Abstract:
Provided is a vehicle control system capable of securing stability even in the event of a collision with a travel-path defining line such as a guardrail. The invention recognizes the travel-path defining line of a travel path from information about an area in a traveling direction of an ego vehicle, recognizes a traveling-direction virtual line extending from the ego vehicle in the traveling direction, and imparts a yaw moment control amount so that a formed angle between the traveling-direction virtual line and the travel-path defining line decreases after the ego vehicle collides with the travel-path defining line.
Abstract:
A method and system of avoiding a collision between an object attached to a rear of a vehicle and an object behind the vehicle during reverse maneuvering of the vehicle includes determining with an electronic control unit of the vehicle an adjusted top height of a first object attached to a rear of the vehicle. The electronic control unit then determines whether the adjusted top height is lower than a clearance height of a second object behind the vehicle and unattached to the vehicle. Upon determining that the adjusted top height of the first object is not lower than the clearance height of the second object, the electronic control unit determines that the first object would collide with the second object if the vehicle is reverse maneuvered too close to the second object and upon determining that the collision would occur alerting a user of the vehicle.
Abstract:
A collision avoidance system of a vehicle includes a camera disposed at a vehicle and having a field of view exterior of and rearward of the vehicle. An image processor is operable to process image data captured by the camera. Responsive to image processing of captured image data, the collision avoidance system is operable to determine an approach of a vehicle rearward of the vehicle and to determine an excitation level depending on a difference between the speed of the approaching vehicle and the speed of the equipped vehicle and a distance between the approaching vehicle and the equipped vehicle. Responsive to the determined excitation level, the collision avoidance system may provide an alert to the driver of one or both vehicles, prepare for impact, control a vehicle braking system, vehicle steering system and/or vehicle acceleration system and/or communicate information to the approaching vehicle via a telematics system.
Abstract:
An automatic braking control device includes a temperature obtaining section for obtaining an index value of a temperature of brake fluid, a collision prediction time calculation section for calculating collision prediction time of a vehicle with an object, a collision determination section for determining whether the collision prediction time is less than or equal to a threshold, and a pressure control section for controlling a start timing of pressurization of the brake fluid when the collision prediction time is less than or equal to the threshold. The pressure control section sets the start timing to a first timing when the index value is a first temperature and to a second timing when the index value is a second temperature higher than the first temperature. Time from determination of the collision determination section to the first timing is shorter than time from the determination to the second timing.
Abstract:
An improved braking system for a hand cart is disclosed. The braking system is designed to be hand operated and to provide a simple mechanical stopping system for the cart. The system is lightweight and can be done at a lower cost than conventional braking systems and can prevent binding of the tires into the brakes.
Abstract:
An apparatus that senses a minor collision of a vehicle is configured to minimize damage to the vehicle by actuating a brake system of the vehicle upon sensing a scratch of the vehicle by analyzing a sound (e.g., a sound wave signal) generated when a surface of the vehicle is scratched by, for example, a column of a building, the other vehicle, or the like when the vehicle is driven forward or backward at or below a certain speed.
Abstract:
An on-vehicle apparatus is provided to reduce damage from collisions. In the apparatus, an object located in a field in a travel direction of a vehicle is detected and a time to collision (TTC) is detected. A controller performs automatic intervention braking in the vehicle when it determined that the time to collision is equal to or shorter than a first threshold time. Further, when it determined that the time to collision is equal to or shorter than a second threshold time shorter than the first threshold time and meets a preset actuation condition, a protection controller makes a protection device active for vehicle protection. A collision speed is also estimated based on an deceleration of the vehicle caused by the automatic intervention braking. The preset actuation condition is a condition that the estimated collision speed is equal to or higher than a preset threshold speeds.
Abstract:
A vision system of a vehicle includes a camera disposed at a vehicle and having a field of view forward of the vehicle. An image processing system is operable to process image data captured by the camera to determine the presence of a leading vehicle ahead of the equipped vehicle and to determine an illumination level of a taillight of the leading vehicle. Responsive to a determination of a relative speed of the leading vehicle relative to the equipped vehicle and a relative acceleration of the leading vehicle relative to the equipped vehicle, the vision system determines a braking level of the equipped vehicle to mitigate collision with the leading vehicle. Responsive to the determination of the illumination level of the taillight of the determined leading vehicle, the vision system is operable to apply a weighting factor to adjust the determined braking level for the determined traffic condition.
Abstract:
A vehicle controller includes: an on-vehicle outside sensing unit configured to detect a target based on characteristics of the outside of a vehicle; an operation unit that operates the vehicle; a decision section configured to determine a first operation mode upon non-operation of the operation unit or a second operation mode different from the first operation mode upon operation of the operation unit; and a control unit configured to determine, upon decision section determining the second operation mode, an obstacle based on the target detected by the on-vehicle outside sensing unit in a shorter time than required upon decision section determining the first operation mode and to control the vehicle in accordance with the obstacle determined.
Abstract:
A driver assistance system for a motor vehicle includes at least one driving data sensor for sensing driving data that characterize the driving condition of the motor vehicle, and an electrical controller configured to initiate autonomous emergency braking of the motor vehicle when predetermined driving data has been sensed. A device is provided that is configured to detect a vehicle located in front of the motor vehicle in the direction of travel of the motor vehicle. The electrical controller maintains a brake of the motor vehicle in braking position or brings the brake into the braking position following an emergency braking action when a preceding vehicle is detected.