A camera mounting system is provided. The camera mounting system includes a manifold member coupled to a camera mount device, such as a tripod. One or more rods may be coupled to the manifold member. The one or more rods provide a support structure to mount one or more of a camera, photography equipment, and audio equipment. The system may further include a ball joint and a clamp wherein the ball joint and the clamp operate to couple an additional rod to an end of a rod coupled to the manifold member.

The present disclosure discloses a calibration device for a vehicle Advanced Driver Assistant System, the calibration device includes: a foldable base (1), a stand assembly (2) and a beam assembly (3); the foldable base (1) including a bearing seat (11) and a plurality of bearing arms (12) rotatably arranged on the bearing seat (11), the stand assembly (2) is disposed on the bearing seat (11); the bearing arms (12) are able to be folded relative to the bearing seat (11) in a direction approaching the stand assembly (2); the beam assembly (3) is disposed on a top of the stand assembly (2) and includes two foldable beams (32). The calibration device for the vehicle ADAS can be folded when it is not in use, so that it occupy a smaller space and is convenient to carry, thereby facilitating its storage and transportation.

A first bracket is attached to a heat source apparatus. A second bracket is fixed to a wall. The second bracket has an engagement portion over which the first bracket is hooked. The first bracket has a through hole through which the engagement portion is inserted. The first bracket has a plurality of protruding portions that protrude from an upper end of the through hole into the through hole. The plurality of protruding portions are arranged side by side along the upper end of the through hole.

A suspension assembly is described. The suspension assembly including a static member or plate; a moving member or plate movable about an x-axis and a y-axis with respect to the static plate; a sensor mounting region on the moving plate; and one or more shape memory alloy (SMA) elements extending between and coupled to the static plate and moving plate. The SMA elements, when driven by a controller, move the moving plate and the sensor mounting region thereon about the x-axis and the y-axis with respect to the static plate.

A calibration system and a calibration bracket are provided. The calibration bracket includes a base, a stand assembly and a support assembly. One end of a fixed vertical rod is mounted to the base, and a movable vertical rod is mounted to another end of the fixed vertical rod. The support assembly is mounted to the movable vertical rod. A driving mechanism includes a first threaded rotating member, a second threaded rotating member and a threaded fixed member. The first threaded rotating member is mounted to the fixed vertical rod. The second threaded rotating member includes a first threaded structure and a second threaded structure. The second threaded rotating member is mounted to the first threaded rotating member through the first threaded structure and is mounted to the threaded fixed member through the second threaded structure. The threaded fixed member is fixedly mounted to the movable vertical rod.

The disclosed invertible structures rely on combinations of translational movements to effect inversion. An exemplary invertible structure includes a track operable to be slidably coupled to a connector element of a longitudinal structure. In an embodiment, the connector element may include at least two connectors at least partially disposed in a slot defined in the track, which may have a plurality of translational axes for translational movements of the connectors of the longitudinal structure that would effect the inversion of the longitudinal structure.

The present invention relates to the field of vehicle correction, and provides a calibration system and a calibration bracket thereof. The calibration bracket includes: a base, a stand assembly and a beam assembly. The stand assembly is fixedly connected to the base. The beam assembly includes a first beam portion, a second beam portion and a connecting portion, the connecting portion being mounted to the stand assembly, one end of the connecting portion being hinged to the first beam portion, and the other end of the connecting portion being hinged to the second beam portion. The first beam portion and the second beam portion can respectively rotate toward each other relative to the connecting portion, so that the beam assembly can be folded. The first beam portion and the second beam portion can also respectively rotate away from each other relative to the connecting portion, so that the beam assembly can be unfolded. In the foregoing structure, the first beam portion and the second beam portion can respectively rotate toward each other relative to the connecting portion, so that the beam assembly is folded, thereby reducing a volume of the calibration bracket to facilitate shipment.

Installation structures for tiled displays and tiled displays are provided. A tiled display includes a plurality of sub-display panels each of which is installed on a respective installation structure. The installation structure includes: a frame body, on which a corresponding sub-display panel is installed; a movable part provided on an outer side of the frame body; and an adjustment rod, an end of which penetrates through the frame body and cooperates with the movable part, where the adjustment rod is rotatable relative to the frame body, and rotation of the adjustment rod can drive the movable part to move close to or away from the frame body. The tiled display includes the installation structure for the tiled display.

A display device includes display panels; a frame supporting the display panels; a first magnetic body disposed on the frame; and a second magnetic body disposed on at least a part of the display panels, wherein the first magnetic body and the second magnetic body overlap each other in a direction parallel to a surface of the display panels and a direction perpendicular to the surface of the display panels.

A display apparatus includes a display panel and a support module configured to support the display panel, wherein the support module includes: a rotating frame configured to support the display panel, a fixed frame configured to support the rotating frame, and a link structure disposed between the fixed frame and the rotating frame and configured to rotate the rotating frame through at least four-bar link structure, so that the display panel is easily detachably attached to the rotating frame, thereby shortening a time for an operation of replacing, repairing, or installation of the display panel.