Provided is a clutch assembly, a SSSV, and a method for operating an SSSV. The clutch assembly, in one aspect, includes an output coupler housing, an input shaft, and an electromagnet coupled to the input shaft. In at least one aspect, the electromagnet is configured to axially translate the output coupler housing from a de-coupled state to a coupled state when the electromagnet is energized. The clutch assembly, in one aspect, further includes one or more grooves located in one of an outer surface of the input shaft or an inner surface of the central opening, and one or more engagement members located in the other of the inner surface of the central opening or the outer surface of the input shaft.

A product-dispensing device comprises a rod, a product-dispensing coil, an actuator, a locking gear, and a button. The rod is configured to support a product. The product-dispensing coil is disposed about the rod. The actuator is operably coupled to the product-dispensing coil for rotation about a first axis. The locking gear is rotatable between a first position and a second position and includes a locking arm configured to inhibit rotation of the actuator in the second position. The button is operably coupled to the locking gear and configured to rotate the locking gear between the first position and the second position.

A product-dispensing device comprises a rod, a product-dispensing coil, an actuator, a locking gear, and a button. The rod is configured to support a product. The product-dispensing coil is disposed about the rod. The actuator is operably coupled to the product-dispensing coil for rotation about a first axis. The locking gear is rotatable between a first position and a second position and includes a locking arm configured to inhibit rotation of the actuator in the second position. The button is operably coupled to the locking gear and configured to rotate the locking gear between the first position and the second position.

A fluid vacuum pump includes a motor assembly including a single motor or multiple motors, where one motor may be configured for operation in a first medium and another motor may be configured for operation in a second medium; an impeller assembly including a single impeller, which may of a fixed or variable configuration, or multiple impellers, where one impeller may be configured for operation in a first medium and another impeller may be configured for operation in a second medium; and a linkage operatively connecting and adjustably transmitting power from the motor assembly to the impeller depending on the type of medium present.

A fluid vacuum pump includes a motor assembly including a single motor or multiple motors, where one motor may be configured for operation in a first medium and another motor may be configured for operation in a second medium; an impeller assembly including a single impeller, which may of a fixed or variable configuration, or multiple impellers, where one impeller may be configured for operation in a first medium and another impeller may be configured for operation in a second medium; and a linkage operatively connecting and adjustably transmitting power from the motor assembly to the impeller depending on the type of medium present.

A surgical clip applier comprising a rotatable clip cartridge is disclosed. The surgical clip applier comprises a lockout that at least locks out the crimping drive of the surgical clip applier when the rotatable clip cartridge is empty.

Methods and system are provided for locking a half shaft to a wheel hub to engage four wheel drive are disclosed. In one example, a wheel hub is locked to a half shaft via a radially expanding engagement mechanism. The radially expanding engagement mechanism is without grease and without springs.

Methods and system are provided for locking a half shaft to a wheel hub to engage four wheel drive are disclosed. In one example, a wheel hub is locked to a half shaft via a radially expanding engagement mechanism. The radially expanding engagement mechanism is without grease and without springs.

A control system for an air outlet of air conditioner in a vehicle includes a motor, a first clutch configured to control a horizontal vane of the air outlet, a second clutch configured to control a longitudinal vane of the air outlet, a third clutch configured to control an opening degree of a ventilation door of the air outlet, and an engaging element of the motor being connected to the motor, for engaging the clutches. The motor adjusts the horizontal vane of the air outlet when the engaging element is engaged with the first clutch, the motor adjusts the longitudinal vane of the air outlet when the engaging element is engaged with the second clutch, and the motor adjusts the opening degree of the ventilation door of the air outlet when the engaging element of the motor is engaged with the third clutch.

An electric axle is configured to selectively enable an electric motor to power a drive shall of a vehicle. The electric axle includes a differential planetary gearset configured to transmit drive torque to a drive shaft. The differential planetary gearset has a sun gear configured to circumscribe the drive shaft. A clutch is configured to selectively non-rotatably couple the sun gear to the drive shaft. The clutch may include a sleeve moveable in an axial direction.