Abstract: A method of operating a vehicle door includes the step of pushing an unlatched door to an ajar position. The unlatched door is mechanically held in the ajar position. In one embodiment, the method is performed using a door presenting system that includes a door checker that is configured to hold a door in the ajar position. A presenting actuator is movable between retracted and extended positions. The extended position corresponds to the ajar position. A controller is configured to move the presenting actuator between the retracted and extended positions in response to a presenting signal.

Abstract: A method of operating a vehicle door includes the step of pushing an unlatched door to an ajar position. The unlatched door is mechanically held in the ajar position. In one embodiment, the method is performed using a door presenting system that includes a door checker that is configured to hold a door in the ajar position. A presenting actuator is movable between retracted and extended positions. The extended position corresponds to the ajar position. A controller is configured to move the presenting actuator between the retracted and extended positions in response to a presenting signal.

Abstract: A system for dynamic braking a vehicle closure including a drive mechanism mounted to the vehicle, the drive mechanism having contacts to receive a drive signal to cause the drive mechanism to move the vehicle closure between an open and a close position in response to the drive signal, the drive mechanism capable of generating a generated drive signal during at least a portion of the vehicle closure from the open to the close position; and a controller having electrical outputs electrically coupled to the electrical contacts of the drive mechanism and electrical inputs to provide the drive signals to the drive mechanism and to receive generated drive signals from the drive mechanism, the controller configured to provide the generated drive signals back to the drive mechanism during operation of the vehicle closure to provide dynamic braking of the vehicle closure from the open to the close position.

Abstract: A system for dynamic braking a vehicle closure including a drive mechanism mounted to the vehicle, the drive mechanism having contacts to receive a drive signal to cause the drive mechanism to move the vehicle closure between an open and a close position in response to the drive signal, the drive mechanism capable of generating a generated drive signal during at least a portion of the vehicle closure from the open to the close position; and a controller having electrical outputs electrically coupled to the electrical contacts of the drive mechanism and electrical inputs to provide the drive signals to the drive mechanism and to receive generated drive signals from the drive mechanism, the controller configured to provide the generated drive signals back to the drive mechanism during operation of the vehicle closure to provide dynamic braking of the vehicle closure from the open to the close position.

Abstract: A system for sensing short circuits and open circuits prior to operation of a motor (i.e., while the motor is in a static state), thereby sparing the electrical system from destructive effects of these electrical problems. In addition, the system may detect a short circuit during operation of the motor (i.e., while the motor is in a dynamic state). Still yet, the system may detect an open circuit at the motor. The motor may be any electromechanical motor, such as a direct current (DC) motor, used in a vehicle or otherwise for controlling motion of a mechanical device.

Abstract: A system and method for controlling a rotational closure system, such as a lift gate, of a vehicle may include sensing an angle of the rotational closure system, generating a drive signal, driving a drive mechanism with the drive signal to output a mechanical force for moving the rotational closure system, generating an angle signal having a digital pulsewidth modulation form with a duty cycle based on the angle of the rotational closure system, feeding back the angle signal, and, in response to the feedback angle signal, altering the drive signal while the drive mechanism is moving the rotational closure system between open and closed positions. In one embodiment, the angle signal is generated from a location disposed on the rotational closure system. A controller mounted to the rotational closure system may include an angle sensor and be configured to receive and process the angle signal to drive the drive mechanism.

Abstract: A system for sensing short circuits and open circuits prior to operation of a motor (i.e., while the motor is in a static state), thereby sparing the electrical system from destructive effects of these electrical problems. In addition, the system may detect a short circuit during operation of the motor (i.e., while the motor is in a dynamic state). Still yet, the system may detect an open circuit at the motor. The motor may be any electromechanical motor, such as a direct current (DC) motor, used in a vehicle or otherwise for controlling motion of a mechanical device.

Abstract: A system and method for controlling a rotational closure system, such as a lift gate, of a vehicle may include sensing an angle of the rotational closure system, generating a drive signal, driving a drive mechanism with the drive signal to output a mechanical force for moving the rotational closure system, generating an angle signal having a digital pulsewidth modulation form with a duty cycle based on the angle of the rotational closure system, feeding back the angle signal, and, in response to the feedback angle signal, altering the drive signal while the drive mechanism is moving the rotational closure system between open and closed positions. In one embodiment, the angle signal is generated from a location disposed on the rotational closure system. A controller mounted to the rotational closure system may include an angle sensor and be configured to receive and process the angle signal to drive the drive mechanism.