A clamping device, an electronic device, and a remote control method of the electronic device. The clamping device includes a clamping unit, a first communication unit, and a control unit. The clamping unit is suitable for clamping the electronic device. The first communication unit is suitable for pairing with a second communication unit of the electronic device. The control unit is coupled to the clamping unit and the first communication unit. When the clamping unit is switched from an off mode to an on mode, the control unit controls the first communication unit to pair with the second communication unit and sends a screen-off command to the second communication unit via the first communication unit after the pairing is completed. When the clamping unit is in a clamping mode, the control unit sends an application open command to the second communication unit via the first communication unit.

A gimbal, a balancing method, a control method, a balancing motor and a gimbal assembly are provided. The balancing method includes: controlling a driving motor to rotate, and obtain a first electric signal parameter of the driving motor, where the gimbal includes a rotating assembly and a balancing motor, and the rotating assembly includes a gimbal component, a transmission mechanism and a driving motor. The driving motor is configured to drive the gimbal component to rotate so as to adjust the attitude of the gimbal. The balancing motor is configured to drive at least part of the gimbal component to move via the transmission mechanism so as to adjust the center of gravity of the gimbal. The operation of the balancing motor may be controlled based on the first electrical signal parameter to make the gimbal in a balanced state in an adjustment direction of the balancing motor.

Methods and devices for manipulating an articulating arm of an ultrasound therapy system are provided. In one embodiment an articulating arm comprises a first articulating arm link, a second articulating arm link, a rotating joint configured to rotationally connect the first articulating arm link to the second articulating arm link so that the first and second articulating arm links are substantially perpendicular, and an arm limiter attached to the second articulating arm link, the arm limiter being configured to limit rotation of the second articulating arm link along the rotating joint with respect to the first articulating arm link. An ultrasound therapy transducer and imaging system can be mounted on the articulating arm. Methods for performing manipulating the arm and system are also provided.

An overhead display assembly includes a display monitor coupled to a monitor tray. The monitor tray is positionable in an operational position and a maintenance position. A support stanchion has an anchoring part, a coupling part, and a stanchion body extending from the anchoring part to the coupling part. The anchoring part is coupleable to a fixed vertical or horizontal supporting structure. A counter-balanced hinging mechanism has one or more pivots upon which monitor tray is configured to rotate with respect to said support stanchion. A force producing device is configured to apply a variable amount of force to the monitor tray based upon a position of the display monitor, the variable amount of force being at least a force sufficient to maintain the monitor tray stationary in an intermediate position between the operational position and the maintenance position.

An adjustable support arm utilizing an elastomeric member having a dynamic attachment point to support the weight of an attached object. The adjustable support arm can include a lower bracket that is connected to an upper bracket by an upper arm and a lower arm. The elastomeric member counterbalances the weight of an attached object. The first end of the elastomeric member can be attached to a linkage, which can include a first, second, and third link and the second end of the elastomeric member can be attached to one of the arms. The links can be coupled to each other between the upper and lower arms such that the linkage is dynamically moveable upon movement of the support arm.

A gimbal for supporting a load includes at least three rotatably coupled driving axis assemblies, an angle sensor, and a controller. Each driving axis assembly includes a driving device and a joint arm configured to rotate when driven by the driving device. The angle sensor is configured to detect a joint angle of a driving device of at least one of the driving axis assemblies. The controller is configured to control the gimbal in a two-axis mode, in response to detecting that the joint angle of the driving device of the at least one of the driving axis assemblies is within a predetermined value range.

A floor supported free standing dispenser assembly including a fluid dispenser coupled to an upper end of the dispenser assembly and a fall arrest bumper member which will engage with a floor to reduce damage from any impact with the floor should the stand or dispenser assembly be tipped over.

A stabilizing device includes a frame assembly configured to hold an imaging device and a motor assembly configured to directly drive the frame assembly to allow the imaging device to rotate. The frame assembly includes a first, a second, and a third frame member. The imaging device is configured to be coupled to the first frame member. The first frame member is rotatably coupled to the second frame member about a first rotational axis. The second frame member is rotatably coupled to the third frame member about a second rotational axis not orthogonal to the first rotational axis. The motor assembly includes a first motor configured to directly drive the first frame member to rotate around the first rotational axis and a second motor configured to directly drive the second frame member to rotate around the second rotational axis.

A carrier includes a stator configured to be coupled to a base support, a frame operably coupled to the stator via a plurality of piezoelectric actuators, and at least one inertial sensor attached to the frame. The stator includes a spherical surface. The frame is configured to rotate relative to the stator about one or more rotational axes. Rotation of the frame is effectuated via the plurality of piezoelectric actuators. The inertial sensor is configured to detect a motion of the frame.

An apparatus for supporting a display in a plurality of positions between a lower position and an upper position has a base support, a display support member, and a linkage assembly. The linkage assembly has a first link member, a second link member, and a tension spring. In the lower position, the display bracket is below an upper end of the base support, and in the upper position, the display bracket is above the upper end of the base support. In each of the plurality of positions, a vertical component of an upward force exerted on the display support member by the linkage assembly is substantially constant.