Abstract: A portable platform with a retractable staircase, the portable platform having a platform frame. The frame is rectangular in shape and made up of four corner posts, front and rear panels, two midrails, and two top rails. The staircase pivots about a single pivot point situated at floor level on the platform, which also comprises a landing. The platform has two pivotable gates, one of which is situated at the front of the platform frame and the other of which is situated at the top of the staircase. An extension plate extends rearwardly from the rear panel of the platform at floor level and is configured to overlie a truck bed. Anchor legs extend downwardly from the extension plate and are configured to fit within existing apertures in the truck bed. The staircase is raised and lowered with a brake winch.

Abstract: A motor vehicle includes a boot lid and a receiving device. The receiving device is configured to receive an electric miniature vehicle. The receiving device has a frame, a flexible bag, and a cover that is openable, where the flexible bag and the frame are sealable by the cover from above. The receiving device in a mounted state is arrangeable behind a back seat of the motor vehicle such that the cover in a closed state forms a rear parcel shelf. The receiving device has an electric port where via the electric port the electric miniature vehicle is attachable to an on-board power supply of the motor vehicle for charging a battery of the electric miniature vehicle.

Abstract: A delivery container is designed to fit into the rear passenger compartment of a vehicle, such as an autonomous vehicle (AV) that makes deliveries without a human driver. The delivery container includes a base, two sides, and a top. The sides are angled and the top is smaller than the base, which creates a large opening that is easy for a user to access and can adequately store large or bulky goods. The delivery container may be accessed from either side of the vehicle, and may include a drawer for moving items from one side of the vehicle to the other, so that items may be easily accessed from either side.

Abstract: Provided is a vehicle hook apparatus capable of preventing damage to a predetermined component that receives a load applied to a hook member. The vehicle hook apparatus includes a hook member provided to be displaceable between a storage position where the hook member is stored by being tilted to a side of a predetermined component and a use position where the hook member is used by being raised from the side of the predetermined component. The hook member includes a locking portion locking to the predetermined component when a first load is applied in a direction in which the hook member is further raised from the use position, and a weak portion deformed to unlock the locking portion from the predetermined component, when a second load exceeding the first load is applied at the use position.

Abstract: A carrier for supporting a foldable picnic table at an undercarriage of a recreational vehicle includes parallel and spaced-apart left and right rail assemblies. The left rail assembly includes a left rail forming an upward-facing support surface configured to engage and support the table thereon, and front and rear mounting brackets spaced-apart along the left rail and upwardly-extending from the left rail. The front and rear mounting brackets of the left rail are configured to be secured to the undercarriage of the recreational vehicle. The horizontal distance between the front and rear mounting brackets and the vertical distance between each of the left and right mounting brackets and the left rail are adjustable. The right rail assembly is a mirror image of the left rail assembly.

Abstract: The present invention discloses a collapsible side panel structure of a roof panel, set upon the outermost rod of the roof panel and includes at least one first base unit; at least one second base unit; a fastener; and a side panel. With the implementation of the present invention, the side panel can be raised and fixed securely to contain and protect small objects or luggage, or the side panel can be set flat on the roof panel and fixed securely to contain larger or wider objects. Together with the invention of the axis deviation between the rotation axis of the side panel and the axis of the first and second through holes, the side panel can be really set flat on or set vertically standing on the roof panel.

Abstract: The invention relates to an adapter unit which is provided for coupling, in particular releasably coupling, a wiper blade to a wiper arm, having a wind deflecting surface which is designed to deflect inflowing air and press the wiper blade against a vehicle windshield. According to the invention, the wind deflecting surface has at least one first sub-surface and a second sub-surface, wherein the first sub-surface has a different orientation than the second sub-surface and/or the first sub-surface has a different geometry than the second sub-surface.

Abstract: Adapter (29) for a connection device (7) configured to connect a wiper blade (3) to a drive arm (5) in a wiper system (1) for a motor vehicle, comprising a first lateral wall (43) and a second lateral wall (45) distant from one another and connected to one another by an upper wall (46), the first lateral wall (43) and the second lateral wall (45) respectively comprising a first orifice (47) and a second orifice (49) which are suitable for receiving a pin (23) extending in a transverse direction (Oy) projecting from the drive arm (5), characterized in that the second lateral wall (45) comprises at least one attachment means (57) for attaching the pin (23) in the second orifice (49) configured to hold the adapter (29) secured to the drive arm (5) at least in the transverse direction (Oy).

Abstract: The invention relates to a wiper blade (10), in particular for a motor vehicle. Said wiper blade comprises a wiper strip (12), a supporting element (14), a liquid channel (26), and a wind deflector strip (18). According to the invention, a closure stopper (36) closes the liquid channel (26) at at least one channel end (34) in the region of an end cap (22) without being in contact with the end cap.

Abstract: A sensor system equipped with a vehicular cleaner comprising: a sensor configured to operate in a normal mode and a standby mode; a cleaner unit configured to clean the sensor in response to an operation signal output in accordance with a dirt determination result of the sensor; and a control unit configured to control the sensor and the cleaner unit. The sensor is configured to operate in the normal mode, in which the sensor is operated at a predetermined cycle, and in the standby mode, in which the sensor is operated at a cycle longer than in the normal mode. The cleaner unit is configured to operate in a regular mode in which the cleaner unit operates in response to the operation signal and to operate in a block mode in which the cleaner unit does not operate even when the operation signal is input.

Abstract: An outrigger guard assembly may include one or more rigid guard sections. Each guard section may include a rigid inner ring located at a proximal end of the guard section and having one or more mounting members extending from the inner ring; a rigid outer ring located at a distal end of the guard section; and one or more rigid radial support members connecting the inner ring and outer ring. The outrigger guard assembly may further include one or more outrigger mating members rigidly attached to an outrigger and adapted to be rotationally mated with the one or more mounting members. The one or more guard sections may form a safety zone around the outrigger.

Abstract: A landing gear assembly includes a leg assembly including a first portion and a second portion, wherein the first and second portions of the leg assembly telescopingly engage one another, a gear assembly operably coupled to the first and second leg portions and configured to telescopingly move the first and second leg portions with respect to one another, the gear assembly including an input shaft, and a drive assembly coupled to the gear assembly comprising a gear arrangement configured to drive the drive shaft of the gear assembly at a first speed and at a second speed that is different than the first speed, an electric motor configured to drive the gear arrangement, and a battery configured to provide power to the motor.

Abstract: A spring brake actuator has a combined housing including a first housing, a second housing, and connection part connecting the first housing and the second housing. Gas inlet ports are disposed along the circumference of the combined housing in a gas inlet port section. A mechanical connection section is disposed in the same axial space as the gas inlet portion section. A bayonet connection is arranged in the mechanical connection section, with gas inlet ports disposed between the bayonet elements. Port connectors may extend through recesses or holes and be threaded into the gas inlet ports, and which may block the bayonet connection and block relative rotation between the first and second housings. The connection part may include a ring shaped protrusion form fit with a protruding of the second housing, with the bayonet elements disposed at the opposite end of the connection part engaged with the first housing.

Abstract: A brake system for a transportation vehicle and a transportation vehicle having such a brake system. The brake system includes two brake circuits which each have a control unit and a battery, wherein the respective control unit actuates two of a total of four service brakes and at least one of at least two electric parking brakes. The brake system also has an electronic circuit element. The brake system forms a defect signal in response to a double fault affecting the two brake circuits and when a defect in at least one of the control units is detected, and/or in which a respective supply voltage of at least one of the control units drops below a predefined limiting value. The at least one electronic circuit element actuates the electric parking brakes when a defect signal is formed.

Abstract: A control device for a vehicle deceleration device of a vehicle including an electronics unit, with the aid of which a time curve of an input variable predefined by a driver of the vehicle with the aid of an actuation of the brake actuating element is evaluatable and the vehicle deceleration device is activatable taking into account the updated input variable and a characteristic curve, which specifies a relationship between the input variable and a setpoint variable with respect to a setpoint vehicle deceleration to be exerted on the vehicle with the aid of the vehicle deceleration device. The electronics unit detects at least one modulation and/or variation of the input variable triggered by the driver and reestablishes at least one subsection of the characteristic curve taking into account the at least one modulation and/or variation of the input variable (xinput) triggered by the driver.

Abstract: When another pump is actuated while a pump is de-actuated, a pressure adjustment valve is brought into a valve-opened state after a shut-off valve is actuated in a valve-opening direction and the another pump is actuated.

Abstract: A front structure of a body-on-frame vehicle includes: a pair of left and right side rails extending in a vehicle front-rear direction; cross-members extending in a vehicle width direction and coupling the side rails together; a motor for traveling disposed between the cross-members; and a brake actuator disposed on a vehicle rear side relative to the cross-member and disposed on an inner side in the vehicle width direction relative to the side rail. The front structure is configured such that, when the motor is removed, a worker is able to access the brake actuator from a space between the cross-members.

Abstract: A method and device for detecting and providing braking assessment information indicative of a particulate emission from a vehicle braking system involves determining, upon a braking event, one or more physical quantities related to the particulate emission caused by the braking event based on detection of at least one physical quantity detected from the one or more physical quantities performed by respective detection means provided in the vehicle. The method and device may also include calculating, by an algorithm or mathematical assessment model, stored and executable in a computer, at least one braking assessment index, based on the one or more determined physical quantities. The braking assessment index being representative of a particulate emission amount by the vehicle braking system upon the braking event, and providing a user with braking assessment information related to the calculated braking assessment index, by a user interface.

Abstract: According to an embodiment, a braking apparatus for a vehicle is advantageous in that this secures the reliability and backup brake performance of a pedal stroke sensor, so that it is possible to prevent a problem in which the brake performance of the vehicle has an error while the vehicle is driving.

Abstract: A method of conducting a diagnostic test to determine leakage within a brake system includes first providing a brake system having a plunger assembly including a housing defining a bore therein. The plunger assembly includes a piston slidably disposed therein such that movement of the piston pressurizes a pressure chamber when the piston is moved in a first direction. The pressure chamber of the plunger assembly is in fluid communication with an output, and wherein the plunger assembly further includes an electrically operated linear actuator for moving the piston within the bore. The linear actuator of the plunger assembly is actuated to provide pressure at the output of the plunger assembly at a first predetermined level. The pressure at the output of the plunger assembly is held for a predetermined length of time. The method further includes determining whether conditional criteria has been met indicating a leakage within the brake system.

Abstract: A pedal emulator including a housing having a first housing portion that defines a first chamber and a second housing portion that defines a second chamber, the second housing portion moveable relative to the first housing portion. The pedal emulator also includes a first spring that is compressed while the second housing portion travels a first distance relative to the first housing portion, a second spring that is compressed in parallel with the first spring after the second housing travels the first distance and while the second housing portion travels a second distance relative to the first housing portion, and a third spring that is compressed in parallel with the first spring and the second spring after the second housing portion travels the second distance and while the second housing portion travels a third distance relative to the first housing portion.

Abstract: The present invention obtains a controller and a control method capable of hastening identification of an object or an event to be focused by a rider of a straddle-type vehicle, the rider having perceived haptic motion. A controller (51) for a rider-assistance system (50) mounted to a straddle-type vehicle (100) includes: a determination section that determines necessity of a warning given to the rider; and a haptic motion performing section that performs haptic motion at least once to reduce or increase acceleration/deceleration of the straddle-type vehicle (100) only for a moment. The haptic motion performing section changes a priority of each wheel (3, 4) at the time of changing a braking force to reduce or increase the acceleration/deceleration only for the moment in the haptic motion according to a focusing direction that is a direction in which the rider should focus by the warning.

Abstract: A braking control device for a motor driven vehicle includes a wheel rotation speed sensing part which is disposed on each wheel of the vehicle and detects a detection speed of wheel rotation of the vehicle, a wheel rotation speed estimation part which detects a resolver value of a motor and estimates an estimation speed of wheel rotation using the detected resolver value, a sensor determination part which determines whether the wheel rotation speed sensing part is abnormal using the detection speed of wheel rotation and the estimation speed of wheel rotation, and a wheel rotation speed determination part which determines the estimated estimation speed of wheel rotation to be a wheel rotation speed of the vehicle when the wheel rotation speed sensing part is abnormal.

Abstract: The invention relates to a method of controlling a heavy-duty vehicle in a slope when the vehicle has come to a standstill due to service brakes of the vehicle having applied a service brake force, the method comprising determining a total brake force required for maintaining the vehicle at standstill, activating at least one park brake for providing a park brake force, gradually increasing the park brake force, and, while the park brake force is gradually increased, gradually reducing the service brake force while maintaining the sum of the service brake force and the park brake force at least equal to the determined total brake force.

Abstract: The electronic control unit is configured to, when braking by the braking device is performed in a deceleration state where the coasting deceleration is equal to or less than a threshold value, distribute target braking force corresponding to requested deceleration to front-wheel braking force and rear-wheel braking force in accordance with a front-rear distribution ratio determined from the requested deceleration and the braking force distribution characteristics, and when the braking is performed in a deceleration state where the coasting deceleration is higher than the threshold value, distribute corrected target braking force to the front-wheel braking force and the rear-wheel braking force in accordance with the front-rear distribution ratio determined from total deceleration and the braking force distribution characteristics, the corrected target braking force being a sum of the target braking force and braking force that generates the coasting deceleration.

Abstract: Method for detecting a failure in a pneumatic system of a vehicle, the pneumatic system comprising a supply pneumatic subsystem comprising supply lines, a control pneumatic subsystem comprising control lines, a delivery pneumatic subsystem comprising delivery lines, the vehicle comprising an electronic control unit configured to implement a trained supply recurrent neural network, a trained control recurrent neural network, a trained delivery recurrent neural network, and a trained main recurrent neural network; the method comprising collect and provide the input parameters to the trained recurrent neural networks to get a output from recurrent neural networks; provide the input parameters and the output parameters from recurrent neural networks to get a main output indicative of a pneumatic system health parameter indicative of a presence or an absence of a failure in one of the supply pneumatic subsystem, or the control pneumatic subsystem, or the delivery pneumatic subsystem of the pneumatic system.

Abstract: A method for turning off an internal combustion engine (ICE) where a clutch arrangement has first and second clutches that respectively couple the ICE to first and second input shafts of a transmission. The input shafts are drivingly connected to first and second sets of gears, respectively. The sets of gears are connected to an output shaft of the transmission. The method includes: controlling the ICE in an idling state when the vehicle is in standstill, wherein the clutches are in open positions; engaging the first input shaft with a first pre-selected gear, and engaging the second input shaft with a second pre-selected gear; initiating an engine turning off command; stopping the ICE by at least partly closing the clutches for simultaneously introducing torque transfer to the clutches into a transmission tie-up state for a controlled engine stop, wherein engine inertia of the ICE is captured in the clutches.

Abstract: A system for controlling a ground speed of an agricultural sprayer includes a speed setting device for commanding a selected ground speed of the sprayer when operating within a speed-range mode associated with a ground speed range. The speed setting device is movable across a plurality of positions, with each position being associated with a different ground speed within the ground speed range. A maximum range speed of the ground speed range is lower than a maximum ground speed of the sprayer. As such, the system includes a speed override input device for commanding that the ground speed of the sprayer be increased to the maximum ground speed. When an override input is received from the speed override input device, the computing system controls the operation of a sprayer drive system to increase the ground speed of the sprayer from the selected ground speed to the maximum ground speed.

Abstract: A system comprises a computer including a processor and a memory. The memory includes instructions such that the processor is programmed to receive geoindexed detected vehicle event data from at least one vehicle occurring within a predefined time period, normalize the geoindexed detected vehicle event data according to Global Position System (GPS) data corresponding to a geoindex map, and generate an infrastructure recommendation based on the normalized and aggregated geoindexed detected vehicle event data.

Abstract: A system and method for controlling a transmission of electrical signals in a vehicle wiring harness (12) of a vehicle (10). The system includes: a vehicle sharing control unit (14) including a controller (16) and a transmitter (18) for transmitting wirelessly vehicle sharing control signals (20); a wireless latching relay (22) including a receiver (24) configured for receiving the vehicle sharing control signals (20) from the transmitter (18), and a latching relay (26). In use, the vehicle wiring harness (12) is cut to define first and second ends (28, 30), and the first and second ends (28, 30) are connected in series with the latching relay (26).

Abstract: It is determined whether fuel efficiency of a vehicle is improved by operating a first rotating machine to generate electricity to such an extent that an electrical path amount becomes a desired electrical path amount for controlling an operating point of an engine to a desired operating point and driving and operating a second rotating machine as a second power source, the electrical path amount being a magnitude of electric power in an electrical path through which the electric power is transferred between the first rotating machine and the second rotating machine. When the electronic control device determines that the fuel efficiency of the vehicle is improved, the first rotating machine is operated to generate electricity to such an extent that the electrical path amount becomes the desired electrical path amount and the second rotating machine is driven and operated as the second power source.

Abstract: By the vehicle control method, in a vehicle provided with wheel, a sensor that acquires rotation speed of the wheel, and a sound generation device that generates sound as the sound generation device is driven, the angular acceleration of wheel is obtained from the rotation speed acquired by a sensor, and a sound generation device is controlled such that the generated sound becomes louder when conditions are met. Cases in which the angular acceleration is high are included in the conditions.

Abstract: Systems and methods for operating a driveline of a hybrid vehicle are presented. In one example, a boost phase of a procedure to close a driveline disconnect clutch may be cut short in response to an engine changing state from not rotating to rotating so that the engine may be restarted in an alternative way. The system and methods may also predict a degraded engine start from a low engine cranking speed or a long cranking time duration so that the engine may be started in an alternative way to increase a possibility of starting the engine and decrease the severity of degraded driveline disturbance.

Abstract: A mobile object control system includes: a storage device configured to store a instructions; and one or more processors, wherein the one or more processors execute the instructions stored in the storage device to: determining whether a roadway is a pedestrian road in which passage of vehicles is restricted; expanding a movable area in which the mobile object can move in a width direction of the roadway when it is determined that the roadway is the pedestrian road; and controlling the mobile object based on the movable area.

Abstract: Systems and methods are provided for navigating based on behaviors of following vehicles. In one implementation, a navigation system for a host vehicle may include at least one processing device. The at least one processing device may be programmed to receive, from a camera, a plurality of images representative of an environment of the host vehicle; analyze the plurality of images to identify a first target vehicle and a second target vehicle in the environment of the host vehicle; analyze the plurality of images to determine a distance between the first target vehicle and the second target vehicle; and determine, from the plurality of images, a time to reach a boundary associated with one of the first target vehicle and the second target vehicle, wherein the determined time exceeds a first threshold and does not exceed a second threshold.

Abstract: A method for the predictive assessment of a current driving situation of a vehicle, in particular utility vehicle, includes determining currently present driving situation information, wherein the driving situation information characterizes the current driving situation of the vehicle. The method includes specifying the driving situation information to a neural algorithm, wherein the neural algorithm assigns, in the manner of a trained neural network, a driving situation category to the currently present driving situation information. The respective driving situation category is based on a predicted driving situation. The neural algorithm determines the predicted driving situation in accordance with the current driving situation and the predicted driving situation indicates a driving situation of the vehicle which will develop in future from the current driving situation. The method includes outputting an output value characterizing the driving situation category, as an assessment result.

Abstract: A device and a method for controlling autonomous driving are provided The device includes non-transitory memory storing instructions executable to control an autonomous driving; and a processor configured to execute the instructions to determine whether a collision has occurred using an acceleration sensor mounted on an airbag control unit during the autonomous driving, determine a collision direction based on a change in acceleration of three axes obtained by the acceleration sensor, and perform an emergency action by controlling at least one of longitudinal direction travel or transverse direction travel based on the collision direction.

Abstract: Aspects of the disclosure relate to detecting and responding to objects in a vehicle's environment. For example, an object may be identified in a vehicle's environment, the object having a heading and location. A set of possible actions for the object may be generated using map information describing the vehicle's environment and the heading and location of the object. A set of possible future trajectories of the object may be generated based on the set of possible actions. A likelihood value of each trajectory of the set of possible future trajectories may be determined based on contextual information including a status of the detected object. A final future trajectory is determined based on the determined likelihood value for each trajectory of the set of possible future trajectories. The vehicle is then maneuvered in order to avoid the final future trajectory and the object.

Abstract: A vehicle control apparatus selects at least one oncoming vehicle and sets the selected oncoming vehicle as a control target vehicle when an own vehicle turns right or left in a traffic intersection, acquires a first index value which represents a collision probability, and executes a collision avoiding control when the first index value satisfies a predetermined condition. The vehicle control apparatus calculates a second index value which represents a degree of turning of the own vehicle, moves an area used to select the control target vehicle toward the own vehicle in an opposite direction to a turning direction of the own vehicle as the second index value increases, and selects, as the control target vehicle, the oncoming vehicle which has been in the area for a predetermined time threshold or more.

Abstract: An apparatus for assisting driving of a vehicle includes: a radar mounted on the vehicle to have a front field of view of the vehicle and configured to acquire detection data; and a controller including a processor, configured to process the detection data, and configured to identify an estimated collision time between the vehicle and a first preceding vehicle, located in front of the vehicle, based on processing of the detection data, and to control a braking system of the vehicle to brake the vehicle, in response to the estimated collision time being less than a reference time, wherein the controller is configured to increase a reference time for braking the vehicle, based on an acceleration and a travelling speed of the first preceding vehicle and an acceleration and a travelling speed of a second preceding vehicle, located in front of the first preceding vehicle.

Abstract: Provided is an apparatus for assisting driving of a host vehicle, the apparatus comprising: a camera mounted to the host vehicle and having a field of view in front of the host vehicle, the camera configured to acquire image data; and a controller including a processor configured to process the image data. The controller may identify at least one object obstructing driving of the host vehicle based on the image data, and control a steering controller of a steering device to apply a periodically varying dithering torque to the steering device of the host vehicle in response to a collision with the at least one object being expected. The apparatus for assisting driving of a host vehicle may shorten the response time for emergency steering.

Abstract: The present technology is directed to training and the use of a machine learning model to measure the safety of an autonomous vehicle (AV) driving in simulation. An AV management system can run a simulation of an AV autonomously piloting itself and collect simulation driving data. Further, the AV management system can parse the simulation driving data into kinematic and semantic environmental features and output a simulation safety score of the simulation based on the kinematic and semantic environmental features. The simulation safety score indicates a probability of a safety critical event such as a collision or a near-miss between the AV and the at least one simulated object in the simulation.

Abstract: A driver assist device and a method for operating the device are provided. The driver assist device includes a processor and a non-transitory storage medium containing program instructions executed by the processor. When a vehicle changes a lane from a traveling lane to a target lane, the processor determines a possibility of collision between the vehicle and another vehicle in the target lane and calculates an expected amount of deceleration of the vehicle with respect to a target vehicle in the target lane when there is no possibility of collision between the vehicle and the another vehicle. The processor compares the calculated expected amount of deceleration of the vehicle with a deceleration criterion, and determines whether to perform lane change assist control based on the comparison result.

Abstract: Techniques for determining whether to yield a vehicle to an oncoming object based on a stationary object are discussed herein. A vehicle can determine a drivable area in an environment through which the vehicle is travelling. A trajectory associated with the vehicle can be determined. A probability that the oncoming object will intersect a drive path associated with a vehicle trajectory can be determined. In some case, the probability can be based on various distance metric(s) of the environment. If the oncoming object is determined to intersect the drive path, a stopping location for the vehicle can be determined to allow the oncoming object to traverse around the stationary object. The vehicle can be controlled based on sensor data captured by the vehicle and the probability.

Abstract: The position of the distance measurement point is acquired from the distance measurement sensor, the lateral position of the road boundary is estimated from the most frequent value in the frequency distribution indicating the distribution status of the distance measurement point group. When multiple peaks having a frequency in the frequency distribution equal to or higher than a predetermined value are disposed on one of the left side and the right side of the vehicle, it is determined whether the estimation of the road boundary is in an unstable state. The vehicle position on the map is specified, and the traveling lane of the vehicle is estimated based on the information about the numerical number of traffic lanes and the positional relationship of the road boundary without using the estimation result of the lateral position of the road boundary in the unstable state.

Abstract: A lane departure control apparatus for a vehicle includes a lane departure control calculator, a lane information acquiring unit, and a steering angle detector. The lane departure control calculator is configured to determine whether the vehicle is to depart from a current lane in accordance with a preset lane departure control pattern. The lane departure control calculator includes an estimated-lateral-acceleration calculator, an actual-lateral-acceleration calculator, a lane-based-lateral-acceleration calculator, a storage, and a control pattern generator. The control pattern generator is configured to compare a lane-based lateral acceleration calculated by the lane-based-lateral-acceleration calculator and a limit stored in the storage and to generate a new lane departure control pattern in a case where the lane-based lateral acceleration is over the limit.

Abstract: The disclosure includes embodiments for identifying a transmitter of a Vehicle-to-Everything (V2X) message. In some embodiments, a method for an ego vehicle includes modifying an operation of a communication unit of the ego vehicle to receive a V2X message that includes identification data of a transmitter of the V2X message. The method includes executing a proactive vehicle control operation on the ego vehicle to modify a distance between the ego vehicle and a preceding vehicle ahead of the ego vehicle so that the distance satisfies a distance threshold. The method includes determining whether the preceding vehicle is the transmitter based on the identification data so that a reliable determination is achieved to improve a driving safety of the ego vehicle responsive to the distance satisfying the distance threshold.

Abstract: A vehicle driving assistance system performs traveling assistance control under which an own vehicle automatically travels with. The traveling assistance control includes first constant-speed control for automatically controlling the acceleration of the own vehicle, based on a first vehicle-speed range including a set vehicle speed, such that the vehicle speed of the own vehicle is kept equal to the set vehicle speed, and second constant-speed control for automatically controlling the acceleration of the own vehicle, based on a second vehicle-speed range including the set vehicle speed, such that the vehicle speed of the own vehicle is kept equal to the set vehicle speed. The second vehicle-speed range is set to a wider range than the first vehicle-speed range. The vehicle driving assistance system switches the traveling assistance control between the first constant-speed control and the second constant-speed control, according to the traveling state of the own vehicle.

Abstract: A platooning control method includes: determining whether a preceding vehicle, which is located in front of a host vehicle, has entered a slope section when a plurality of vehicles are moving on a road, acquiring longitudinal distance information between the host vehicle and the preceding vehicle using a Dead-Reckoning (DR) sensor of the host vehicle upon determining that the preceding vehicle has entered the slope section, and performing platooning control by the host vehicle with the plurality of vehicles in the slope section using the longitudinal distance information acquired by the DR sensor and speed information.

Abstract: A vehicle control device includes an inter-vehicle distance determination unit that determines an inter-vehicle distance, and a following control unit that performs a following control with respect to a preceding vehicle on the basis of the inter-vehicle distance determined by the inter-vehicle distance determination unit. The following control includes a first control state, and a second control state in which a burden on the driver is lighter than in the first control state, or in which a degree of automation is higher than in the first control state. A minimum value of the inter-vehicle distance that can be determined by the inter-vehicle distance determination unit in the second control state is greater than a minimum value of the inter-vehicle distance that can be determined by the inter-vehicle distance determination unit in the first control state.