Abstract:
To provide a device associated with at least one means of transport, in particular at least one motor vehicle, for the detection, in particular intuitive detection, of the operating and/or system states of at least one assistance/support system for the lateral guidance of the means of transport, in which the acceptance of the assistance/support system is increased, for example in such a way that the response of the system may be readily assessed at any time by the driver of the means of transport, at least one display element is provided for displaying the particular operating and/or system state.
Abstract:
Whether a driver is driving intentionally is determined rapidly and accurately when steering control is performed such that a vehicle travels along recognized travel partitioning lines. A torque value deviation absolute value is calculated using the absolute value of a difference between the torque value from the previous processing and the torque value from the current processing, and is stored in a ring buffer. A torque value deviation sum value is calculated by adding all the torque value deviation absolute values stored in the ring buffer, and when a state in which the torque value deviation sum value is equal to or less than a predetermined driving intention determination threshold continues for a predetermined first threshold time (for example, several seconds; e.g. 5 seconds) or longer, it is determined that there is a decrease in the driving intention.
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 receives the captured image, which comprises an image data set representative of the exterior scene. The control may apply an edge detection algorithm to a reduced image data set of the image data set. The reduced image data set is representative of a target zone of the captured image. The control may be operable to process the reduced image data set more than other image data, which are representative of areas of the captured image outside of the target zone, to detect objects present within the target zone. The imaging system may be associated with a side object detection system, a lane change assist system, a lane departure warning system and/or the like.
Abstract:
A method for monitoring or influencing the movement of a vehicle on a path determines a desired path and an actual movement of the vehicle, performs a comparative analysis of the desired path and the actual movement, and transmits by haptic means an information variable according to the result of the comparative analysis to the driver of the vehicle, or controls at least one wheel brake according to the result of the comparative analysis.
Abstract:
An automobile distance warning and alarm system (ADWAS) in which the warning system is armed when the vehicle exceeds a threshold speed. The vehicle speed is used, along with road or weather conditions, to determine a safe vehicle separation time and corresponding distance. A range finder then determines the actual separation distance between the driver's vehicle and a forward or following vehicle. If the safe separation distance is not maintained for a selected dead time interval, the driver is alerted by an alarm, which may be both an audible and visual alarm. The driver of a following vehicle is also alerted by a rear indicator light.
Abstract:
In an environment monitoring system for a vehicle, when a detecting means decides that an approaching vehicle cannot be detected by an image processing means, a waning means gives warning of this fact. Thus, the environment monitoring system permits one's own vehicle to run with safety even when the approaching vehicle cannot be detected.
Abstract:
A detecting device for detecting moving target vehicles from a moving host vehicle, comprising a first detector means mounted to the host vehicle and aligned to a stationary target area for generating at least a first output representative of the stationary target area at least at a time T1, a second detector means mounted to the host vehicle and aligned to the stationary target area for generating at least a second output representative of the stationary target area at least at a time T2, and a control system to receive the first and second outputs and to compare the first output at T1 to the second output at T2 to identify any differences between the outputs, whereby a target vehicle moving in the stationary target area may be detected.
Abstract:
GPS satellite (4) ranging signals (6) received (32) on comm1, and DGPS auxiliary range correction signals and pseudolite carrier phase ambiguity resolution signals (8) from a fixed known earth base station (10) received (34) on comm2, at one of a plurality of vehicles/aircraft/automobiles (2) are computer processed (36) to continuously determine the one's kinematic tracking position on a pathway (14) with centimeter accuracy. That GPS-based position is communicated with selected other status information to each other one of the plurality of vehicles (2), to the one station (10), and/or to one of a plurality of control centers (16), and the one vehicle receives therefrom each of the others' status information and kinematic tracking position. Objects (22) are detected from all directions (300) by multiple supplemental mechanisms, e.g., video (54), radar/lidar (56), laser and optical scanners. Data and information are computer processed and analyzed (50, 52, 200, 452) in neural networks (132, FIGS. 6-8) in the one vehicle to identify, rank, and evaluate collision hazards/objects, an expert operating response to which is determined in a fuzzy logic associative memory (484) which generates control signals which actuate a plurality of control systems of the one vehicle in a coordinated manner to maneuver it laterally and longitudinally to avoid each collision hazard, or, for motor vehicles, when a collision is unavoidable, to minimize injury or damage therefrom. The operator is warned by a heads up display and other modes and may override. An automotive auto-pilot mode is provided.
Abstract:
A vehicle environment monitoring system for an automotive vehicle is capable of accurately detecting the movement of an object existing in an environment of the vehicle, and determining the possibility of collision between the object and the vehicle, thereby appropriately warning the driver. A relative position of the object to the automotive vehicle is detected from the image obtained by a camera mounted on the vehicle to obtain position data. Positions of the object in a real space are calculated based on a plurality of time series items of the position data detected on the object, and a movement vector of the object is calculated based on the positions in the real space. It is determined based on the movement vector whether or not the object has a high possibility of collision against the automotive vehicle.
Abstract:
A travelling direction correcting apparatus includes: a shift detection device for detecting a shift amount of a vehicle running on a road with respect to the road; a wheel brake pressure control device for pressure wheel brake pressures and controlling a wheel brake pressure distribution; and a cruise control device for commanding a wheel brake pressure distribution control to the wheel brake pressure control device. The wheel brake pressure distribution control includes the following processes: (1) at least one of a yaw rate, a lateral speed and a lateral acceleration is made an index, (2) a value of the index, which appears in the vehicle when its running direction is changed toward a direction along which the shift amount decreases, is added to a value of the index, which appears when the vehicle runs along a curved road, and a summed amount is made an object value and (3) the value of the index, which appears in the vehicle, is coincided with the object value.