Abstract: There are provided a deceleration end location storage system that can appropriately store a deceleration end location at which a vehicle ends deceleration in decelerating action even for a road on which the content of the decelerating action tends to vary because of a disturbance such as a road with a large amount of traffic, and a drive assist system, a drive assist method, and a computer program that can provide appropriate drive assistance for a vehicle on the basis of stored deceleration end locations. In the case where a vehicle performs decelerating action, a deceleration end location at which the vehicle ends deceleration in the decelerating action is specified. A variation range that matches the road type of a road on which the deceleration end location is provided is set.

Abstract: The present invention relates to a manufacturing method for a fluid dynamic bearing device, the method involving: forming an axial clearance 14 having a clearance width ? equal to a total amount of clearance widths of two thrust bearing clearances ?1, ?2 between a second bearing surface C of a bearing member 22 fixed to an outer periphery of a shaft member 21 and a sealing member 9; relatively moving the shaft member 21, the shaft member 22, and the sealing member 9 with respect to a housing 7 while the clearance width ? of the axial clearance 14 is maintained after forming the axial clearance 14; and fixing the sealing member 9 to the housing 7 at a time when a first thrust bearing surface B of the bearing member 22 comes into contact with a bottom surface 7b of the housing 7.

Abstract: Deceleration control systems, methods, and programs acquire from learning information a target deceleration point in front of a traveling vehicle and an associated deceleration end point. The deceleration end point is a point representative of one or more locations at which deceleration of the vehicle or another vehicle was actually completed in the past as the vehicle or the other vehicle approached the associated deceleration end point. The systems, methods, and programs determine a distance between the acquired target deceleration point and the acquired deceleration end point as a predicted distance over which traffic is present. The systems, methods, and programs communicate with a vehicle ECU to perform a deceleration control of the vehicle so that (i) the longer the determined distance, the greater the deceleration rate applied during the deceleration control, and (ii) the deceleration is complete by the time the vehicle reaches the acquired deceleration end point.

Abstract: Support point management systems, methods, and programs acquire a support point registered as a subject of deceleration support and exclude the support point as the subject of deceleration support in a case a vehicle travels on a new road after having traveled through the support point without deceleration at the support point.

Abstract: There are provided a deceleration end location storage system that can appropriately store a deceleration end location at which a vehicle ends deceleration in decelerating action even for a road on which the content of the decelerating action tends to vary because of a disturbance such as a road with a large amount of traffic, and a drive assist system, a drive assist method, and a computer program that can provide appropriate drive assistance for a vehicle on the basis of stored deceleration end locations. In the case where a vehicle performs decelerating action, a deceleration end location at which the vehicle ends deceleration in the decelerating action is specified. A variation range that matches the road type of a road on which the deceleration end location is provided is set.

Abstract: Providing a fluid dynamic bearing device, wherein the outer member comprises a member formed by a pressing process on a plate member, the radial bearing surface and at least the one of the thrust bearing surfaces of the outer member being formed by the pressing process, and wherein at least a part of the inner member, which forms the radial bearing surface and the thrust bearing surfaces of the inner member, is made of a sintered metal.

Abstract: Deceleration control systems, methods, and programs acquire from learning information a target deceleration point in front of a traveling vehicle and an associated deceleration end point. The deceleration end point is a point representative of one or more locations at which deceleration of the vehicle or another vehicle was actually completed in the past as the vehicle or the other vehicle approached the associated deceleration end point. The systems, methods, and programs determine a distance between the acquired target deceleration point and the acquired deceleration end point as a predicted distance over which traffic is present. The systems, methods, and programs communicate with a vehicle ECU to perform a deceleration control of the vehicle so that (i) the longer the determined distance, the greater the deceleration rate applied during the deceleration control, and (ii) the deceleration is complete by the time the vehicle reaches the acquired deceleration end point.

Abstract: A vehicular travel guidance apparatus and method are provided. The apparatus includes a map image display unit that displays a map image on a display device and a maximum energy amount acquisition unit that acquires a maximum charging energy amount of an in-vehicle battery. The apparatus further includes a charging facility information acquisition unit that acquires information regarding a charging facility capable of charging the in-vehicle battery. Also included is a travelable area acquisition unit that acquires a travelable area, within which the vehicle is able to travel from the charging facility by consuming an energy amount corresponding to a predetermined percentage of the maximum charging energy amount. The apparatus also includes a display mode change unit that varies a display mode of the map image based on the acquired travelable area.

Abstract: A hybrid vehicle includes a regenerative charging area detection section, a recovery loss estimation section, and a motor use ratio increase section. The regenerative charging area detection section detects arrival of a regenerative charging possible area in which a regenerative charging from a motor to a battery is possible. The recovery loss estimation section estimates a recovery loss of the regenerative charging based on a regenerative charge amount in the regenerative charging possible area and a current remaining battery amount in response to detection by the regenerative charging area detection section. In response to estimation by the recovery loss estimation section, before the arrival at the regenerative charging possible area, the motor use ratio increase section increases a use ratio of the motor so as to decrease a remaining battery amount while limiting the temperature of the battery to a predetermined temperature range.

Abstract: Provided is a driving support device and method that includes a charging facility information acquisition unit that acquires information indicating a position and a charging capacity of a charging facility that exists within a predetermined distance from a position of a vehicle and a guidance unit that provides information indicating a charging time period at the charging facility based on the position of the vehicle, a registered position, the position and the charging capacity of the charging facility, and a remaining electric power amount of a battery in the vehicle and information indicating a charging time period at the charging facility that is required for traveling a route from the position of the vehicle to the registered position by electric power of the battery.

Abstract: A hybrid vehicle includes a road condition acquisition portion (40, 41) that acquires information on an actual road condition; a storage portion (42) where road data is stored; a route setting portion (40) that sets a route to a destination, based on the road data stored in the storage portion (42); a travel pattern setting portion (30) that sets a travel pattern on the route set by the route setting portion (40), based on the road data stored in the storage portion (42); an operation schedule setting portion (30) that sets an operation schedule that is a schedule of operations of the engine and the motor, based on the travel pattern set by the travel pattern setting portion (30); and a control portion (30) that controls the operations of the engine and the motor based on the information on the actual road condition acquired by the road condition acquisition portion (40, 41) and the operation schedule set by the operation schedule setting portion (30).

Abstract: Guidance devices, methods, and programs acquire a current speed of a vehicle and calculate a regeneration upper limit operation amount of the regenerative brake based on the current speed of the vehicle. The devices, methods, and programs acquire a deceleration target speed, acquire a deceleration target position, calculate a distance to the deceleration target position, and calculate a deceleration required operation amount of the brake pedal required for reducing the current speed of the vehicle to the deceleration target speed at the deceleration target position based on the acquired current speed of the vehicle, the acquired deceleration target speed, and the calculated distance to the deceleration target position. The devices, methods, and programs communicate guidance regarding the operation amount of the brake pedal based on the calculated regeneration upper limit operation amount and the calculated deceleration required operation amount.

Abstract: Driving support devices, methods, and programs determine a target position ahead of a vehicle and a target vehicle speed at the target position. The devices, methods, and programs divide a section between a deceleration start position to start deceleration of the vehicle and the target position into a plurality of sections and set target charging electric power to different values for respective sections forming the plurality of sections to reduce a speed of the vehicle to the target vehicle speed at the target position. The devices, methods, and programs control an electric generator installed in the vehicle to generate the regeneration brake in the respective sections forming the plurality of sections based on the set charging electric power values and charge the battery with the target charging electric power generated in each of the respective sections.

Abstract: A navigation apparatus for use in a hybrid vehicle in which an engine and a drive motor are used in combination acquires a current SOC value of a battery, geometry of roads around the vehicle, gradient information, traffic information, learning information, and so forth. A travelable range of the vehicle after the battery is charged is calculated for each of a plurality of various charge times on the basis of the acquired information. The plurality of calculated travelable ranges is simultaneously displayed on a liquid crystal display. It is thus possible to display a minimum charge time required to travel to a destination in a manner easily understandable to a user.

Abstract: A site registering device that registers a site allowing charging where a vehicle battery can be charged, the device including: a position acquisition unit that acquires position information on a charging site where charging of the battery has been conducted; and a registering unit that specifies, on the basis of an actual charging result in the charging site, a category to which the charging site belongs among a plurality of categories, associates the charging site with the specified category and the position information, and registers the thus associated charging site as the site allowing charging.

Abstract: A power cable is connected from an external commercial power supply, and an in-vehicle battery is charged. Using the power cable as a communication conduit, communication is conducted with the outside world. In particular, by communication during charging, regional information regarding the current location, where the charging is being performed, or regional control parameter information is obtained. A control parameter of a vehicle is then set in accordance with the obtained information.

Abstract: Providing a fluid dynamic bearing device, wherein the outer member comprises a member formed by a pressing process on a plate member, the radial bearing surface and at least the one of the thrust bearing surfaces of the outer member being formed by the pressing process, and wherein at least a part of the inner member, which forms the radial bearing surface and the thrust bearing surfaces of the inner member, is made of a sintered metal.

Abstract: A road information acquisition device includes: a surface elevation acquisition unit that obtains a surface elevation; a road information acquisition unit that calculates first road information relating to a travel route to be traveled by a host vehicle on the basis of the surface elevation; and a structure determination unit that determines whether or not a structure exists on the travel route, wherein, when the structure determination unit determines that the structure exists on the travel route, the road information acquisition unit obtains second road information, which is different from the first road information, relating to a point at which the structure exists on the travel route.

Abstract: When passage through a road pricing area where an exhaust gas emission vehicle is subjected to billing is predicted, ECU acquires a current SOC of a power storage device, and estimates a required energy quantity for passing through the road pricing area where an exhaust gas emission vehicle is subjected to billing by EV traveling. Further, a determination is made whether or not the vehicle can pass through the road pricing area by EV traveling based on the current SOC and the required energy quantity as estimated. When a determination is made that the vehicle cannot pass through the road pricing area by EV traveling, ECU executes steps of guiding a route to an adjacent charging station and/or steps of guiding a bypass.

Abstract: An ECU executes a program including a step of detecting a present location using a GPS system; a step of reading out data of a geographical map proximate to the present location and presenting in the geographical map charging installations including a charging installation employing solar light, together with the location of its vehicle; a step of, if a presentation switching request is made and a real-time solar radiation correction request is made, detecting a solar radiation amount and correcting a charge amount per unit time provided by the power generation installation employing solar light, based on the detected solar radiation amount; and a step of detecting an SOC in the battery to calculate an amount of discharge done until arrival at the charging installation, calculating time required for charging up to a fully charged state, and presenting the time required for charging in the geographical map.