F16D27/00

BEARING WITH INTEGRATED WEDGE LOCKING ASSEMBLY
20190063510 · 2019-02-28 · ·

A drive assembly including a wedge clutch assembly is disclosed. The wedge clutch assembly includes a first cage having a first plurality of tapered crossbars that at least partially define a plurality of tapered wedge pockets. A plurality of wedges are each arranged within a respective one of the plurality of wedge pockets and within a circumferential groove of one of an outer ring or an inner ring. The plurality of wedges each including a ramped surface facing a corresponding one of a plurality of ramps defined in the outer ring or inner ring. Movement of the first plurality of tapered crossbars in a first axial direction or a second axial direction circumferentially drives the plurality of wedges into contact with the circumferential groove such that an input drive gear drives an output.

MOTORIZED HINGE
20190040670 · 2019-02-07 ·

A hinge for connecting a door to a household appliance compartment is described, having a fastening bracket suitable for being fastened to the compartment of the household appliance, a movable support to rotatably constrain the door to the fastening bracket, an activating arm coupled to the fastening bracket, movement means suitable for moving the activating arm, the activating arm having a first end portion suitable for being constrained to the door, and a second end portion suitable for being coupled to the movement means to move the activating arm between an open position and a closed position of the door, the movement means having an electric motor and reversible connecting means to couple and decouple selectively the electric motor to/from the second end portion, the hinge being configured so that when the electric motor is coupled to the second end portion, the electric motor causes the movement of the activating arm, while when the electric motor is decoupled from the second end portion, the movement of the first end portion occurs independently of the electric motor to allow a user to freely move the door.

Quick stop mechanism on food processor and food processor comprising the same
10197110 · 2019-02-05 · ·

The invention relates to the field of home appliance technology, and more particularly to a quick stop mechanism on a food processor and a food processing comprising the quick stop mechanism. The invention comprises a transmission shaft flexibly received in a gear box, the transmission shaft extends from the top of the gear box, a metal sleeve is fixed on one side of the transmission shaft, a bottom surface of a buckle ring disposed on a lower part of the metal sleeve abuts against the top of a spring, and the bottom of the spring abuts against a spring seat, the spring seat defines a through hole, a magnet is disposed on inner side of the gear box, and flexibly cooperates with the metal sleeve, the transmission shaft passes through the through hole and cooperates with a clutch, and the clutch is connected to a motor on the food processor.

Quick stop mechanism on food processor and food processor comprising the same
10197110 · 2019-02-05 · ·

The invention relates to the field of home appliance technology, and more particularly to a quick stop mechanism on a food processor and a food processing comprising the quick stop mechanism. The invention comprises a transmission shaft flexibly received in a gear box, the transmission shaft extends from the top of the gear box, a metal sleeve is fixed on one side of the transmission shaft, a bottom surface of a buckle ring disposed on a lower part of the metal sleeve abuts against the top of a spring, and the bottom of the spring abuts against a spring seat, the spring seat defines a through hole, a magnet is disposed on inner side of the gear box, and flexibly cooperates with the metal sleeve, the transmission shaft passes through the through hole and cooperates with a clutch, and the clutch is connected to a motor on the food processor.

Differential apparatus

A differential apparatus includes a differential mechanism, a differential case that accommodates differential mechanism, and a clutch mechanism that transmits a driving force between the differential case and the differential mechanism. The clutch mechanism includes a slide member movable inside the differential case in an axial direction and an actuator for moving the slide member in the axial direction. The actuator is located outside the differential case. The slide member includes a first meshable portion and an engaging portion engaging with a pinion shaft of the differential mechanism. The differential case has a second meshable portion to mesh with the first meshable portion and a wall portion having multiple insertion holes for transmitting a moving force of the actuator to the slide member. The slide member is located between the second meshable portion and the wall portion.

Monostable electromagnetic clutch

A monostable electromagnetic clutch is disclosed, which comprises a movable member, a magnetic assembly, a fixed disc, and a plurality of iron cores, wherein the magnetic assembly is connected to the fixed disc, the iron cores cross through the magnetic assembly and are connected to the fixed disc, the movable member is provided thereon with an spring member, and under an action of an electromagnetic force of the magnetic assembly and an spring force of the spring member, the movable member can reciprocate at a side of the magnetic assembly to keep the movable member and the iron cores in an engaged state or a disengaged state. The structural design of the present disclosure is flexible and compact, and can be combined in a different way according to different applications and different structural spaces. The electromagnetic clutch basic units can be used separately, or a plurality of electromagnetic clutch basic units can be combined freely, and after combination, they can be freely arranged in a variety of installation positions and spaces as required, and the use of space can be fully optimized.

Wheel hub clutch, wheel hub, wheel end system, axle, drivetrain, and vehicle

A wheel hub clutch includes: a notch plate; a pocket plate having pockets and plunger passages in communication with the pockets; locking members carried in the pocket plate pockets; and plungers carried in the pocket plate plunger passages and configured to drive the locking members into engagement with the notches in the notch plate. The clutch also may include a translator with a permanent magnet that cooperates with an electromagnet of a stator to translate the translator. The translator may be coupled to the locking members to translate them into and out of engagement with the notch plate. Also disclosed is a wheel end system including the wheel hub clutch, a drivetrain including the wheel end system and wheel hub clutch, and a vehicle including the drivetrain.

ACTUATION OF A CLUTCH OF A MOTOR VEHICLE
20180347646 · 2018-12-06 · ·

A control device and method are configured to actuate a clutch between a drive unit and at least one driven wheel of a motor vehicle, particularly a passenger car. The control device at least partially engages the clutch differently in dependence on a distance of the motor vehicle from an environment and/or a change of this distance.

ACTUATION OF A CLUTCH OF A MOTOR VEHICLE
20180347646 · 2018-12-06 · ·

A control device and method are configured to actuate a clutch between a drive unit and at least one driven wheel of a motor vehicle, particularly a passenger car. The control device at least partially engages the clutch differently in dependence on a distance of the motor vehicle from an environment and/or a change of this distance.

Magnetic actuator and a gear system comprising the same

A magnetic actuator includes a collar element (101) and a toroidal coil (103) surrounding the collar element. The collar element is coupled in a torque transferring way to a shaft (108) surrounded by the collar element. The collar element is capable of sliding in the axial direction with respect to the shaft. The collar element includes indentations (102) for locking in a torque transferring way to a counter-part when the collar element is in a first axial position. The collar element includes permanent magnet material (104) for generating an axial force for moving the collar element to the first axial position when the toroidal coil carries electric current flowing in a first direction and to a second axial position when the toroidal coil carries electric current flowing in an opposite direction. Thus, no mechanical elements are needed for moving the collar element in the axial direction.