Abstract: A control apparatus for controlling a vehicle includes a travel controlling unit for executing a one-pedal function for controlling both a driving force and a braking force of the vehicle according to an operation amount of an accelerator pedal, and an output controlling unit capable of displaying, on a display device of the vehicle, a first indicator indicating that the one-pedal function is enabled and a second indicator indicating that a stopped state of the vehicle is being held by a braking force of the one-pedal function.

Abstract: The present disclosure provides electronic devices that effectively utilize multiple ports. A first input switch is provided between a first port and an input of a first switching converter. A second input switch is provided between a second port and an input of a second switching converter. A load is connected to an output of the first switching converter. A first load switch is provided between the output of the first switching converter and a battery, and a second load switch is provided between an output of the second switching converter and the battery.

Abstract: A vehicle running control device is provided with an accelerator pedal that a driver operates to input an acceleration-deceleration request and has an operation range inclusive of a driving range and a braking range. The vehicle running control device comprises an input-output section receiving various pieces of information including information on a current running direction in which the vehicle is currently running, a determining section determining whether the vehicle is in a switch-back state, and an acceleration-deceleration control section controlling the vehicle running, wherein the acceleration-deceleration control section keeps the braking-driving force at a first braking-driving force that is applied to the vehicle when the shift range switch request is accepted if a braking-driving request value for an operation of the accelerating-decelerating operation element is in the braking range when the determining section determines that the vehicle is in the switch-back state, until the vehicle stops.

Abstract: A vehicle deceleration controller includes: a brake pedal; an accelerator pedal which is operated when an acceleration/deceleration request of a vehicle is inputted; a target acceleration/deceleration setting part configured to set a target deceleration based on a deceleration operation of the accelerator pedal; and an acceleration/deceleration control part configured to, when the accelerator pedal is operated to decelerate the vehicle, provide deceleration control over the vehicle such that an actual deceleration follows the target deceleration set by the target acceleration/deceleration setting part.

Abstract: A control device configured to control a vehicle is provided. The device comprises a traveling control unit capable of executing a one-pedal function of controlling both a driving force and a braking force of the vehicle in accordance with an operation amount of an accelerator pedal, and an output control unit of notifying a driver of an instruction to depress a brake pedal in a case in which a seatbelt is detached during execution of the one-pedal function and during traveling of the vehicle, and the vehicle stops in that state.

Abstract: An information processing apparatus includes an optional device, a main body processing portion, a first buffer, and a second buffer. When brought into a state where control data cannot be retained in an optional memory, the optional device transmits a saving request to the main body processing portion, and when brought into a state where the control data can be retained, the optional device transmits a saving cancel request to the main body processing portion. In a time period from the time of receipt of the saving request to the time of receipt of the saving cancel request, the main body processing portion saves specific control data to the second buffer, and after receipt of the saving cancel request, transmits the specific control data to the optional device.

Abstract: A power receiving device, which receives power from a power feed device via a removable cable, includes: a battery; a charging circuit configured to charge the battery with a bus voltage received from the power feed device via the cable; and a controller configured to communicate with the power feed device and instruct a target value of the bus voltage, wherein the controller adaptively changes the target value of the bus voltage according to a state of the power receiving device.

Abstract: An information processing apparatus includes an optional device, a main body processing portion, a first buffer, and a second buffer. When brought into a state where control data cannot be retained in an optional memory, the optional device transmits a saving request to the main body processing portion, and when brought into a state where the control data can be retained, the optional device transmits a saving cancel request to the main body processing portion. In a time period from the time of receipt of the saving request to the time of receipt of the saving cancel request, the main body processing portion saves specific control data to the second buffer, and after receipt of the saving cancel request, transmits the specific control data to the optional device.

Abstract: A magnetic memory device includes a memory cell array, a counter circuit and a control circuit. The memory cell array includes a memory cell including a magneto resistive element in which writing is performed by current in a first direction or current in a second direction which is an opposite direction to the first direction. The memory cell array includes a first word line and a first bit line, both connected with the memory cell. The counter circuit counts the number of writing times in the first direction while the counter circuit is in electrical connection with the magneto resistive element. The control circuit performs writing in the second direction in the memory cell when the number of consecutive writing times in the first direction reaches a threshold number of times while the control circuit is in connection with the memory cell array.

Abstract: The present disclosure provides electronic devices that effectively utilize multiple ports. A first input switch is provided between a first port and an input of a first switching converter. A second input switch is provided between a second port and an input of a second switching converter. A load is connected to an output of the first switching converter. A first load switch is provided between the output of the first switching converter and a battery, and a second load switch is provided between an output of the second switching converter and the battery.

Abstract: A MG-ECU includes, as a regeneration limiting value, a limited value set according to a state of a battery, and an unlimited value enabling generation of braking force greater than the limited value. In a state in which regenerative braking is being limited, the MG-ECU causes frictional braking force to be generated based on a difference between the unlimited value and the drive force demand of a driver. In cases in which the frictional braking force is also limited in a state of the regenerative braking, the MG-ECU switches the regeneration limiting value from the limited value to the unlimited value, and requests a motor-generator to generate regenerative braking based on the limited value.

Abstract: A magnetic memory device includes a memory cell array comprising memory cells including magnetic tunnel junction elements. Each memory cell is electrically connected between a source line and a bit line. A control circuit is configured to perform a screening test on the memory cell array before writing data to the memory cell array. The screening test determines whether an abnormal cell is present in the memory cell array. The controller applies a first writing voltage to the write data to the memory cell array if the abnormal cell is not present, or applies a second writing voltage to write data to the memory cell array if the abnormal cell is present. The second writing voltage is different from the first writing voltage.

Abstract: Respective outer peripheral surfaces (33, 35) of opening-side end portions (30, 31) of a front cover (12) and a pump shell (7), which have been shaped by pressing, are formed by slimming such that the outside diameters of the slimmed outer peripheral surfaces are equal to each other. With the opening-side end portions abutting against each other, a high-energy beam such as a laser beam (R) is radiated toward the abutment surfaces (30, 31) from the radially outer side to weld the abutment surfaces to each other. Consequently, it is possible to perform welding accurately through easy processing in order to easily manufacture a fluid coupling with high precision that facilitates post-processing.

Abstract: A magnetic memory device includes a memory cell array, a counter circuit and a control circuit. The memory cell array includes a memory cell including a magneto resistive element in which writing is performed by current in a first direction or current in a second direction which is an opposite direction to the first direction. The memory cell array includes a first word line and a first bit line, both connected with the memory cell. The counter circuit counts the number of writing times in the first direction while the counter circuit is in electrical connection with the magneto resistive element. The control circuit performs writing in the second direction in the memory cell when the number of consecutive writing times in the first direction reaches a threshold number of times while the control circuit is in connection with the memory cell array.

Abstract: Provided are a novel pharmaceutical use of PPAR? agonist such as a therapeutic agent for neurotrophic keratopathy, an improving agent for decrease of corneal sensitivity and the like, each containing [3-[2-[4-isopropyl-2-(4-trifluoromethyl)phenyl-5-thiazolyl]ethyl]-5-methyl-1,2-benzisoxazol-6-yl]oxyacetic acid or a pharmacologically acceptable salt thereof.

Abstract: There is provided a vehicle body front structure in which left and right frame side mounting members for connecting the rear ends of left and right bumper beam extensions are provided at the front ends. The left and right front side frames are formed from left and right side inner panels and left and right side outer panels. The left and right side outer panels are formed from left and right rear outer panels and left and right front outer panels. The left and right front outer panels are formed from left and right side plates, left and right upper plates, and left and right lower plates. At least one of the set of the left and right upper plates and the set of the left and right lower plates is formed by members different from the left and right side plates.

Abstract: A wireless device includes an imaging unit having an optical axis which is identical to a radio wave direction of a directional antenna, a reference image is stored in a storage unit, a wireless communication device serving as a communication counterpart and an area around the wireless communication device are photographed at regular intervals, and a control unit compares images photographed at regular intervals with a reference image, calculates a degree of similarity through normalized cross-correlation which is hardly influenced by a change in brightness, calculates an index value indicating a state of a region serving as a monitoring target based on a degree of weighted similarity, detects an abnormality when the index value is a specific numerical value or less, and outputs alert information including the photographed image when a state in which the abnormality is detected is continued for a certain period of time.

Abstract: There is provided a vehicle body front structure including left and right mounting brackets provided at the rear ends of left and right bumper beam extensions of a front bumper beam, and left and right frame side mounting members connecting the rear ends of the left and right mounting brackets. The left and right frame side mounting members are provided at the front ends of left and right front side frames. The left and right mounting brackets are formed into an almost L shape by horizontal plate-like left and right joint plate portions and vertical plate-like left and right flanges, and each of the left and right mounting brackets is located on at least one of the upper surface and the lower surface of each of the left and right bumper beam extensions.

Abstract: A battery monitoring unit monitors at least one from among: (i) the attachment state of secondary battery pack; (ii) the low state of a battery voltage VBAT; and (iii) the state of whether it is possible or impossible to use the secondary battery. A battery measurement unit measures the battery voltage VBAT, a charge/discharge current IBAT, and a temperature T of the secondary battery pack, and converts the measured values into digital data. A charging circuit is configured to charge the secondary battery pack using DC voltage from an external power supply based on the state information detected by the battery monitoring unit and the information measured by the battery measurement unit. A coulomb counter measures the charge/discharge current IBAT at predetermined time intervals, and integrates the measurement value, thereby calculating the sum total of the charged/discharged amount. The battery management circuit is monolithically integrated on a single semiconductor substrate.

Abstract: A magnetic memory device includes a memory cell array comprising memory cells including magnetic tunnel junction elements. Each memory cell is electrically connected between a source line and a bit line. A control circuit is configured to perform a screening test on the memory cell array before writing data to the memory cell array. The screening test determines whether an abnormal cell is present in the memory cell array. The controller applies a first writing voltage to the write data to the memory cell array if the abnormal cell is not present, or applies a second writing voltage to write data to the memory cell array if the abnormal cell is present. The second writing voltage is different from the first writing voltage.