Abstract: A vehicle including an energy storage device and a powertrain system configured to effect regenerative braking is described. A method for controlling the vehicle includes determining an expected increase in a state of charge of the energy storage device achieved through opportunity charging by employing regenerative braking during an anticipated next trip of the vehicle. A preferred setpoint for the state of charge of the energy storage device is determined based upon the expected increase in the state of charge achieved through opportunity charging, and charging of the energy storage device is controlled during a remote charging event based upon the preferred setpoint for the state of charge of the energy storage device.

Abstract: A vehicle including an energy storage device and a powertrain system configured to effect regenerative braking is described. A method for controlling the vehicle includes determining an expected increase in a state of charge of the energy storage device achieved through opportunity charging by employing regenerative braking during an anticipated next trip of the vehicle. A preferred setpoint for the state of charge of the energy storage device is determined based upon the expected increase in the state of charge achieved through opportunity charging, and charging of the energy storage device is controlled during a remote charging event based upon the preferred setpoint for the state of charge of the energy storage device.

Abstract: A system and method for providing a user of a hybrid electric vehicle (HEV) more flexibility and control regarding the selection of heating modes, without adversely affecting vehicle engine emissions. According to one embodiment, when the HEV is in a normal heating mode, the user is able to switch to an economy or deferred heating mode, so long as the switch takes place during the following ignition cycle. When the HEV is in an economy heating mode the user is able to switch to a normal heating mode right away, but is only allowed to do so once per ignition cycle. In both instances, the switch between heating modes is initiated by the user through a non-emissions related system, such as a vehicle infotainment module or climate control module.

Abstract: A number of illustrative variations may include a method of using sequential logic and vehicle sensors to produce a notification.

Abstract: A system and method for providing a user of a hybrid electric vehicle (HEV) more flexibility and control regarding the selection of heating modes, without adversely affecting vehicle engine emissions. According to one embodiment, when the HEV is in a normal heating mode, the user is able to switch to an economy or deferred heating mode, so long as the switch takes place during the following ignition cycle. When the HEV is in an economy heating mode the user is able to switch to a normal heating mode right away, but is only allowed to do so once per ignition cycle. In both instances, the switch between heating modes is initiated by the user through a non-emissions related system, such as a vehicle infotainment module or climate control module.

Abstract: A number of illustrative variations may include a method of using sequential logic and vehicle sensors to produce a notification.

Abstract: Methods, system and apparatus are provided for securing a rechargeable electronic device with respect to a surface of a wireless battery charging apparatus of a vehicle.

Abstract: A charge port lock assembly for use with a charge receptacle on a vehicle having a rechargeable battery. The charge port lock assembly may include an actuator assembly including an actuator energizable to retract the post to a retracted position and to move to an extended rest position and a partially retracted rest position; a charge port door that covers the charge receptacle and a has a door ejection spring; a charge door lock assembly that releases the charge port door when the post is in the fully retracted position and retains the charge port door in the closed position when the post is in the other positions; a cord lock assembly that retains a charge cord assembly in the charge receptacle when the post is in the extended rest position and releases the charge cord assembly in the other positions. The controller energizes the actuator.

Abstract: An electrical charging system is provided, and includes a voltage supply and a conductive coupling element. The conductive coupling element includes a pilot circuit, a resistance element, a light-emitting diode (“LED”), and a switching element. The pilot circuit has a primary control contact and a ground contact. The pilot circuit is configured to be in communication with and receive voltage from the voltage supply. The pilot circuit is configured for supplying a control pilot voltage. The resistance element is electrically connected to the ground contact. The resistance element includes a resistance value. The LED is electrically connected to the resistance element and the ground contact, and has a forward voltage drop. The switching element is actuated to selectively connect the resistance element and the LED element to the primary control contact.

Abstract: An integrated electrical connector comprises one or more terminals housed within a connector body. The connector body is configured and arranged to structurally join an auxiliary component to a host vehicle to which the integrated electrical connector is mechanically fixed and electrically coupled. The connector body is configured to facilitate electrically coupling electrical circuitry of the auxiliary component to the host vehicle. The connector body is configured to facilitate transmission of information among the auxiliary component and the host vehicle.

Abstract: An integrated electrical connector comprises one or more terminals housed within a connector body. The connector body is configured and arranged to structurally join an auxiliary component to a host vehicle to which the integrated electrical connector is mechanically fixed and electrically coupled. The connector body is configured to facilitate electrically coupling electrical circuitry of the auxiliary component to the host vehicle. The connector body is configured to facilitate transmission of information among the auxiliary component and the host vehicle.

Abstract: An electrical charging system is provided, and includes a voltage supply and a conductive coupling element. The conductive coupling element includes a pilot circuit, a resistance element, a light-emitting diode (“LED”), and a switching element. The pilot circuit has a primary control contact and a ground contact. The pilot circuit is configured to be in communication with and receive voltage from the voltage supply. The pilot circuit is configured for supplying a control pilot voltage. The resistance element is electrically connected to the ground contact. The resistance element includes a resistance value. The LED is electrically connected to the resistance element and the ground contact, and has a forward voltage drop. The switching element is actuated to selectively connect the resistance element and the LED element to the primary control contact.

Abstract: Methods, system and apparatus are provided for securing a rechargeable electronic device with respect to a surface of a wireless battery charging apparatus of a vehicle.

Abstract: A charge port lock assembly for use with a charge receptacle on a vehicle having a rechargeable battery. The charge port lock assembly may include an actuator assembly including an actuator energizable to retract the post to a retracted position and to move to an extended rest position and a partially retracted rest position; a charge port door that covers the charge receptacle and a has a door ejection spring; a charge door lock assembly that releases the charge port door when the post is in the fully retracted position and retains the charge port door in the closed position when the post is in the other positions; a cord lock assembly that retains a charge cord assembly in the charge receptacle when the post is in the extended rest position and releases the charge cord assembly in the other positions. The controller energizes the actuator.

Abstract: A heater control system is provided that comprises a plurality of n banks of heating elements H1, H2, H3, H4, . . . , Hn each containing at least one heating element. Each one of a plurality of switches Q1, Q2, Q3, Q4, . . . , Qn is coupled to a respective one of the plurality of banks for selectively activating the plurality of banks. Each one of a plurality of control inputs is coupled to a different one of the plurality of switches to selectively activate the plurality of switches.

Abstract: A charge management system and method, within a vehicle having a battery and generation subsystem, is disclosed which senses the temperature of electrolyte in the cells of the vehicle battery and the voltage across the terminals of the battery. The voltage indicates the probability of the existence of excess electrical capacity from the vehicle generation subsystem. In response to a cold temperature and excess power, the system uses the excess power of the vehicle generation subsystem to heat the battery to a desired level. Once the battery reaches the desired temperature level, the system dicontinues the heating of the battery. In the event that there is not excess power, then the system, by maintaining the battery heating element in an off position, does not interfere with the charging of the battery.