Abstract:
A vehicle yaw stability control method and a vehicle yaw stability control apparatus are provided. The yaw rate {dot over (Ψ)} of the vehicle is measured. A first reference yaw rate {dot over (Ψ)}ref is set. A difference yaw rate Δ{dot over (Ψ)} is set. Stabilizing braking intervention is triggered when a value of the difference yaw rate Δ{dot over (Ψ)} exceeds limits defined by difference yaw rate threshold values Δ{dot over (Ψ)}min, Δ{dot over (Ψ)}max. Information regarding the shape of the road ahead of the vehicle is acquired. The reliability of the driver steering input δ is evaluated upon stabilizing braking intervention being triggered. In case the driver steering input δ is deemed unreliable a replacement reference yaw rate {dot over (Ψ)}refroad is set based on the acquired road shape and a replacement difference yaw rate Δ{dot over (Ψ)}road is set whereupon stabilizing braking intervention is performed based on the replacement difference yaw rate Δ{dot over (Ψ)}road.
Abstract:
A vehicle control apparatus includes a first section that recognizes a lane boundary line of a lane in which a vehicle is traveling. A second section recognizes a present position of a predetermined reference point of the vehicle. A third section calculates a predicted position of the reference point, wherein the predicted position is a predetermined interval ahead of the present position. A fourth calculates an imaginary lane boundary line, wherein the imaginary lane boundary line is tangent to the lane boundary line at a point close to the predicted position. A fifth section performs a control of preventing the vehicle from deviating from the lane by controlling the vehicle depending on positional relationship between the vehicle and the lane boundary line. A sixth section selectively permits and suppresses the control depending on positional relationship among the imaginary lane boundary line, the present position, and the predicted position.
Abstract:
A driving control device according to the present invention activates a control for suppressing sideways movement of a vehicle towards a side object, when the side object present to the side of the vehicle as well as towards the rear of the vehicle is detected. Also, the activation of the control is suppressed when, in the absence of detection of the side object, the vehicle starts entering an adjacent lane in order to change lanes.
Abstract:
An imaging system for a vehicle includes an imaging sensor and a control. The imaging sensor is operable to capture an image of a scene occurring exteriorly of the vehicle. The control is responsive to the imaging sensor. The imaging system may be associated with a side object detection system, a lane change assist system, a lane departure warning system, a monitoring system, a passive steering system and/or the like. The control may be operable to process a reduced image data set more than other image data, which are representative of areas of the captured image outside of a target zone, to detect objects present within the target zone.
Abstract:
A method for assisting a user of a vehicle, in which driving-condition variables (v, a, q, ω, n) are sensed or ascertained via sensors of the vehicle, and a camera of the vehicle covers a coverage area of a road scene at least in front of the vehicle and outputs image signals. Based on the image signals, it is determined whether a further vehicle which is outputting blinking signals is in the coverage area. As a function of the ascertained driving-condition variables (v, a, q, ω, n) of the vehicle and as a function of the determination as to whether other vehicles are indicating a change of direction, information signals, particularly warning signals, are able to be output to the user and/or an automatic driver-assistance control is able to be implemented in which control signals for interventions in a vehicle control for a longitudinal control and/or lateral control, especially a distance control, are output. In this context, in each case different possible control interventions are able to be ascertained and carried out. Furthermore, a corresponding control device and the vehicle thereby made possible are provided.
Abstract:
System for evaluating the traffic environment of a motor vehicle and for influencing the speed of the motor vehicle in its own traffic lane, comprising an electronic control unit (ECU), which is connected to a signal transmitter that produces a signal characteristic of the desired speed of the motor vehicle, a signal transmitter that produces a signal characteristic of the yaw of the motor vehicle about its vertical axis, a signal transmitter that produces a signal characteristic of the articles situated, in the direction of travel of the motor vehicle, in front of the motor vehicle in terms of their spacing and orientation relative to the motor vehicle and which reproduces the speed relative to the speed of the system motor vehicle and/or the spacing relative to the system motor vehicle and/or the angular offset or the cross track distance relative to the vehicle longitudinal axis of the system motor vehicle, and a signal transmitter that produces a signal characteristic of the speed of at least one wheel of the motor vehicle, and which is connected to at least one control device, which influences the performance of the motor vehicle, in order to supply said device with output signals derived from the performance of the motor vehicle situated in front of the system motor vehicle, in which in the electronic control unit (ECU) the width of the system motor vehicle traffic lane is modified in dependence upon the distance of articles detected in the space in front of the system motor vehicle from the system motor vehicle, wherein the width in the close range and in the remote range is smaller than in the medium range.
Abstract:
An automotive lane deviation prevention (LDP) apparatus includes a control unit detecting whether a host vehicle is in a specific state where the host vehicle is traveling on road-surface irregularities formed on or close to a lane marking line. The control unit actively decelerates the host vehicle when the host vehicle is in the specific state where the host vehicle is traveling on the road-surface irregularities.
Abstract:
A lane departure avoidance system is provided with a rumble strip sensing device and a lateral lane departure rate determining component. The rumble strip sensing device is configured to detect an input from a rumble strip to a vehicle wheel that is indicative of a rumble strip engagement amount. The lateral lane departure rate determining component is configured to determine a lateral rate of lane departure of a vehicle based on a detection result of the rumble strip sensing device.
Abstract:
A method of discriminating between road markings of at least two colors, comprises: capturing an image of a road and at least one road marking with a monochrome camera having a first color response in a first area of a field of view of the camera and a second color response in the second area of the field of view; and determining the change in intensity of the captured image of the road marking between the first and second areas. Apparatus for discriminating between road markings is also disclosed.
Abstract:
An alert system for a vehicle includes a forward facing camera having a field of view that encompasses the road ahead of and traveled on by the equipped vehicle, and may include a radar detector having a field of view to the side of and rearward of the equipped vehicle as it travels along the road and/or an image-based detector having a field of view to the side of and rearward of the equipped vehicle as it travels along the road. The alert system determines a lane change into a side lane by the equipped vehicle and detects a vehicle in that side lane, and an alert is generated to the driver of the equipped vehicle. The alert may be generated irrespective of the status of a turn signal of the equipped vehicle.