Current imbalances between parallel switching devices in a power converter half leg are reduced. A gate driver generates a nominal PWM gate drive signal for a respective half leg. A first feedback loop couples the nominal PWM gate drive signal to a gate terminal of a respective first switching device. The first feedback loop has a first mutual inductance with a current path of a first parallel switching device and has a second mutual inductance with a current path of a second parallel switching device. The first and second mutual inductances are arranged to generate opposing voltages in the first feedback loop, so that when all the parallel switching devices carry equal current then the voltages cancel.

An electric bicycle includes a motor that includes a stator and a rotor and that is driven by a battery, a reduction gear, an output shaft configured to output power of the motor, a sprocket fixed to the output shaft, a housing, and a water jacket configured to cool the motor. The water jacket includes a flange section protruding outward in a radial direction of the stator, the flange section being formed in the water jacket at a side opposite to the reduction gear in a vehicle width direction.

A vehicle including: a pair of suspension towers, each of which houses, in an upright state, a suspension unit configured to provide suspension to a front wheel; a power unit compartment that is provided between the pair of suspension towers, and that houses at least a drive unit configured to drive the front wheels; at least one of a high voltage component or a low voltage component, configuring a sub unit disposed at a vehicle upper side of the suspension towers; and a driving seat that is disposed in a vehicle cabin at the vehicle upper side of the power unit compartment, and that is provided such that feet of a driver are positioned further toward a vehicle lower side than upper ends of the suspension towers and such that a head of the driver is positioned further toward the vehicle upper side than the sub unit.

An electronic system housing for an E-axle drive of a motor vehicle is disclosed. The electronic system housing comprises a power electronic system received within the electronic system housing for processing voltage in high voltage systems. At least one low voltage component is further received within the electronic system housing.

The present invention provides an electrical drive system (1) for an electrically operated vehicle (F1), comprising an electrical machine (EM) by means of which a traction drive of the electrically operated vehicle (F1) can be driven; an energy storage device (B) by means of which the electrical machine (EM) can be operated; an inverter device (INV) by means of which the energy storage device (B) is connected to the electrical machine (EM); a first inductance (L1) by means of which the energy storage device (B) can be inductively charged, wherein the electrical machine (EM) comprises a housing (3) and the first inductance (L1) is integrated into the housing (3) or is arranged directly on the housing (3); and a converter device (W), which is connected to the first inductance (L1) and to the energy storage device (B), for charging the energy storage device (B).

An axle drive unit may be employed by an electrically-driven motor vehicle having at least one drive axle. The axle drive unit may include at least one electric motor for generating a drive torque and at least one gearing (or transmission) for transmitting the drive torque to the drive axle. The electric motor and the gearing may form a structural unit. The axle drive unit allows a drive train of a motor vehicle to have the simplest, weight-saving construction possible. To achieve this, power electronics and an electromechanical service brake system may be integrated into the structural unit. The electromechanical service brake system may be configured as an inboard service brake system for transmitting braking power to the drive axle.

A battery pack has a plurality of unit cells, a casing for accommodating the plurality of unit cells, and a base which is a part of the casing and has a heat dissipation wall and a first side wall disposed so as to be capable of transferring heat to the heat dissipation wall. The battery pack includes a stay disposed on the first side wall in the base and fixed to a vehicle-side member, and a switching device disposed so that released heat can be transferred to the heat dissipation wall or the first side wall. The switching device includes a first switching device and a third switching device having a smaller heating value than the first switching device has. The first switching device is disposed at a position closer to the stay than the third switching device is in planar view.

An electric vehicle includes: a seat on which an occupant is seated; a pair of right and left batteries that are arranged in a distributed manner to a right and a left below the seat; and a pair of right and left battery support parts which are provided on a vehicle body and each of which detachably holds each of the right and left batteries.

Current imbalances between parallel switching devices in a power converter half leg are reduced. A gate driver generates a nominal PWM gate drive signal for a respective half leg. A first feedback loop couples the nominal PWM gate drive signal to a gate terminal of a respective first switching device. The first feedback loop has a first mutual inductance with a current path of a first parallel switching device and has a second mutual inductance with a current path of a second parallel switching device. The first and second mutual inductances are arranged to generate opposing voltages in the first feedback loop, so that when all the parallel switching devices carry equal current then the voltages cancel.

A system for a vehicle is disclosed. The system comprises a gear box. The gear box comprises a first shaft coupled to a first motor and a second shaft coupled to the second motor and a third shift. Each shaft extends through a respective pinion. The gearbox has a first shifter for the first motor and a second shifter for the second motor. The shifters are configured to selectively engage a respective pinion to an appropriate shaft as needed. The gear box further comprises a fourth shaft extending through a first gear and a second gear and an other pinion. The first gear meshes with a first pinion. The second gear meshes with a second pinion. The other pinion meshes with a third pinion and a fourth gear. A differential is mechanically coupled to the fourth gear and a left axle shaft and a right axle shaft.