A wireless gimbal connection of use with electronics devices such as computer notebooks relatively pivotable portions such as a lid and base. The gimbal includes a carriage on which transmitter and receiver chips are mounted, and further has a magnet whose magnetic forces may be used to bring the gimbaled carriage into a predetermined alignment with the base, which may be used to arrange the chips and any sensors as may be used into alignment as well. As the orientation of the lid varies with respect to the base, the carriage within seeks alignment with the base due to the magnetic forces present. Where the base is located on a flat surface, gravitational forces also contribute to the alignment.

The invention relates to a method for controlling a camera robot for shooting a video sequence, the camera robot including a chassis that can be moved on a surface; a camera for shooting the video sequence; a holding device for connecting the camera to the chassis as well as for orienting the camera relative to the chassis; and a control unit configured to control the chassis, the holding device and/or the camera; the method including the following steps determining a characteristic shooting scene; and determining control parameters of the control unit depending on the determined characteristic shooting scene.

A medical holding arm, comprising at least one joint with two joint bodies which are rotatable relative to each other about a rotational axis (D), wherein a first of the joint bodies has a plurality of locking pins and a second of the joint bodies has a plurality of locking recesses, the number of locking pins differs from the number of locking recesses, the locking pins each have an axially tapered engagement part, the locking recesses are respectively formed axially tapered to selectively receive each of the engagement parts for locking the joint, and when the joint is locked, at least one of the locking pins is received with its tapered engagement part completely in one of the tapered locking recesses, while at least one of the other locking pins is received with its tapered engagement part only partially in one of the other tapered locking recesses.

A swivel device includes a base, a first gear fixed to the base, a tray configured to relatively rotate with respect to the base, a second gear fixed to the tray and engaged with the first gear so as to rotate together with the tray wherein the second gear has a smaller diameter than the first gear, a stopper wheel coaxially fixed to the second gear, and a stopper configured to stop rotation of the stopper wheel to fix a position of the tray.

A gimbal stabilizing system for an aircraft having an airframe is disclosed. The gimbal stabilizing system may comprise a gimbal apparatus having at least one gimbal actuator to adjust a position of the gimbal apparatus about an axis, wherein the gimbal apparatus is positioned on the airframe, an angular acceleration apparatus positioned on the airframe to generate an angular acceleration signal reflecting an angular acceleration of the airframe, and a gimbal controller operatively coupled to each of said angular acceleration apparatus and said gimbal apparatus. The gimbal controller may be configured to generate a gimbal control signal to compensate for the angular acceleration of the airframe based at least in part on a feedback control loop and a feedforward control loop, the feedforward control loop having the angular acceleration signal as an input thereto. The gimbal controller may be further configured to output the gimbal control signal to said gimbal apparatus to adjust a position of the gimbal apparatus.

A double action hinge unit is disclosed which comprises a first base element, a second base element and at least two connection elements. Each base element has at least two upward extensions. Each connection element is hingedly connected with an extension of the first base element and an extension of the second base element. The double action hinge unit is changeable among at least three combination states. When the double action hinge unit is in a second combination state, the at least two connection elements are arranged side by side, such that the double action hinge unit is rotatable about a rotational axis at one side into a first combination state and is also rotatable about a rotational axis at the other side into a third combination state.

A system for mounting a flat panel television or display to a surface such as a wall. A base plate is configured to operatively connect to a surface, while an adapter plate is configured to operatively connect to a display device. A plurality of connecting arms are used to operatively connect the base plate to the adapter plate. Each of the plurality of connecting arms includes a base plate engagement portion slidably engageable with slots in the base plate and an adapter plate engagement portion operatively connected to the adapter plate. Movement of the base plate engagement portions within the base plate's slots results in a translational movement of the adapter plate relative to the base plate.

Example embodiments for a stand for mounting a portable electronic device having an optical sensor are provided. The stand permits hands free operation of the portable electronic device for capturing the image or video using the optical sensor. Further, the stand allows tracking the capture the image or video of a moving user. Furthermore, the stand can be adapted like a selfie stick. Furthermore, the stand comprises a telescopic shaft vertically supported on a base unit and coupled to a head unit at top. The base unit includes a tripod or a quad stand that is foldable. The head unit comprises a housing enclosing a motor and control unit that rotates the holder at a desired angle. The holder is used for mounting the electronic devices.

A tilt mechanism for a display device support apparatus including a base member and a tilt head. The base member includes a bearing portion, a mounting portion, and a fastener recess. The tilt head includes an attachment portion and a sliding portion. The attachment portion is configured to couple the tilt head to a mounting plate, and the sliding portion engages the bearing portion. A friction member engages the tilt head and applies a friction force to the tilt head. A mounting fastener extends through a portion of the base and is connected to the friction member. The mounting fastener has a head that is positioned in the recess. The mounting fastener sets the amount of friction force on the tilt head.

A bidirectional pivoting joint comprises pivoting elements which are rotatable relative to one another, specifically in a coaxial arrangement, a cylindrical outer body and a cylindrical inner body and a locking device optionally locking and releasing the rotational movement. The locking device has an annular space between the outer body and the inner body. Provided between annular space surfaces, specifically an inner surface of the outer body and an outer surface of the inner body are radially narrowing and, on the other hand, radially wider, peripheral regions in alternating arrangement. Arranged in the annular space are at least two clamping members which are each adjustable in cross-section in the peripheral direction (u) of the annular space. In a holding state, each clamping member has a first said cross-section and lies in the narrowing peripheral regions against the outer body and the inner body. By this means, a self-holding clamping connection is established which blocks the relative rotational movement between the outer body and the inner body in each rotation direction (d). In a releasing state, each clamping member has a second said cross-section by means of which the clamping connection is released in order to free the rotational movement. An actuating device of the pivoting joint is equipped with an actuating means which acts on the clamping members to establish, firstly, the holding state and, secondly, the releasing state. A holding and positioning device comprises a plurality of said pivoting joints.