Abstract:
A vehicle seat with an adjustable head restraint assembly is provided with a controller configured to receive an instruction signal to actuate a head restraint from a use position to a stowed position. A detection signal indicates whether an object is within a predetermined range of the head restraint. A stow signal is transmitted to an actuator to actuate the head restraint to the stowed position in response to the instruction signal and in response to the detection signal indicating that an object is not within the predetermined range of the head restraint. A use signal is transmitted to the actuator to maintain the head restraint in the use position in response to the instruction signal and in response to the detection signal indicating that an object is within the predetermined range of the head restraint.
Abstract:
A seat assembly having an automatically adjustable head restraint is provided. A seat back is mounted within a vehicle and a head restraint assembly is adjustably mounted to the vehicle and disposed adjacent the seat back. The seat back includes a sensor mounted adjacent an upper portion of the seat back for detecting the presence and position of a passenger relative to the head restraint. A controller is in communication with the sensor and receives the output signal of the sensor. The controller then generates a control signal in order to position the head restraint based on the output signals of the sensor. An actuator is connected to the head restraint for positioning the head restraint based on a control signal received from the control module.
Abstract:
A system and method is provided for evaluating performance of a supply circuit for electric vehicle charging. An electrical connection is established between a vehicle circuit and a supply circuit for an external Alternating Current (AC) power supply. The electrical connection includes a hot, neutral, and ground conductor. A control signal is transmitted to activate a switch disposed along the electrical connection for selectively initiating vehicle charging. Input signals are received including: a line current signal indicative of a current along at least one of the hot conductor and the neutral conductor, and at least one of a line voltage signal and a neutral voltage signal. The line voltage signal being indicative of a voltage potential between the hot conductor and the neutral conductor. The neutral voltage signal being indicative of a voltage potential between the neutral conductor and the ground conductor. At least one of the input signals is compared to predetermined resistance data for evaluating supply circuit performance.
Abstract:
A control system and method for automatically adjusting the position of a headrest of a seat assembly for a vehicle. The control system includes at least one occupancy sensor disposed within the seat assembly for detecting the presence of a passenger in the seat assembly and at least one passenger position sensor disposed proximate to the headrest for detecting the position of a passenger's head relative to the position of the headrest. A control module monitors the output of the at least one occupancy and position sensors and generates a control signal instructing the at least one drive motor to reposition the headrest to adjust to the presence and position of the passenger in the seat.
Abstract:
A flexible touch-sense switch includes a force sensitive composite and an at least one proximity sensor. The force sensitive composite includes a plurality of force sensors disposed between a first layer and a second layer of polymide film defining a displacement region. The at least one proximity sensor generates an electromagnetic field that defines a detection region. The force sensitive composite and the at least one proximity sensor are mounted to the first layer of the polymide film for forming a flexible printed circuit board. A control circuit is electrically connected to the force sensitive composite and the at least one proximity sensor for selectively controlling the touch-sense switch activation in response to coincident actuation thereof.
Abstract:
A junction box for motor vehicles in which first and second housing portions are provided for receiving and containing, respectively, low and high electrical current circuitboards. The housing portions extend in a generally common plane when connected together to form a housing unit. A planar insulating panel member containing buses and integral insulation displacement terminals are located between the housing portions and in a plane generally perpendicular to the common plane of the housing portions. The first and second housing portions are abutted and fastened together on opposed sides of the panel member with the buses and integral insulation displacement terminals. The insulation displacement terminals are effective to directly receive insulated wires of an electrical harness and electrically connect the same to the buses and to circuits of and electrical components associated with the circuitboards.
Abstract:
A thermal protection system for an electrical system having a control system and an electrical outlet connected to an electrical power source includes an electrical cord having a plug attached thereto that is configured to electrically connect with the outlet. A non-contact temperature sensor is disposed within the plug and configured to measure a temperature of the outlet. The temperature sensor is in communication with the control system and configured to send a signal to the control system to effect a reduced flow of current through the outlet and plug when the temperature sensor indicates that a predetermined condition is met.
Abstract:
An offline power supply includes a power supply circuit including a primary-side circuit for connecting to a power source, a secondary-side circuit for connecting to a load, and a transformer connecting the primary-side circuit and the secondary-side circuit. A switch operates to selectively connect the primary-side circuit to the power source. A trigger circuit is connected to the secondary-side circuit and has at least one input. The trigger circuit generates an output to selectively operate the switch based on the at least one input.
Abstract:
A system and method is provided for evaluating performance of a supply circuit for electric vehicle charging. An electrical connection is established between a vehicle circuit and a supply circuit for an external Alternating Current (AC) power supply. The electrical connection includes a hot, neutral, and ground conductor. A control signal is transmitted to activate a switch disposed along the electrical connection for selectively initiating vehicle charging. Input signals are received including: a line current signal indicative of a current along at least one of the hot conductor and the neutral conductor, and at least one of a line voltage signal and a neutral voltage signal. The line voltage signal being indicative of a voltage potential between the hot conductor and the neutral conductor. The neutral voltage signal being indicative of a voltage potential between the neutral conductor and the ground conductor. At least one of the input signals is compared to predetermined resistance data for evaluating supply circuit performance.
Abstract:
An apparatus for correcting leakage current during a vehicle charging operation is provided. The apparatus comprises a balance circuit configured to receive a sensed current indicative of a vehicle leakage current in response to an external power source providing a charging current to a vehicle. The vehicle leakage current includes a first leakage component and a second leakage component. The balance circuit is further configured to generate a first voltage value that corresponds to a negative value of the first leakage component and to provide a second voltage value that generally corresponds to a positive value of the first leakage component. The balance circuit is further configured to apply the second voltage value to the first voltage value to substantially remove the first leakage component from the vehicle leakage current.