Abstract:
A driving assist system for assisting effort by an operator to operate a vehicle in traveling is provided. The assist system receives data including information on vehicle state and information on environment in a field around the vehicle. A controller, mounted to the vehicle, determines future environment in the field, makes an operator response plan in response to the determined future environment to determine command, and generates the command. The operator response plan prompts the operator to operating the vehicle in a desired manner for the determined future environment. At least one actuator, mounted to the vehicle, prompts the operator in response to the command to operating the vehicle in the desired manner.
Abstract:
A vehicle driving control device is configured to improve response to driver braking operation and shorten the free running distance. The vehicle driving control device processes an image showing an area ahead of the host vehicle to recognize a preceding vehicle in the host vehicle lane, and then determines whether or not the preceding vehicle is making a sudden lateral movement based on this image processing result. If the vehicle driving control device determines that the preceding vehicle is making a sudden lateral movement, then a preliminary braking force is generated.
Abstract:
A driving assisting apparatus for preventing a vehicular collision including a camera, a target detector and a processor. The camera takes an image of a predetermined range in front of a vehicle. The target detector detects in the image a target notifying to stop the vehicle to prevent a vehicular collision. In a case that the target detector detects a plurality of the targets, the processor automatically stops the vehicle at a safe position required to prevent the vehicle from colliding with another vehicle.
Abstract:
A lane departure prevention apparatus is configured to conduct a course correction in a lane departure avoidance direction when the controller determines that there is a potential for a vehicle to depart from a driving lane. The lane departure prevention apparatus has a driving road detecting section and a lane departure avoidance control section. The driving road detecting section is configured to determine at least one of a road slope direction and a road curvature direction of a driving road upon which a host vehicle is traveling. The lane departure avoidance control section is configured to start lane departure avoidance control based on a driving direction of the host vehicle and at least one of a road slope direction and a road curvature direction detected by the driving road detecting section.
Abstract:
A lane departure prevention apparatus is configured to avoid lane departure even when the driver is not focused on driving operations, in a state in which the system-operating switch is OFF. The lane departure prevention apparatus has a driver condition detection section or device for detecting that the condition of the driver which is a condition in which the driver cannot perceive that the host vehicle is tending toward departure, and a lane departure avoidance control device for setting the braking control for avoiding departure in an operable state when the system-operating switch for the driver to instruct the operation of control braking for avoiding the lane departure is OFF, the braking control for avoiding departure is OFF, and the driver condition detection section or device has detected that the condition of the driver is a condition in which the driver cannot perceive that the host vehicle is tending toward departure.
Abstract:
A motor vehicle having a plurality of road engaging wheels (7-10), a braking system (3, 14-18) linked to the wheels (7-10) by which a driver of the vehicle (1) may brake the vehicle, a motive means (50) linked to one or more of the wheels (7-10) by which a driver of the vehicle may control vehicle speed, and a dynamic stability control system that includes a means (12-17, 20-22, 24) for deducing the position and orientation of the vehicle system (12-17, 20-22, 24) for predicting the trajectory (TP) of the motor vehicle (1) with respect to the roadway (4) and for identifying when the predicted trajectory (TP) would place the vehicle in danger, and a wheel slip detection system (14-18, 51) for detecting loss of traction of one or more of the wheels (12-17). The dynamic stability control system monitors wheel slip and the predicted trajectory (TP) of the vehicle (1), and, if loss of wheel traction is detected when the predicted trajectory (TP) would place the vehicle (1) in danger, acts to alter (TC) the predicted trajectory, for example by controlling the braking system (14-18) and/or the motive means (50) in such a way that the identified danger is reduced or eliminated.
Abstract:
A vehicle control device incorporating an electric power steering is provided, wherein an extraordinary yaw motion acting on a vehicle is detected and is suppressed or moderated, so that the stability of the vehicle in a straight-ahead steering is improved. The causes of the extraordinary yaw motion are one of lateral wind, asymmetrical surface state of the road, lateral slant of the road and the like. A countermeasure against the extraordinary yaw motion is taken by applying a counter (opposite direction) yaw motion on the vehicle or switching over the control mode from a proportional control to a proportional integral control.
Abstract:
A system and method assists the driver of a motor vehicle in preventing accidents or minimizing the effects of same. In one form, a television camera is mounted on a vehicle and scans the roadway ahead of the vehicle as the vehicle travels. Continuously generated video picture signals output by the camera are electronically processed and analyzed by an image analyzing computer, which generates codes that serve to identify obstacles. A decision computer mounted in the controlled vehicle receives such code signals along with code signals generated by the speedometer or one or more sensors sensing steering mechanism operation and generates control signals. Such code signals may be displayed, and a synthetic speech or special sound generating and warning means used, to warn the driver of the vehicle of approaching and existing hazards. The system may also use the control signals, particularly through application of fuzzy logic, to control the operation of the brakes and steering mechanism of the vehicle to avoid or lessen the effects of a collision. In a particular form, the decision computer may select the evasive action taken from a number of choices, depending on whether and where the detection device senses other vehicles or obstacles.
Abstract:
A vehicle stability control apparatus including a vehicle running stability control device for controlling an automotive vehicle for stable running of the vehicle, and a braking device for applying a brake to the vehicle, wherein a hazard detecting device or detecting a hazardous condition of the vehicle such as a collision of the vehicle with an obstacle and a deviation of the vehicle from the nominal running path, and an automatic brake application device is operable to activate the braking device, when the hazardous condition is detected at least during an operation of the vehicle running stability control device.
Abstract:
A stably braking system and a method using the same control wheels on a single axle of a ground vehicle. Firstly, at least one of a wheel deceleration and an actual slip of each of the wheels is calculated. Hydraulic control commands are generated when a braking operation is performed in response to a braking indication signal and it is detected that the wheel deceleration or the actual slip is higher. The hydraulic control commands are configured to control a hydraulic braking system to adjust the wheel speed. When the ground vehicle drives in a straight line or turns with a first pose physical quantity, the hydraulic control command with a low priority is replaced by the hydraulic control command with a high priority and the hydraulic braking system is controlled to adjust the wheel speeds based on the identical hydraulic control commands.