Abstract: A vehicle seat device includes a fixed base, a movable base, a paddle, and an air pack. When a side airbag arranged in the seat is deployed, the expanding side airbag presses and pivots the movable base and allows for a deployment of the side airbag. The paddle is configured to change a seat support form when pressed and pivoted by the air pack. The movable base pivots about a first pivot axis relative to the fixed base. The paddle pivots about a second pivot axis relative to the movable base. The first pivot axis and the second pivot axis are arranged at different locations.

Abstract: It is provided a gas bag for an airbag module of a motor vehicle, comprising at least two gas bag parts, which via at least one seam are connected to each other to form a gas bag to be filled with gas, so that the resulting gas bag has an inner wall facing the interior of the gas bag and an outer wall facing away therefrom, and comprising a flame protection layer that is arranged within the gas bag and is connected to the gas bag such that the flame protection layer sectionally covers the gas bag for protection against gases. In the flame protection layer at least one incision is formed, by which a foldable partial section is produced in the flame protection layer, which can be folded over a seam by means of which the gas bag parts are connected to each other.

Abstract: An occupant protection system for a vehicle may include an expandable curtain and/or an expandable bladder configured to be expanded from a stowed state to a deployed state. In the deployed state, the expandable curtain may include first and second sides configured to extend along respective portions of first and second interior sides of the vehicle. The expandable curtain may also include a transverse portion extending between the first and second sides, and the first and second sides, and the transverse portion of the expandable curtain may form a contiguous barrier. The expandable bladder when deployed may be supported by the expandable curtain during contact by an occupant. The occupant protection system may also include a deployment control system configured to cause the expandable curtain and/or the expandable bladder to expand to the deployed state. The occupant protection system may be used in vehicles having a carriage-style seating arrangement.

Abstract: An occupant protection system for a vehicle may include an expandable curtain and/or an expandable bladder configured to be expanded from a stowed state to a deployed state. In the deployed state, the expandable curtain may include first and second sides configured to extend along respective portions of first and second interior sides of the vehicle. The expandable curtain may also include a transverse portion extending between the first and second sides, and the first and second sides, and the transverse portion of the expandable curtain may form a contiguous barrier. The expandable bladder when deployed may be supported by the expandable curtain during contact by an occupant. The occupant protection system may also include a deployment control system configured to cause the expandable curtain and/or the expandable bladder to expand to the deployed state. The occupant protection system may be used in vehicles having a carriage-style seating arrangement.

Abstract: A vehicle side airbag device is stored inside a seatback of a vehicle seat and includes an airbag that inflates and deploys between a seated occupant and a side door. The interior of the airbag is partitioned into plural chambers including a high-pressure chamber, and the high-pressure chamber inflates and deploys so as to vertically straddle a door beltline as seen in vehicle lateral view and so as to restrain a shoulder region of the seated occupant.

Abstract: A passenger protection device includes: a front airbag configured to inflate so as to cover a front of the passenger; a front inflator configured to supply the inflation gas to the front airbag; an airbag for window accommodated with being folded at an upper edge-side of a window arranged at a lateral side of the passenger and configured to inflate so as to cover a vehicle interior-side of the window; and an inflator for window configured to supply the inflation gas to the airbag for window. The airbag for window includes a bag-adjacent inflation part configured to cover a side of a head of the passenger received by the front airbag, and an activation start timing of the inflator for window is set within a range of ?20 ms to ?5 ms from a time at which the front airbag having completely inflated starts to receive the passenger.

Abstract: A method of manufacturing a folded airbag comprising the steps of: providing an airbag cushion; heating the airbag material, folding the heated airbag material; compressing the folded airbag material obtained in step c) and optionally cooling the compressed airbag.

Abstract: An airbag module including an inflatable airbag and an inflator. The airbag is formed by a main panel and a pair of side panels and deploys into a position to contact the occupant. The airbag includes a tether connected to the main panel at one end and is anchored proximate to the inflator at the other end. Prior to inflation, the airbag includes a pre-folded portion adjacent to the tether. The airbag is configured so that during an initial stage of the inflation process the tether is fully extended and the pre-folded portion remains folded and during a final stage of the inflation process the tether separates into at least two portions thereby allowing the pre-folded portion to unfold and the airbag to fully deploy.

Abstract: An airbag for steering wheel is configured to inflate so as to cover an upper surface side of a ring part of a steering wheel. Outer peripheral edges of a vehicle body-side wall part and a driver-side wall part are joined such that the airbag is formed to have a bag shape, and an inlet opening is arranged at a vicinity of a center of the vehicle body-side wall part. The vehicle body-side wall part is formed with a concave part to be concave upward toward the driver-side wall part upon completion of the inflation so that a rear part-side region of the ring part can be entered into the concave part, and the concave part is arranged at the vehicle body-side wall part so that the ring part is entered into the concave part when a driver is received by the airbag upon completion of the inflation.

Abstract: A passenger restraining device for a vehicle having a three-point seatbelt device, a shoulder belt extending from above, a seat transverse direction one end side of a seatback of a vehicle seat toward a lower portion; a belt guide at an upper portion side of the seat transverse direction one end side of the seatback, through which the shoulder belt is inserted, that's disposed along a restrained surface of a passenger seated in the vehicle; a fixing portion fixes a rear end portion of the belt guide to a seat shoulder opening at the seat transverse direction one end side of an upper portion of the seatback; and a front side portion at a length direction front side of the belt guide, in a usual state, disposed further toward a vehicle front side than a collarbone of the passenger seated in the vehicle, and structured to be hard to bend.

Abstract: The present disclosure relates to an apparatus for vehicle occupant safety during automotive collisions. The apparatus includes a plurality of compression elements rigidly fixed to a first seat belt guide and a second seat belt guide. The compression elements are arranged to resist compressive loading in response to an impact force, such as that experienced during rapid deceleration of a vehicle occupant in an automotive collision. When a pre-determined threshold force has been overcome, the compression elements predictably deform, thus absorbing energy associated with the deceleration. As a result of deformation of the compression elements, additional seat belt length is pulled from the apparatus, thus shielding the vehicle occupant from maximal injury.

Abstract: A vehicle seat includes a seat back, a motor, a gear, a take-up device and a pre-tensioner component. The seat back extends in a seat vertical direction and supports the back area of a seat occupant. A seat back frame structures a framework of the seat back. The motor is mounted to an upper portion of the seat back frame. The gear is arranged along the seat back frame adjacent to the motor and transmits driving force from the motor. The take-up device is arranged along the seat back frame adjacent to the gear, and is provided with a spool onto which a webbing is wound. Driving force from the motor is transmitted to the take-up device via the gear. The pre-tensioner component is arranged along the seat back frame adjacent to the take-up device. When activated, the pre-tensioner component forcibly takes up the spool.

Abstract: A belt tightener for tightening a safety belt in a vehicle includes an impulse screw drive unit to generate a greater torque than can be achieved by a mechanical coupling between a motor and the belt tightener.

Abstract: A seat belt routing sensing system for a seat belt of a vehicle is provided. The seat belt includes a latch plate. The seat belt routing sensing system includes a seat belt buckle mounting assembly and a sensor. The seat belt buckle mounting assembly includes a first bracket or a first strap. The first bracket or the first strap is configured to connect to a seat belt buckle. The sensor is attached directly or indirectly to the first bracket, the first strap, or the seat belt buckle and is configured to detect changes in a parameter. The changes are indicative of (i) at least one of a bending moment, a force, an angular position, or an angular movement of the first bracket or first strap, and (ii) routing of the seat belt.

Abstract: A distribution device includes a server device configured to distribute key information to a portable terminal. The key information is used for a key system that determines whether or not to lock and unlock a vehicle when the vehicle receives the key information transmitted from the portable terminal to the vehicle. The server device is configured to receive a rescue signal and positional information of the vehicle transmitted from the vehicle in a case where a state in a vehicle cabin of the vehicle is a predetermined rescue needing state. The server device is configured to, when the server device receives the rescue signal, search for a nearby terminal based on the positional information of the vehicle, and transmit the key information of the vehicle, the positional information of the vehicle, and an issue command of an alarm signal to the portable terminal searched for as the nearby terminal.

Abstract: A method for opening and/or using at least one vehicle may include receiving, by a mobile terminal, an identifier assigned to a target vehicle. The identifier may be transmitted to a server, and a key data set may be received from the server. The key data set and/or a code based on the key data set may be transmitted as a remote code to the target vehicle. The target vehicle may generate at least one local code after receiving the remote code, and may compare the remote code to the local code(s). The target vehicle may be opened and/or released, or a vehicle command may be executed if at least one of the local codes corresponds to the remote code.

Abstract: Aspects of the present disclosure generally pertain to a system and method for overriding a vehicle inhibitor. This disclosure may be useful for providing an emergency override function for vehicle loan repayment enforcement systems that have wireless user interface modules, and that have become lost or inoperable when needed to generate an emergency override signal. Further, the present disclosure addresses this problem while mitigating additional system cost and additional components. This disclosure includes a method of providing an emergency override function for vehicle loan repayment enforcement systems that have wireless user interface modules, and that have become lost or inoperable when needed to generate an emergency override signal. Further this disclosure includes a method of providing a disablement override function for vehicle loan repayment enforcement systems, wired or wireless, that allows vehicle operation past the grace period in those locations where complete disablement may be limited.

Abstract: A method for operating a wireless-based monitoring system of a transportation vehicle, wherein tag units are held in the transportation vehicle by a respective retention device and each retention device includes a mechanical encoding through which a spatial orientation of the held tag unit is specified. Each tag unit determines its spatial orientation and its characteristic position in the transportation vehicle by its own position sensor apparatus, and each tag unit repeatedly captures a distance from at least one predetermined object by its own distance measuring apparatus, and the central control unit determines a respective object position of the at least one object based on the respective characteristic position of the tag units and of the distances signaled respectively by these tag units and controls at least one predetermined security function in the transportation vehicle.

Abstract: A server device for a car sharing system includes an image request device, a use permission request device, and an authentication information issue device. The image request device is configured to transmit an image request signal to the user terminal when a use request signal for the vehicle is received. The image request signal requires transmission of a user face image. The use permission request device is configured to transmit a use permission request signal including the user face image transmitted from the user terminal to the owner terminal. The authentication information issue device is configured to transmit predetermined authentication information to the user terminal when a use permission signal transmitted from the owner terminal in response to the use permission request signal is received. The predetermined authentication information is information for enabling an operation of the vehicle.

Abstract: A system for controlling vehicle permissions based on a geo-fence boundary is disclosed. The system may include one or more processor that receives location information of an origin, generates a map based on the location information of the origin, determines the geo-fence boundary associated with a prospective radius from the origin based on the map, receives a vehicle location, and controls the vehicle permissions based on a comparison of the vehicle location to the geo-fence boundary. The system may further include a display configured to display the map and the geo-fence boundary.

Abstract: A photographing apparatus for vehicle includes a control device which is configured to execute either a first processing or a second processing when a specific condition is satisfied until when a predetermined period of time elapses from start time of the predetermined period of time. The specific condition is satisfied when magnitude of a heat generation amount determination factor deviates from magnitude of the heat generation amount determination factor at the start time of the predetermined period of time by a predetermined value or more. The first processing is a processing to stop applying voltage to heating means until when the predetermined period of time elapses. The second processing is a processing to change a voltage application time based on magnitude of the heat generation amount determination factor at the time when the specific condition is satisfied.

Abstract: A photographing apparatus for vehicle includes a photographing apparatus, heating means, and a control device. The photographing apparatus is disposed inside a vehicle so as to face a window of the vehicle and is configured to receive photographing light passing through the window. The heating means is disposed inside the vehicle so as to face the window. The heating means generates heat that is given to the window when voltage of an electric power source of the vehicle is applied to the heating means. The control device changes voltage application time that is time period for applying the voltage of the electric power source to the heating means so that a total amount of heat generated by the heating means for a predetermined period of time is coincident with a predetermined amount determined based at least on an outside air temperature.

Abstract: The invention relates to a wiper arm device (100) for cleaning a vehicle window (1), with a wiper arm head (10) that can be at least indirectly connected by means of a wiper arm rod (22) with a wiper blade (5) at a first end region with a drive shaft (12) and a second end region lying opposite the first end region, wherein the wiper arm rod (22) is pivotably mounted on the side facing the wiper arm head (10) in a first pivoting axis (20). It is provided according to the invention that a spacer device (40) is arranged on the wiper arm rod (22), and designed to hold the wiper arm rod (22) a constant distance (a) away from the vehicle window (1).

Abstract: The invention relates to a wiper arm arrangement (100) for cleaning a vehicle window (1), with a wiper arm head (10) that can be at least indirectly connected by means of a wiper arm rod (22) with a wiper blade (5) at a first end region with a drive shaft (12) and a second end region lying opposite the first end region, wherein the wiper arm rod (22) is pivotably mounted on the side facing the wiper arm head (10) in a first pivoting axis (20). The invention provides that the wiper arm rod (22) consist of two elements (26, 28), a first element (26) connected with the wiper arm head (10) and a second element (28) that can be connected at least indirectly with the wiper blade (5), and that the two elements (26, 28) be arranged so that they can pivot relative to each other in a second pivoting axis (30), wherein the second pivoting axis (30) is arranged essentially perpendicular to the first pivoting axis.

Abstract: A windscreen wiper blade including: a monolithic support frame that includes an inner housing formed within a body of the support frame; a wiping strip with a wiping edge able to engage with a surface of a window and a top heel that engages with the support frame; a pair of ribs that: extend from a bottom face of the support frame, and latch onto the top heel of the wiping strip; a central spine disposed within the inner housing; and an aerodynamic deflector that extends from a top face of the support frame.

Abstract: This technology relates to a system for clearing sensors. The system may include an air knife, a sensor cover, and a sensor motor. The sensor cover may be configured to house one or more sensors. The sensor motor may be used to rotate the sensor cover. The air knife may be configured to clear the sensor cover of debris by providing a pressurized stream of fluid against the sensor cover as the sensor motor rotates the sensor cover.

Abstract: The invention is a highly-efficient apparatus and system for removing impurities and debris from wheel components in a time-optimized and cost-controlled manner to ensure consistent results. The system is a single integrated tool on which employees can be quickly trained to perform all wheel cleaning functions by using the tool's components in any order, increasing the probability that all operations will be performed.

Abstract: Unlike axle replacement on vehicles, where the weight of the vehicle and air-assisted tools may be used, replacement of axle shafts in confined spaces (e.g. benchtop testing rigs) demand improved methods for controlling axle rotation during loosening and tightening of hub nuts. The present disclosure relates to an apparatus for controlling axle rotation during axle shaft replacement in confined spaces. The apparatus further includes a safety mechanism to prevent accidental team member injury caused by an independently rotating axle. Additionally, the disclosure describes a method of the apparatus for efficient loosening and tightening of hub nuts, reducing team member physical burden and expediting axle shaft replacement.

Abstract: A fork-arm lift tractor includes a vehicle body, a supporting plate disposed above the vehicle body, a lifting device for driving the supporting plate to be lifted, a front and rear fork-arm assemblies, a front and rear fork-arm drive assemblies. The front fork-arm assembly includes two front fork-arms rotatably disposed at the supporting plate. The rear fork-arm assembly includes two rear fork-arms rotatably disposed at the supporting plate, and the front and rear fork-arms may be deployed or retracted from both sides of the supporting plate. The front fork-arm driving assembly includes a front transmission part, and a front power device disposed at the supporting plate and may drive the front transmission part to move horizontally linearly so as to rotate the two front fork-arms. The rear fork-arm driving assembly has almost the same structure of the front fork-arm driving assembly and is used to rotate the two rear fork-arms.

Abstract: Systems and methods for aircraft braking are disclosed. The systems and methods may comprise a control mode executive configured to receive a pedal input and calculate a gear deceleration command comprising a desired deceleration rate based on the pedal input; a pedal deceleration controller in electronic communication with the control mode executive configured to receive the gear deceleration command from the control mode executive and calculate a gear pedal command based on at least one of the gear deceleration command and a deceleration feedback; and a pedal executive in electronic communication with the pedal deceleration controller configured to receive the gear pedal command, and generate a pedal braking command based on the gear pedal command.

Abstract: A method and apparatus for sensing wheel torque of a highly automated driving (HAD) vehicle includes a wheel hub configured to rotate around a rotation axis as the vehicle moves and a brake caliper, including a brake pad, configured to apply a caliper force to the wheel hub. A reaction carriage is interconnected with the brake caliper and is configured to have a reaction force applied to it when the brake caliper applies the caliper force to the wheel hub. The wheel torque sensor includes a hydraulic chamber having a hydraulic fluid and a pressure sensor, interconnected with the hydraulic chamber, that senses pressure applied to the hydraulic fluid in response to the reaction force.

Abstract: The vehicle behavior control device comprises a brake control system (18) capable of applying different braking forces, respectively, to right and left road wheels of a vehicle (1). The vehicle behavior control device further comprises: a steering angle sensor (8); a vehicle speed sensor (10); a yaw rate sensor (12); and a yaw moment setting part (22) in PCM (14) configured to decide a target yaw rate of the vehicle based on a steering angle and a vehicle speed, and set, based on a change rate of a difference between an actual yaw rate and the target yaw rate, a yaw moment oriented in a direction opposite to that of the actual yaw rate of the vehicle, as a target yaw moment, whereby the brake control system can regulate the braking forces of the road wheels so as to apply the target yaw moment to the vehicle.

Abstract: A vehicle braking device of a by-wire type includes an actuator configured to flow out a fluid in a subject wheel cylinder among the plurality of wheel cylinders to flow towards the master chamber upon pressure decreasing control for the subject wheel cylinder under an ABS control execution and a control portion executing a first control controlling the driving portion such that an increasing amount of the master pressure under a pressure increasing control becomes great or a decreasing amount thereof under a pressure decreasing control becomes small and/or executes a second control which controls the driving portion such that the increasing amount of the master pressure under the pressure increasing control becomes small or the decreasing amount thereof under the pressure decreasing control of the master pressure becomes great.

Abstract: A method for adjusting brake pressures on wheel brakes of a motor vehicle includes adjusting, in a normal braking mode as a function of a driver's braking demand determined by a driver of the motor vehicle, the brake pressures on the wheel brakes. The method further includes carrying out, by a brake control unit in a pressure control mode, adjustment of the brake pressures on the wheel brakes to implement at least a drive stability function and/or external braking demands. Furthermore, the method includes determining, by the brake control unit, the brake pressures on the wheel brakes at least when implementing external braking demands while controlling an ideal pressure distribution ratio of the brake pressures at wheel brakes of the front axle to the brake pressures at wheel brakes of a rear axle of the motor vehicle, wherein the control function takes into account a pressure distribution ratio.

Abstract: A method for determining a coefficient-of-friction, the method including braking a first wheel of a vehicle such that a slip between the first wheel and a roadway is less than a slip between a second wheel of the vehicle and the roadway, and determining a coefficient-of-friction between the first wheel and the roadway based on the behavior of the first wheel during the braking. The method optionally including hazard braking the vehicle.

Abstract: Systems and methods are described for controlling a vehicle braking system. An electronic controller determines a target deceleration based at least in part on a detected displacement position of a brake pedal and determines an adjusted braking pressure to be applied to at least one wheel of the vehicle such that, regardless of the displacement position of the brake pedal and the target deceleration, the adjusted braking pressure is maintained outside of a defined range of braking pressures that corresponds to a NVH condition for the at least one wheel. The adjusted braking pressure is then applied to the at least one wheel of the vehicle.

Abstract: A control device and a method for operating an electromechanical brake booster of a brake system configured to execute anti-lock control actions, including the steps: determining a setpoint variable regarding a setpoint brake pressure to be produced by the electromechanical brake booster, in view of at least a differential travel; and controlling the electromechanical brake booster in view of the determined setpoint variable; at least during an anti-lock control action carried out in the brake system, it being ascertained if the differential travel lies outside of a specified normal value range, and in some instances, the additional steps being executed: determining a correction variable for the setpoint variable in view of at least a difference between the determined setpoint variable and an actual variable regarding an actual pressure present in at least part of the volume of the brake system, and controlling the electromechanical brake booster in additional view of the determined correction variable.

Abstract: A vehicle braking system includes a wheel cylinder, a brake pedal, a master cylinder, a master cylinder circuit, a primary braking unit operable to generate a braking force at the wheel cylinder in a primary mode, decoupled from the master cylinder circuit, a secondary braking unit including a second electrically-actuated pressure generating unit and operable to generate a braking force at the wheel cylinder in a secondary mode of operation, a plurality of valves configured to provide anti-lock braking at the wheel cylinder upon loss of traction during braking in the primary mode of operation, and a controller programmed to actuate the plurality of valves and further programmed to actuate the second electrically-actuated pressure generating unit upon loss of traction in the primary mode of operation to generate pulsations within the master cylinder circuit to provide a feedback force at the brake pedal indicative of the anti-lock braking.

Abstract: A vehicle braking system includes a wheel cylinder, a master cylinder, a brake pedal operable to transmit a user input force to the master cylinder, a primary braking unit including a first electronically controlled pressure generating unit distinct from the master cylinder and operable to generate a braking force at the wheel cylinder in a first mode of operation, a secondary braking unit including a second electronically controlled pressure generating unit distinct from the master cylinder and operable to generate a braking force at the wheel cylinder in a second mode of operation and a pedal feel simulator operable to provide feedback to the brake pedal according to a fixed characteristic of the pedal feel simulator defining a predetermined force-stroke relationship relating a travel distance of the brake pedal to the user input force.

Abstract: An air brake relay valve includes an air guide unit having a movable set, a drive unit having a motor and a worm shaft, and a cam unit having a transmission member and a driven member. During a brake action, the motor rotates the worm shaft to rotate the transmission member so as to push the driven member downward to thereby move the movable set to a communicating position where a first valve opening and a second valve opening fluidly communicate with each other. When the brake action is released, the motor rotates reversely so that the driven member is moved upward and that the movable set moves, without being applied with additional force, to a non-communicating position where the first and second valve openings do not fluidly communicate.

Abstract: The method relates to a method for boosting the braking force in an electromotor operated slip-controllable vehicle brake system having electromechanical brake boosting. The vehicle brake system includes a braking-intention detection device, an electromechanically actuatable brake booster, and an electronically actuatable brake-pressure control device. In the event of a malfunction of the brake booster, the boosting of the brake pressure is alternatively assumed by the brake-pressure control device. In the event of a malfunction of the brake boosting, it is checked whether a generation and a transmission of a trigger signal representing the actuation of the braking-intention detection device from the first electronic control device of the brake booster to a second electronic control device of the brake-pressure control device is possible, and if this is so, the trigger signal is transmitted via an existing communications link between the control devices.

Abstract: Braking control systems, such as for an aircraft, use a hydraulic failure isolation valve intermediate an accumulator power source and a dual valve assembly for mechanical operation when a hydraulic power source experiences a disruption.

Abstract: An electronically controllable pneumatic brake system for a vehicle. The electronically controllable pneumatic brake system includes wheel brakes configured to brake wheels of the vehicle, wherein a service brake braking pressure can be imposed on each of the wheel brakes via pneumatic paths starting from a foot brake valve; and an electronically controllable monostable bypass valve having a first switching position and a second switching position, wherein the monostable bypass valve is disposed in a respective pneumatic path of the pneumatic paths. In the first switching position of the monostable bypass valve, a service brake braking pressure in the respective pneumatic path can be derived depending on an actuation pressure produced by manual actuation of the foot brake valve. In the second switching position of the monostable bypass valve, the service brake braking pressure in the respective pneumatic path can be specified depending on a reservoir pressure prevailing in a reservoir.

Abstract: A solenoid valve apparatus for a brake system for a vehicle, including: a main valve unit; a pilot-control valve unit that is fluidically connected to the main valve unit; and a housing to accommodate at least the main valve unit and the pilot-control valve unit; in which the pilot-control valve unit includes a double solenoid unit and at least one valve device, in which the double solenoid unit is formed such that it can be populated with at least one valve device, and in which the double solenoid unit has at least two accommodating portions for accommodating valve devices and at least two solenoid devices for actuating valve devices. Also described are a related braking system and a related method for mounting a solenoid valve assembly for a braking system for a vehicle.

Abstract: An electric motor-driven parking brake of a motor vehicle can be released in an emergency by applying emergency current from a parallel emergency current source to the motors controlling the parking brake. The direction of the emergency current is selected to reverse the motors, i.e., release the parking brake.

Abstract: Braking control systems and methods, such as for an aircraft, use a first pressure sensor and a second pressure sensor from a non-primary braking system to validate the first pressure sensor. In response to the first pressure sensor being validated, a health status of a servo valve is monitored based on predetermined characteristics about the servo valve, including electrical current input into the servo valve and hydraulic pressure output from the servo valve.

Abstract: A spring brake chamber for pneumatic braking systems used in heavy commercial vehicles such as buses, trucks, trailers and tractors, includes a power spring configured to detect the parking position, the driving position and the situation in which the power spring is broken. The present invention allows the driver to be notified by sending a signal.

Abstract: A control device of a vehicle includes a motor controller. The motor controller is capable of controlling a motor configured to generate a driving force of the vehicle, and switching between a first driving mode for driving the motor while using a continuous rated torque as an upper limit and a second driving mode for driving the motor while using a maximum rated torque as an upper limit, the continuous rated torque being lower than the maximum rated torque generatable by the motor. The motor controller drives the motor in the first driving mode in a case where a driver does not specify a driving mode.

Abstract: A vehicle control system controls operation of motors of a vehicle and determines whether there is sufficient stored electric energy to power the vehicle through an unpowered segment of a route. The controller changes operation of the vehicle to ensure that the vehicle can travel completely through the unpowered segment by switching which energy storage device provides energy, changing vehicle speed, changing motor torque, changing which route is traveled on, selecting fewer motors to power the vehicle, requesting rendezvous with a recharging vehicle, running the energy storage devices in a degraded mode, initiating a motor to generate power to aid in propulsion and/or recharge the energy storage devices, selecting a different route, controlling the vehicle to draft or mechanically couple to another vehicle, and/or controlling the vehicle to gain momentum or to generate an overcharge.

Abstract: There is provided a vehicle interior environment adjustment device including: a first memory; and a first processor connected to the first memory, wherein the first processor: acquires posted information, posted by a specific user, from a management server configured to manage a social networking service (SNS), determines a mode of a vehicle interior environment of a vehicle in which the specific user rides, from a characteristic of the specific user based on the acquired posted information, and outputs a control signal according to the determined mode.