Abstract: One variation includes a product including actuator system including an actuator connected to a shield; a control module for selectively actuating or deploying the actuator wherein the actuator may be moved from a first position to a second position in which the shield is extended a distance away from the first position.

Abstract: A powertrain for a vehicle includes an engine and a transmission having an input member, an output member, and a neutral state in which torque is not transmitted from the input member to the output member. A first motor/generator is coupled to the engine. A second motor/generator is coupled with vehicle wheels directly or indirectly through the transmission. The first motor/generator acts as a generator when powered by the engine to provide electric power to the second motor/generator. The second motor/generator acts as a motor when receiving electric power from a battery or from the first motor/generator. A shift selector is moved by a vehicle operator to establish an electric propulsion mode in which the transmission is in the neutral state and the second motor/generator functions as a motor.

Abstract: A method of operating a hybrid vehicle includes disengaging, i.e., turning off, an internal combustion engine when a brake pedal is disposed in a released position, i.e., non-depressed position, an accelerator pedal is disposed in a released position, i.e., non-depressed position, and a forward path of the hybrid vehicle is blocked, thereby conserving fuel. The method includes engaging, i.e., starting, the internal combustion engine when the brake pedal is disposed in the released position, the accelerator pedal is disposed in the released position, and the forward path of the hybrid vehicle is clear, thereby allowing for a quick launch of the vehicle.

Abstract: A method for operating a powertrain system includes executing a transmission shift between an initial electrically-variable transmission (EVT) range and a target EVT range. The transmission shift includes transitioning to operating with three speed degrees of freedom including controlling speed of a second torque machine to synchronize speed of an oncoming clutch associated with the target EVT range and coincidentally controlling speeds of a first torque machine and an engine to achieve a preferred speed of the output member of the transmission. The transmission shift further includes controlling torque output from the first torque machine in response to an output torque request, and activating the oncoming clutch upon synchronizing the speed of the oncoming clutch. Subsequent to the transmission shift, the powertrain system is operated in the target EVT range.

Abstract: A hybrid vehicle is provided with an electric transmission operatively connected to a first axle and an electric drive module operatively connected to a second axle. A transmission ratio of a differential gear set and a final drive of the electric transmission are selected so that a torque ratio of torque of the first axle over the torque of the engine is that at which any working chamber of the engine that is operated to expand the working fluid can operate without throttling, without torque of the engine torque exceeding a torque necessary to propel the vehicle at a steady vehicle speed, and with the second electric machine freewheeling.

Abstract: A hybrid transmission is provided that has both a hybrid series operating mode and a compound-split operating mode. The transmission includes an input member operatively connected with the engine, an output member, and a plurality of selectively engageable torque-transmitting mechanisms. A gearing arrangement and first and second motor/generators operatively connected with the gearing arrangement are also provided. The gearing arrangement includes a first, a second, and a third planetary gear set, each having a first, a second, and a third member. A first interconnecting member connects a respective one of the members of each of the planetary gear sets for common rotation with one another. A second interconnecting member connects another one of the members of one of the planetary gear sets for common rotation with another one of the members of another of the planetary gear sets.

Abstract: An electro-mechanical drive unit connectable with multiple power sources for launching and propelling a vehicle includes an output member, a stationary member, and a torque-transmitting device. The drive unit also includes a compound planetary gear arrangement having a first, second, third, and fourth junction point. The power sources include a first motor/generator and a second motor/generator. The first motor/generator and the second motor/generator are disposed on a common rotating axis. The second motor/generator is operatively connected to the compound planetary gear arrangement at the first junction point and the output member is operatively connected to the compound planetary gear arrangement at the second junction point. Additionally, the first motor/generator is operatively connected to the compound planetary gear arrangement at the fourth junction point. Furthermore, the torque-transmitting device is engageable to ground the third junction point to the stationary member.

Abstract: A park assist system for providing guidance to park a vehicle into a parking area is disclosed. The park assist system includes an imaging device, at least one indicator, and a control module. The imaging device acquires image data representative of a field of view (FOV). The indicator provides feedback to guide the vehicle into the parking area. The control module is in communication with the imaging device and the at least one indicator. The control module includes control logic for monitoring image data representative of the viewable area. The control module includes control logic for determining if a specific predetermined object is located within the FOV. The specific predetermined object indicates the presence of the parking area. The control module includes control logic for activating the at least one indicator to provide feedback regarding the parking area.

Abstract: A park assist system for providing guidance to park a vehicle into a parking area is disclosed. The park assist system includes an imaging device, at least one indicator, and a control module. The imaging device acquires image data representative of a field of view (FOV). The indicator provides feedback to guide the vehicle into the parking area. The control module is in communication with the imaging device and the at least one indicator. The control module includes control logic for monitoring image data representative of the viewable area. The control module includes control logic for determining if a specific predetermined object is located within the FOV. The specific predetermined object indicates the presence of the parking area. The control module includes control logic for activating the at least one indicator to provide feedback regarding the parking area.

Abstract: A park assist system for providing guidance to park a vehicle into a parking area is disclosed. The park assist system includes an imaging device, at least one indicator, and a control module. The imaging device acquires image data representative of a field of view (FOV). The indicator provides feedback to guide the vehicle into the parking area. The control module is in communication with the imaging device and the at least one indicator. The control module includes control logic for monitoring image data representative of the viewable area. The control module includes control logic for determining if a specific predetermined object is located within the FOV. The specific predetermined object indicates the presence of the parking area. The control module includes control logic for activating the at least one indicator to provide feedback regarding the parking area.

Abstract: A hybrid control system for a hybrid electric vehicle (HEV) includes a hybrid control module. The hybrid control module includes a first motor control module that controls output torque of a first motor. A second motor control module controls output torque of a second motor based on a second motor torque request signal. The second motor torque request signal is generated based on a transmission output torque request signal prior to startup of an engine of the HEV. An override module generates a torque override request signal during the startup. The first motor control module controls output torque of the first motor to crank the engine during the startup. The second motor control module adjusts output torque of the second motor based on the torque override request signal and not the transmission output torque request signal during the startup to minimize vehicle jerk during the engine start.

Abstract: A hybrid powertrain has an engine, a starter motor, and a gear train that connects the starter motor with the engine, and a motor/generator. A belt drive train connects the motor/generator with the engine. The powertrain has a first energy storage device with a first operating range of voltage and a second energy storage device with a second operating range of voltage at least partially in common with the first operating range of voltage. A controller places a switching device in an on-state so that the first energy storage device is connected with the second energy storage device or in an off-state in which the first energy storage device is disconnected from the second energy storage device. The controller causes the switching device to be in the off-state and the starter motor and the motor/generator to be powered with energy from the first energy storage device to restart the engine.

Abstract: A powertrain for a hybrid vehicle includes a clutch interconnecting an internal combustion engine and an electric motor. The electric motor is coupled to a manually operated gearbox operable in at least one electric only drive position and at least one hybrid drive position. A latch is coupled to the clutch and is moveable between a closed position inhibiting the clutch from interconnecting the internal combustion engine and the electric motor when the gearbox is disposed in the electric only drive position, and an open position allowing the clutch to interconnect the internal combustion engine and the electric motor when the gearbox is disposed in the hybrid drive position.

Abstract: A powertrain for a hybrid vehicle includes a clutch interconnecting an internal combustion engine and an electric motor. The electric motor is coupled to a manually operated gearbox operable in at least one electric only drive position and at least one hybrid drive position. A latch is coupled to the clutch and is moveable between a closed position inhibiting the clutch from interconnecting the internal combustion engine and the electric motor when the gearbox is disposed in the electric only drive position, and an open position allowing the clutch to interconnect the internal combustion engine and the electric motor when the gearbox is disposed in the hybrid drive position.

Abstract: A hybrid vehicle includes an electric motor with a rotatable rotor. A centrifugally-actuated clutch has a first rotatable member, a second rotatable member, and at least one actuator member attached to the first rotatable member. One of the first rotatable member and the second rotatable member is operatively connected to the wheels. The other of the first rotatable member and the second rotatable member is operatively connected to the rotor. The actuator member is configured to transfer torque between the first rotatable member and the second rotatable member by an amount that decreases due to centrifugal force acting on the actuator member as a rotational speed of the first rotatable member increases. A method of control is also provided.

Abstract: A vehicle includes a vehicle body, a first motor disposed within the vehicle body, a second motor disposed within the vehicle body, and an engine removably disposed on the vehicle body and configured to selectively provide torque to the first motor when disposed on the vehicle body. A climate control compressor is disposed within the vehicle body and is selectively coupled to the first motor. A controller is configured to control the coupling of the climate control compressor to the first motor and to control the coupling of the engine to the first motor. The first motor is configured to generate electrical energy to operate the second motor when coupled to the engine. The controller is further configured to control operation of the engine.

Abstract: A hybrid powertrain has an engine, a starter motor, and a gear train that connects the starter motor with the engine, and a motor/generator. A belt drive train connects the motor/generator with the engine. The powertrain has a first energy storage device with a first operating range of voltage and a second energy storage device with a second operating range of voltage at least partially in common with the first operating range of voltage. A controller places a switching device in an on-state so that the first energy storage device is connected with the second energy storage device or in an off-state in which the first energy storage device is disconnected from the second energy storage device. The controller causes the switching device to be in the off-state and the starter motor and the motor/generator to be powered with energy from the first energy storage device to restart the engine.

Abstract: A hybrid powertrain has an electrically-variable transmission with a compound planetary gear set that may be only two planetary gear sets. Two members of the first planetary gear set are connected for common rotation with two members of the second planetary gear set. A first motor/generator is connected for common rotation with a member of the first planetary gear set and a member of the second planetary gear set. An input member is connected to another member of the first planetary gear set. A first set of intermeshing gears includes a first gear connected for common rotation with one of the gears of the second planetary gear set and a second gear driven by a second motor/generator. A second set of intermeshing gears includes another gear driving the output member. A first clutch is engageable to establish an input-split mode. A second clutch is engageable to establish a compound-split mode.

Abstract: A powertrain operable in input-split, output-split and compound-split operating modes includes a first motor/generator continuously connected with a first member of a first planetary gear set. A second motor/generator is continuously connected with a first member of a second planetary gear set. An input member is continuously connected with a second member of the first planetary gear set. An output member is continuously connected with a second member of the second planetary gear set. A first brake grounds a third member of the first planetary gear set. A second brake grounds a third member of the second planetary gear. A first clutch connects the third member of the first planetary gear set with the second member of the second planetary gear set. A second clutch connects the second member of the first planetary gear set with the third member of the second planetary gear set.

Abstract: A hybrid transmission having an input member, an output member, and a single motor/generator is characterized by a plurality of fixed-ratio modes of operation and at least one electrically variable mode of operation. In the fixed-ratio modes of operation, the speed ratio between the input member and the output member is independent of the speed of the motor/generator. In the electrically variable mode of operation, the speed ratio between the input member and the output member is dependent upon the speed of the motor/generator.