Disclosed are a support device and a folding furniture having the support device. The support device includes a base, a support mechanism, a fixed seat, and a force providing mechanism installed to the base. The support mechanism includes a support element and a rotating element rotatably installed to the base. The support assembly has an end hinged to the fixed seat and the other end having a disassembling structure for detachably connecting the rotating element. The rotating element abuts the force providing mechanism, and the force providing mechanism is provided for supporting the rotating element. The support device has an ingenious structural design, so that the support element and the rotating element can be installed or removed conveniently, and the operation is simple and labor-saving, and the lifting operation of the support element has the features of stable operation, low noise, and high practicality.

A cam assembly is provided for a pick-up reel of an agricultural harvester. The cam assembly includes a cam track, a roller bearing assembly, a crank arm, and a biasing member. The roller bearing assembly includes a baffle and first and second cam followers. The first and second cam followers are each mounted to the baffle in spaced apart relation and engaging the cam track. The crank arm is for mounting to the pick-up reel. The biasing member biases the roller bearing assembly relative to the crank arm.

A cam assembly is provided for a pick-up reel of an agricultural harvester. The cam assembly includes a cam track, a roller bearing assembly, a crank arm, and a biasing member. The roller bearing assembly includes a baffle and first and second cam followers. The first and second cam followers are each mounted to the baffle in spaced apart relation and engaging the cam track. The crank arm is for mounting to the pick-up reel. The biasing member biases the roller bearing assembly relative to the crank arm.

A wheel cylinder adjuster includes a rotational disc, an axle, two guiding discs and two groups of claws. An oval slot extends in a first side of the rotational disc. A flower-shaped slot extends in a second side of the rotational disc. The axle is inserted in the axial aperture of the rotational disc. The first guiding disc is connected to the axle against the first side and includes two opposite radial slots. The second guiding disc is connected to the axle against the second side and includes three radial slots. Each claw in the first group is movably inserted in one of the slots of the first guiding disc and includes an insert movably inserted in the oval slot. Each claw in the second group is movably inserted in one of the slots of the second guiding disc and includes an insert movably inserted in the flower-shaped slot.

Provided is an electric motor assembly and method for assembling an electric motor assembly within an appliance. The electric motor assembly eliminates the use of a rigid or flexible circuit board. It also eliminates the need for soldering contacts between the electrical switches, circuit board and motor which can increase the possibility of operational failures. The electric motor assembly further provides a single power point wiring connection between the switch and motor terminals and connector port allowing the motorized device to communicate with an appliance controller. Furthermore, by positioning certain mechanical components for operating electrical switches on the baseplate of the electric motor assembly and eliminating secondary components on adjacent brackets, a reduction in the dimensional tolerance stack-up among the electrical switches can be obtained.

Provided is an electric motor assembly and method for assembling an electric motor assembly within an appliance. The electric motor assembly eliminates the use of a rigid or flexible circuit board. It also eliminates the need for soldering contacts between the electrical switches, circuit board and motor which can increase the possibility of operational failures. The electric motor assembly further provides a single power point wiring connection between the switch and motor terminals and connector port allowing the motorized device to communicate with an appliance controller. Furthermore, by positioning certain mechanical components for operating electrical switches on the baseplate of the electric motor assembly and eliminating secondary components on adjacent brackets, a reduction in the dimensional tolerance stack-up among the electrical switches can be obtained.

The linear-to-rotary actuator is a device that has two rotors at opposite ends of a main housing tube, the rotors being driven to rotate by a slider disposed between the rotors, the slider being attached to the piston of a linear actuator. The device may be configured so that angular displacement between the rotors may be adjusted for use with apparatus that may require variable angular displacement between articulated segments, such as a robotic arm, the arm of an excavator or crane, and the like. In one embodiment, the device has rollers mounted on opposite sides of the slider that engage tracks defined in adaptors selectively coupled to the rotors by boltless connectors. In another embodiment, the device has gear trains driven by the slider that are coupled to the rotors for multiplying angular displacement between the rotors.

A rotation transmission mechanism may include a drive wheel structured to rotate to one side, a driven wheel turned by the drive wheel to one side, and an urging member urging the driven wheel to turn to the other side. The drive wheel may include a drive teeth forming part where drive teeth structured to turn the driven wheel to the one side are provided at positions different from each other in an axial line direction, and a cam face forming part on which the driven wheel is slid. The driven wheel is provided with a driven teeth forming part where driven teeth provided at positions different from each other in an axial line direction are disposed over an angular range so that, when the drive wheel is turned to the one side, the drive teeth are sequentially abutted with the driven teeth.

A rotation transmission mechanism may include a drive wheel structured to rotate to one side, a driven wheel turned by the drive wheel to one side, and an urging member urging the driven wheel to turn to the other side. The drive wheel may include a drive teeth forming part where drive teeth structured to turn the driven wheel to the one side are provided at positions different from each other in an axial line direction, and a cam face forming part on which the driven wheel is slid. The driven wheel is provided with a driven teeth forming part where driven teeth provided at positions different from each other in an axial line direction are disposed over an angular range so that, when the drive wheel is turned to the one side, the drive teeth are sequentially abutted with the driven teeth.

To provide a switch device in which a switch lever and an energizing member can efficiently be incorporated, an actuator, a clutch device and a laundry machine.