate power by using supplied gases; a separator configured to separate the adjacent power generation cell assemblies from each other; a sealing member disposed between an edge of a corresponding one of the power generation cell assemblies and an edge of the separator and configured to retain any of the gases supplied to the power generation cells between the corresponding power generation cell assembly and the separator; and a heat exchange part disposed adjacent to the sealing member and configured to perform temperature control of the sealing member by using any of the gases supplied to the power generation cells.

Abstract: A method of controlling the hybrid vehicle in which electric power of the battery and electric power generated by an electric generator are supplied to a drive device, a running load of the drive motor is estimated on the basis of the driver's requirement, and a first distance to empty that allows for running in a state where the estimated running load is fulfilled is calculated on the basis of an amount of charge remaining in the battery and an amount of fuel remaining used to drive the fuel cell. Then, a required running distance is estimated on the basis of the driver's requirement, and, on the basis of the first distance to empty and the required running distance, a necessary energy replenishment operation is notified to the driver.

Abstract: A power supply system comprising: power storage device (1); a fuel cell (2) connecting to the power storage device (1); an auxiliary machine (4) of the fuel cell, the auxiliary machine (4) operating in a range corresponding to a voltage across the fuel cell (2); a voltage converter (3) inserted along a first line between the fuel cell (2) and the power storage device (1). The power supply system further comprising an auxiliary machine power supplying device (5) inserted between the voltage converter (3) and the power storage device (1), the power supply device for the auxiliary machine (5) being configured to supply power from at least one of the fuel cell (2) and the power storage device (1) to the auxiliary machine (4); and a switch (6) inserted along a second line different from the first line between the fuel cell (2) and the auxiliary machine (4), the switch (6) being configured to supply power to the auxiliary machine (4).

Abstract: The antifouling structure according to the present invention includes an antifouling liquid and a microporous layer, and the antifouling liquid is retained on a surface and in an interior of the microporous layer. Further, the antifouling liquid is a hydrocarbon-based oil or a silicone-based oil; the microporous layer includes, on the surface side thereof, a liquid retention part retaining the antifouling liquid and, in the interior thereof, a liquid extrusion part exhibiting lower affinity with the antifouling liquid than the liquid retention part; the film thickness of the liquid retention part is 1/100 to 1/50 of the film thickness of the liquid extrusion part; both feedability of the antifouling liquid onto the surface of the antifouling structure and retainability of the antifouling liquid can be achieved; and an antifouling film exhibiting self-repairability over a long term can be formed on the surface.

Abstract: A power supply system P is provided with a fuel cell 1 and a battery unit 2 connected to the fuel cell 1. The battery unit 2 is provided with a first battery 21 connected to the fuel cell 1 so as to supply power to an auxiliary machine 12 of the fuel cell 1 and to be able to be charged with generated power of the fuel cell 1, a second battery 22 connected to the auxiliary machine 12 of the fuel cell 1 through a path p4 different from that of the first battery 21 so as to be able to supply power, and switchers R1, R2 configured to switch the power supply source to the auxiliary machine 12 of the fuel cell 1 between the first battery 21 and the second battery 22.

Abstract: According to a control method for a hybrid vehicle that is caused to run by a drive motor as a load being supplied with electric power of a battery and electric power generated by an electric generator, a total distance to empty is calculated on the basis of a shortage of a generating power output of the electric generator with respect to a required running power output and an amount of charge remaining in the battery. Specifically, a length of time for which the shortage of the generating power output of the electric generator with respect to the required running power output is covered by the amount of charge remaining in the battery is calculated, and a distance that the hybrid vehicle can run for this length of time is set as a total distance to empty.

Abstract: A vehicle periphery information verification device comprises: an obstacle detecting unit configured to detect an obstacle; an arranging unit configured to arrange a travelable region in which a vehicle is travelable and the detected obstacle on a map; an action determining unit configured to determine an action of a host vehicle by using information on the arranged obstacle; a judging unit configured to judge whether the arranged obstacle is arranged in the travelable region; and a prohibiting unit configured to prohibit the action determining unit from determining the action of the host vehicle when the obstacle is determined to be not arranged in the travelable region.

Abstract: During automated or autonomous travel control of a subject vehicle, when a road section including at least one of a curve and a narrow road is present ahead of the subject vehicle and another vehicle is traveling in an adjacent lane to the traveling lane for the subject vehicle, inter-vehicle distance control is executed in which the subject vehicle is controlled to travel with an inter-vehicle distance that is set such that the subject vehicle and the other vehicle do not travel side by side when the subject vehicle travels in the road section.

Abstract: An antifouling structure precursor, comprising: a modification layer that contains a modifier having a perfluoropolyether chain; and an oxide layer that has a surface entirely covered with the modification layer, wherein the modification layer has an uneven film thickness and comprises a comparatively thick area and a comparatively thin area that is dispersed in the comparatively thick area, and a coverage rate of covering the oxide layer with the comparatively thick area is equal to or greater than 10%. An antifouling structure, comprising: an antifouling structure precursor; and a lubricant oil on a surface of the antifouling structure precursor.

Abstract: A method for controlling a non-contact electric power supply system in which an electric power receiving coil mounted on a host vehicle is opposed to an electric power transmitting coil set on a ground, the non-contact electric power supply system supplying electric power from the electric power transmitting coil to the electric power receiving coil in a non-contact manner and, when a moving object is detected in a detection region around the electric power receiving coil or the electric power transmitting coil during the electric power supply, stopping or reducing the electric power supply, the method including: determining whether another vehicle is parked around the host vehicle; and expanding, when determining that the other vehicle is parked, the detection region as compared to when not determining that the other vehicle is parked.

Abstract: An assistance device for driving in a traffic lane for a motor vehicle includes a module for determining at least one input variable chosen from among variables related to the vehicle and variables related to the traffic lane, a module for producing a correction instruction according to the input variable, and an assistance module capable of implementing a driving assistance action according to the correction instruction. The input variable includes a lateral position of the vehicle in the traffic lane and a lateral deflection speed of the vehicle.

Abstract: A contactless power receiving device includes: a power reception coil unit including a power reception coil configured to contactlessly receive magnetic flux sent from a power supply coil; iron bolts fixing the power reception coil unit to a vehicle body; and a magnetic shield plate configured to suppress diffusion of the magnetic flux received by the power reception coil unit to surroundings. The magnetic shield plate is arranged below all of the iron bolts.

Abstract: A drivable distance calculation device calculates a drivable distance that the vehicle equipped with the device can travel. The drivable distance calculation device includes a remaining battery capacity sensor which calculates a remaining capacity of a battery installed in the vehicle; and a arithmetic unit which calculates multiple power consumption ratios for different units of driving in accordance with variations in the remaining battery capacity calculated by the remaining battery capacity sensor and calculates the drivable distance based on the remaining battery capacity calculated by the remaining battery capacity sensor and a power consumption ratio selected from among the calculated multiple power consumption ratios.

Abstract: A fuel cell stack FS includes: a stack A that includes a single cells C that are stacked, each of the single cells including a frame 2 that holds an outer periphery of a membrane electrode assembly 1 and a pair of separators 3, 4 sandwiching the membrane electrode assembly 1 and the frame 2; and a case 50 that houses the stack A. The frame 2 comprises a protrusion 11 that protrudes outward from an outer periphery of a frame body 2A beyond an outer peripheral edge of the pair of separators 3, 4. A protrusion length of the protrusion 11 is greater than at least a gap between the frame 2 and one of the pair of separators 3, 4, and the protrusion 11 is bendable with respect to the frame body 2A. The protrusions prevent a contact between the separators 3, 4 of the single cell C and a contact between the end faces of the separators 3, 4 and the case 50 so as to prevent a short circuit of the single cell C.

Abstract: A starting strategy for a power train of a motor vehicle including an internal combustion engine fitted with a drive shaft extending along a longitudinal axis, an alternator-starter, a first pulley that is designed to be driven in rotation by the drive shaft, a pulley that is rigidly connected to a shaft of the alternator-starter, a belt encircling said two pulleys, and a coupling/decoupling system between the first pulley and the drive shaft of the engine, characterized in that the starting strategy includes a preparation procedure for said belt in cold weather.

Abstract: An electrode for improving the durability of a battery includes a current collector and an active material layer. The current collector has a conductive resin layer including a polymer material and a conductive filler. The electrode further includes a conductive member, which is in electrical contact with the conductive filler, between the current collector and the active material layer.