Abstract:
An exemplary wheel well heating method includes, among other things, in response to an environmental condition, generating thermal energy to heat a wheel well area of a vehicle. The method further includes powering the generating with power from a power source that is external to the vehicle. Another exemplary wheel well heating method includes generating thermal energy to heat a wheel well area of a vehicle, and adjusting the generating in response to a state of charge of a power supply of the vehicle.
Abstract:
An energy storage system for supporting dual electrical functions of a vehicle includes an energy storage unit having a plurality of energy storage modules connected in series, a plurality of sensing units for sensing state of charges of the plurality of energy storage modules, and a pair of primary voltage terminals. The series connected plurality of energy storage modules is connectable across the pair of primary voltage terminals during a key-on state of the vehicle to supply energy storage power at a first voltage level to support primary electrical functions of the vehicle. The energy storage system is further configured to select a subset of the plurality of energy storage modules during a key-off state of the vehicle to connect across a pair of secondary voltage terminals using a switch network to supply energy storage power at a second voltage level.
Abstract:
An exemplary wheel well heating method includes, among other things, in response to an environmental condition, generating thermal energy to heat a wheel well area of a vehicle. The method further includes powering the generating with power from a power source that is external to the vehicle. Another exemplary wheel well heating method includes generating thermal energy to heat a wheel well area of a vehicle, and adjusting the generating in response to a state of charge of a power supply of the vehicle.
Abstract:
An exemplary preconditioning method includes, among other things, preconditioning an electrified vehicle using power from an external source without charging a traction battery from the external source. An exemplary vehicle assembly includes, among other things, a conditioning system that preconditions an electrified vehicle using power from an external source, and a traction battery having a state of charge that does not increase as the conditioning system preconditions the electrified vehicle.
Abstract:
A vehicle power supply control device includes a plurality of area power supply slaves connected with respective different device groups configured with a plurality of different devices installed in a vehicle, and controlling power supplied to the devices in the connected device groups, a plurality of area power supply masters that are connected with respective different area power supply slaves and control power supplied to the connected area power supply slaves, and a vehicle power supply master connected with the area power supply masters and a battery of the vehicle and controlling power supplied to the area power supply masters from the battery.
Abstract:
A combined heating system and occupant sensing system for a vehicle seat includes first and second electrodes connected in series and a controller configured to direct a heating current to the first and second electrodes. The controller is configured to isolate the first and second electrodes from the heating current and, at the same time, provide a sensing current to only one of the first and second electrodes.
Abstract:
The invention relates to an electrical drive system of a hybrid vehicle, comprising: a traction battery (1), a high-voltage intermediate circuit (2), a pulse-controlled inverter (3) which is coupled to the high voltage intermediate circuit (2), an electrical machine (5) which is coupled to the pulse-controlled inverter (3); a DC-to-DC converter (6) which is coupled to the pulse-controlled inverter (3) and the high-voltage intermediate circuit (2) and is designed to convert a high voltage (UE) from the high-voltage intermediate circuit (2) into a low voltage (UA) for a vehicle electrical system; a low-voltage battery (8) which is coupled to the DC-to-DC converter (6); a plurality of selectively-connectable electrical consumers (9a, 9b) of the vehicle electrical system, which are coupled to the low-voltage battery (8) and the DC-to-DC converter (6); and a control device (7) which, in the event of a traction battery failure, is designed to operate the DC-to-DC converter (6) in a current-controlled manner using the electrical machine so as to supply said vehicle electrical system consumers (9a, 9b).
Abstract:
A method to distribute recuperation power for a vehicle including determining the recuperation power, detecting a respective setpoint power of at least one energy consumer, distributing the recuperation power to electrical energy sinks, which comprise an energy store and the at least one energy consumer, depending on the respective setpoint power of the at least one energy consumer, to the energy sinks such that an average actual power of the at least one energy consumer corresponds to the respective setpoint power of the at least one energy consumer.
Abstract:
The present invention provides a fuel cell vehicle, particularly a fuel cell vehicle equipped with a moisture remover that removes moisture from an air conditioner evaporator. The fuel cell vehicle includes: a fuel cell stack as a power supplier; an electric heater operated by power from the fuel cell stack; a blower fan for providing air to the electric heater; an air channel configured to supply the air passing through the electric heater to an air conditioner evaporator; and a controller for controlling the operations of the electric heater and the blower fan, whereby moisture is removed from the air conditioner evaporator by supplying air heated by the electric heater to the air conditioner evaporator. The fuel cell vehicle effectively removes moisture from an air conditioner evaporator, solves the problem of a bad smell in the related art, and further removes the oxygen and the stack voltage which remain in the cathode, such that it is possible to avoid cathode oxygen depletion of the related art.
Abstract:
A grip heater control apparatus (7) capable of increasing the opportunities to enable a heater (2) to warm a grip (1) while suppressing a voltage drop of a battery (10), the grip heater control apparatus comprising a heater (2) for generating heat by means of electric power supplied from the battery (10), the heater being provided in a grip (1) of a steering handle of a vehicle having a generator (9) for generating electricity interlocking with the rotation of an engine as a propulsive source and the battery (10) charged by the generator (9), and a heater control unit for controlling the electric energy supplied to the heater (2) from the battery (10), wherein a revolutions detecting unit is provided for detecting the number of revolutions of the engine or the generator (9) and the heater control unit includes a unit for determining an upper limit on the upper limit electric energy supplied to the heater (2) depending on the detected number of revolutions.