Abstract:
A method for controlling start-up operations of a vehicle is provided. The method includes receiving user settings indicative of at least a desired time during which sound generated during start-up operations is controlled. The method also includes determining current environmental conditions indicative of at least one of a current time of day and a current geographical location of the vehicle, and comparing the current environmental conditions with the user settings. The method also includes controlling the sound generated by the vehicle during vehicle start-up operations based at least in part on a result of the comparison between the current environmental conditions and the user settings.
Abstract:
A touch point calibration method for a motor vehicle is disclosed. The method includes steps for determining if the touch point can be calibrated. The method also includes steps for determining the touch point when the system can be calibrated.
Abstract:
A method for determining a steering angle of a steering shaft in a motor vehicle is disclosed. The method uses a rotation sensor associated with an electric motor of a power steering system to determine the relative steering angle of the steering column. The relative steering angle is measured relative to an initial position of the steering column during vehicle startup. The relative steering angle is reset each time the motor vehicle is turned on.
Abstract:
A control system for a motor vehicle is disclosed. The control system determines if a motor vehicle is going to stop according to information about a preceding vehicle. The control system may use information about the vehicle speed of the motor vehicle, a following distance between the motor vehicle and a preceding vehicle and preceding vehicle deceleration information. When the control system determines that the motor vehicle is going to stop, the motor vehicle shuts down the engine prior to the vehicle stopping in order to improve fuel efficiency and reduce emissions.
Abstract:
Disclosed is an improved ESD control system for use in vehicular applications that incorporated one or more dissipative elements constructed from a blend of polypropylene and a urethane/acrylic alloy which form substantially co-continuous networks and which are suitable for injection molding operations to produce dissipative elements. The dissipative elements are then incorporated into vehicular interiors in a manner whereby a surface of the element is exposed to contact, whether incidental or deliberate, by the vehicle occupants, particularly as they are entering or exiting the vehicle, to provide controlled dissipation of electrostatic charges that have accumulated on the occupants. In particular, these materials may be used in forming portions of the vehicle seat assembly and/or door assembly that will typically be contacted during egress, operation of the vehicle and/or ingress in order to suppress subsequent and less controlled discharges that could compromise the comfort and safety of the vehicle occupants.
Abstract:
A method for determining a steering angle of a steering shaft in a motor vehicle is disclosed. The method uses a rotation sensor associated with an electric motor of a power steering system to determine the relative steering angle of the steering column. The relative steering angle is measured relative to an initial position of the steering column during vehicle startup. The relative steering angle is reset each time the motor vehicle is turned on.
Abstract:
A control method for an automotive vehicle steering system including an electric motor providing a steering force on a steering mechanism. The method comprises providing at least three steering system MAPs which control an electric current supplied to the electric motor. Wherein if a new MAP is selected when at least two prior selected MAPs are blending, the MAP comprising the greatest component of a blend at the time the new MAP is selected is decreased at a faster rate than the MAP comprising the lesser component.
Abstract:
A method is provided for centering a steering rack in an automotive vehicle, particularly a vehicle that includes an electric power steering (EPS) system. The centering method includes locating a center by using an electric motor of the EPS system. The method includes temporarily locking the steering rack in place and subsequently installing a steering wheel to a steering column after the locating step. The method further includes operatively communicating with an on-board processor or ECU of the automotive vehicle and running a program to determine or locate the center of the rack. The method may also include detecting the first and second ends of the rack when at least one of a velocity of the electric motor reaches zero, a current of the electric motor reaches a preselected level, and steering angle of the electric motor stabilizes.
Abstract:
A method is provided for centering a steering rack in an automotive vehicle, particularly a vehicle that includes an electric power steering (EPS) system. The centering method includes locating a center by using an electric motor of the EPS system. The method includes temporarily locking the steering rack in place and subsequently installing a steering wheel to a steering column after the locating step. The method further includes operatively communicating with an on-board processor or ECU of the automotive vehicle and running a program to determine or locate the center of the rack. The method may also include detecting the first and second ends of the rack when at least one of a velocity of the electric motor reaches zero, a current of the electric motor reaches a preselected level, and steering angle of the electric motor stabilizes.
Abstract:
Disclosed is an improved ESD control system for use in vehicular applications that incorporated one or more dissipative elements constructed from a blend of polypropylene and a urethane/acrylic alloy which form substantially co-continuous networks and which are suitable for injection molding operations to produce dissipative elements. The dissipative elements are then incorporated into vehicular interiors in a manner whereby a surface of the element is exposed to contact, whether incidental or deliberate, by the vehicle occupants, particularly as they are entering or exiting the vehicle, to provide controlled dissipation of electrostatic charges that have accumulated on the occupants. In particular, these materials may be used in forming portions of the vehicle seat assembly and/or door assembly that will typically be contacted during egress, operation of the vehicle and/or ingress in order to suppress subsequent and less controlled discharges that could compromise the comfort and safety of the vehicle occupants.