Y10S903/91

CONNECTING CLUTCH FOR A HYBRID DRIVE TRAIN HAVING A TORQUE SENSOR

The invention relates to a clutch for a hybrid drive train of a motor vehicle, including a first connecting component, which can be connected to an output shaft of an internal combustion engine in a rotationally fixed manner, and comprising a second connecting component, which can be connected to a shaft of a transmission and/or a rotor of an electric drive machine in a rotationally fixed manner, which connecting components are connected to each other in a torque-transmitting manner in a closed position of the clutch, whereas, in an open position of the clutch, the connecting components are arranged in such a way that the torque flow is interrupted, and having a clutch actuation system, which has a ramp mechanism and which switches the clutch between the open position and the closed position, wherein the ramp mechanism is operatively connected to the connecting components by a planetary gearing, wherein the first connecting component has two conducting segments connected in a rotationally fixed manner by a torque storage device, wherein the torque storage device is designed in such a way that the conducting segments are elastically preloaded in a direction of rotation in relation to each other at least in the closed position.

HYBRID VEHICLE
20170334425 · 2017-11-23 ·

A hybrid vehicle includes an electronic control unit configured to: set a target rotation speed of an engine based on a vehicle speed and a shift position; set a driving force when an upper-limit power is output to a drive shaft as an upper-limit driving force; set a target engine power such that the smaller of the upper-limit driving force and the required driving force is output to the drive shaft; and control the engine, the first motor, and the second motor such that the engine to rotate at the target rotation speed and to output the target power. At this time, the upper-limit power is set to be lower when a coolant temperature of the engine is low than when the coolant temperature is high.

HYBRID VEHICLE
20170334424 · 2017-11-23 ·

When a kickdown switch is turned off, a target rotation speed of an engine is set on the basis of a vehicle speed and a gear and the engine, the first motor, and the second motor are controlled such that the smaller driving force of an upper-limit driving force based on the target rotation speed and a required driving force is output to a drive shaft and the engine rotates at the target rotation speed. On the other hand, when the kickdown switch is turned on, the target rotation speed is set to be higher than that when the kickdown switch is turned off on the basis of the vehicle speed and the gear and the engine, the first motor, and the second motor are controlled such that the required driving force is output to the drive shaft and the engine rotates at the target rotation speed.

CONTROLLING OPERATION OF ELECTRIFIED VEHICLES TRAVELING ON INDUCTIVE ROADWAY TO INFLUENCE ELECTRICAL GRID
20170334296 · 2017-11-23 ·

A method for influencing the efficiency of an electrical grid includes coordinating operation of a first electrified vehicle and a second electrified vehicle traveling along an inductive roadway and having opposite power needs in a manner that influences an amount of energy supplied by the electrical grid during an inductive roadway event.

ENGINE STARTING CONTROL SYSTEM FOR HYBRID VEHICLE

An engine starting control system for hybrid vehicles is provided to prevent a temporal drop in drive force when starting an engine. The control system maintains an operating mode of a switching mechanism when starting the engine by the first motor, in a case that the vehicle is propelled in the forward direction by the first motor and that the switching mechanism is in a second mode, or in a case that the vehicle is propelled in the reverse direction by the first motor and that the switching mechanism is in the first mode. Thereafter, the control system increases a rotational speed of the engine to a self-sustaining speed, switches the operating mode of the switching mechanism, and increases torque of the engine.

Power transmission system of hybrid electric vehicle

A power transmission system may include: an engine power delivery module configured to transmit power of the engine directly to the first motor/generator as driving power for generating electricity and to selectively transmit the power of the engine as driving power for driving the vehicle, and a motor power delivery module disposed in parallel with and independently from the engine power delivery module, and configured to directly transmit power of the second motor/generator as driving power for driving the vehicle.

Power transmission system of hybrid electric vehicle

A power transmission system of hybrid electric vehicle includes an input shaft, counter shaft, an output shaft, first motor/generator, second motor/generator, first planetary gear set, second planetary gear set to selectively externally gear-connect fourth rotation element to third rotation element through counter shaft while being directly connected to counter shaft and to directly connect fifth rotation element to output shaft and selectively connect sixth rotation element to transmission housing, first transfer gear disposed between second rotation element and output shaft, second transfer gear disposed between third rotation element and counter shaft, variable direct connection device to selectively connect two of three rotation elements of second planetary gear set, and variable connection device to selectively connect sixth rotation element to transmission housing or selectively external gear-connect third rotation element to fourth rotation element.

ELECTRIC DRIVE AND DRIVELINE ASSEMBLY
20170326963 · 2017-11-16 ·

An electric drive for driving a motor vehicle comprises an electric machine, a transmission gearing and a differential drive; wherein the electric machine comprises a motor shaft that is rotatably driveable around a first rotational axis A1; wherein the transmission gearing comprises a drive gear connected to the motor shaft, at least one intermediate gear rotatingly drivable by the drive gear around a second rotational axis A2, a crown gear rotatingly drivable by the intermediate gear around a third rotational axis A3, and a driven gear connected to the crown gear; wherein the driven gear and the crown gear are arranged coaxially relative to one another and are connected to one another in a rotationally fixed way so that they rotate jointly around the third rotational axis A3, wherein the third rotational axis A3 crosses the first rotationally axis A1. A driveline assembly can have such an electric drive.

HYBRID AUTOMOBILE

In a hybrid automobile in which a first motor, an engine, and a drive shaft coupled to an axle are connected respectively to a sun gear, a carrier, and a ring gear of a planetary gear set and a second motor is connected to the drive shaft, during a predetermined travel period in which the engine is operative and respective gates of a first inverter and a second inverter used to drive the first motor and the second motor are both blocked, the engine is controlled such that the first motor rotates at a predetermined rotation speed, and a boost converter is controlled such that a voltage of a drive voltage system power line reaches a target voltage corresponding to an accelerator depression amount.

HYBRID TRANSMISSION HAVING FIXED GEAR SHIFT STAGE
20170282702 · 2017-10-05 ·

The present invention relates to a hybrid transmission using an engine and two electric motors/generators together, wherein a planetary gear device comprising double planet gears, two sun gears and a ring gear, as a power splitter is used, and in addition, to a hybrid transmission in which one or more clutches and/or one or more brakes are combined to select a mechanical shift mode other than a hybrid mode and an electric drive mode.