An interrupter includes: an intermittent member having a meshing tooth meshing with a second rotary member, and moving in an axial direction between a coupled position and an uncoupled position; and an actuator making the intermittent member move in the axial direction. The actuator includes: a coil generating magnetic flux; and a plunger moving with the intermittent member in the axial direction. The plunger is disposed in a manner capable of making relative rotation to one of the first and second rotary members via first and second air gaps. When the coil is energized, the magnetic flux is introduced to the plunger from one of the first and second air gaps, the magnetic flux is led out of the plunger to the other air gap, and the plunger moves in the axial direction so as to reduce at least one air gap of the first and second air gaps.

A differential assembly for a vehicle includes: an input member; a first output member and a second output member; a differential mechanism for differentially distributing a driving force inputted by the input member to the first output member and the second output member; a differential case that accommodates the differential mechanism; and a clutch mechanism for selectively transmitting power between the input member and the differential case, the clutch mechanism having a first engaging member and a second engaging member to be releasably connected to one another such that the clutch mechanism is in a coupled state when the first engaging member and the second engaging member are engaged, and the clutch mechanism is in a decoupled state when the first engaging member and the second engaging member are disengaged. The first engaging member includes at least one cavity in which a recess is arranged.

A one-way clutch regenerative braking system includes a sleeve which is arranged on an outer circumference of a hub and moved in an axial direction, a clutch gear which is arranged on a side of the hub and meshed with the sleeve, and a one-way clutch which is arranged on an inner circumference of the hub and rotated in a first direction, wherein, when the sleeve and the clutch gear are meshed with each other, the clutch gear is rotated in a second direction which is opposite to a rotational direction of the one-way clutch.

A locking system for use with a retractable driveshaft includes a housing, a rotating locking ring located at least partially the housing, and a band configured to cooperatively engage the rotatable locking ring. Applying an axial force to the locking ring with the driveshaft causes rotation of the locking ring, thereby locking the driveshaft with the lousing. Applying a second axial force to the locking ring with the driveshaft causes further rotation of the locking ring, which allows withdrawal of the driveshaft from the housing.

A drive member selection mechanism is described, including at least one drive member and at least two selector members, wherein the drive member includes a first and second face, and further includes, on each face, at least one projection, and the selector members include, on at least one face thereof, at least one complementary projection arranged to selectively engage with a projection of a drive member, the arrangement being such that the projection(s) of a selector member and the projection(s) of the first face of a drive member may be drivingly engaged in a first torque connection and the projection(s) of a selector member and the projection(s) of the second face of a drive member may be drivingly engaged in a second torque connection, wherein the second torque connection is opposed to the first torque connection.

A transmission includes a gear train, a transmission shaft driven by the gear train, a transmission casing incorporating the gear train and the transmission shaft, an axle driven by the gear train, a power take-off (PTO) unit attached to the transmission casing, and a parking brake. The transmission shaft and the axle are extended parallel to each other. The PTO unit includes a PTO input shaft, a PTO shaft, and a PTO drive train transmitting power from the PTO input shaft to the PTO shaft. The PTO input shaft is connected coaxially to the transmission shaft so as to receive power from the transmission shaft. The parking brake is provided on the transmission shaft or the PTO input shaft.

A clutch includes a first disk-shaped clutch body, a second disk-shaped clutch body, and a synchronizing mechanism. The first disk-shaped clutch body has a first face spline formed as a first claw-type toothing. The second second disk-shaped clutch body has a second face spline formed as a second claw-type toothing. The second disk-shaped clutch body is axially spaced from the first disk-shaped clutch body and axially movable against the first disk-shaped clutch body to engage the second face spline with the first face spline. The synchronizing mechanism is for synchronizing a rotational speed of the first disk-shaped clutch body to a rotational speed of the second disk-shaped clutch body.

A clutch is comprised of a first clutch member including a plurality of first clutch teeth arranged circumferentially around an axis; and a second clutch member including a plurality of second clutch teeth arranged circumferentially around the axis and engageable with the first clutch teeth, each of the second clutch teeth including an end portion internal or external relative to the axis and a pair of side faces facing each other across the end portion, any of the side faces getting in contact with the first clutch teeth when engaged, each of the pair of side faces including a first face being flat and a second face being continuous to the first face and the end portion and having a slope oblique to the first face, wherein one of the first clutch member and the second clutch member is axially movable relative to the other.

A clutch matched with a transmission screw rod comprises a left clutch half tooth, a right clutch half tooth, a clutch screw rod and a clutch base, the left clutch half tooth and the right clutch half tooth can slidably move relative to the clutch base; first threads matched with the transmission screw rod are arranged on the right side face of the left clutch half tooth and the left side face of the right clutch half tooth; the clutch screw rod and the transmission screw rod are located in different planes; a second thread and a third thread in opposite directions are arranged on the clutch screw rod; a fourth thread matched with the second thread and a fifth thread matched with the third thread are separately arranged on the left clutch half tooth and the right clutch half tooth.

A shift control apparatus of an automatic transmission includes: an input detecting unit configured to detect a real rotational speed of the input shaft; an output detecting unit configured to detect a real rotational speed of the output shaft; an estimating unit configured to estimate an estimated rotational speed of the input shaft, which corresponds to a shift request, by multiplying the real rotational speed of the output shaft by a target gear ratio; and a control unit configured to control the rotation of the input shaft based on a detection result from the input detecting unit. The control unit controls the rotation of the input shaft such that an upper-limiting rotational speed of a variation in real rotational speed of the input shaft is lower than the estimated rotational speed.