A connection clamp includes a base member defining an operating space in a front side thereof and two bearing surfaces at two opposite lateral sides relative to the operating space, and a clamping mechanism including two clamping members of V-shaped cross section pivotally mounted in the operating space with an axle and a spring member mounted on the axle with two opposing angled end pieces respectively fastened to the clamping members to force the clamping plates into abutment against the respective bearing surfaces of the base member for clamping two flat mobile electronic devices to hold them side by side in the same plane.

This application is directed to a mounting plate for attaching an electronic device to a mounting surface. The mounting plate includes an opening configured to receive a mounting fastener for securing the mounting plate to the mounting surface, and a first polygonal fastener structure configured to mate with a complementary second polygonal fastener structure of the electronic device. When the first and second fastener structures are mechanically mated to each other, the electronic device is fixed to the mounting plate. When the mounting fastener is secured to the mounting surface through the opening, the mounting plate is rotatable such that when the electronic device is fixed onto the mounting plate and the mounting plate is secured to the mounting surface by the mounting fastener, the electronic device and the mounting plate have an unlimited range of rotation with respect to the mounting surface and substantially consistent resistance.

This application is directed to a mounting plate for attaching an electronic device to a mounting surface. The mounting plate includes an opening configured to receive a mounting fastener for securing the mounting plate to the mounting surface, and a first polygonal fastener structure configured to mate with a complementary second polygonal fastener structure of the electronic device. When the first and second fastener structures are mechanically mated to each other, the electronic device is fixed to the mounting plate. When the mounting fastener is secured to the mounting surface through the opening, the mounting plate is rotatable such that when the electronic device is fixed onto the mounting plate and the mounting plate is secured to the mounting surface by the mounting fastener, the electronic device and the mounting plate have an unlimited range of rotation with respect to the mounting surface and substantially consistent resistance.

The present invention relates to a process of producing a boom part from a sheet metal blank, in particular a process of producing a boom part having a bearing seat, in which the starting material is merely formed by bending. Thus, the production process is simplified. In addition, the present invention relates to a process of producing a boom that is closed at both ends by joining two boom parts produced by means of the process of the present invention. Furthermore, the present invention comprises boom parts and booms which are produced by means of one of the processes according to the present invention.

A foldable bracket moveable between opened and folded positions. The foldable bracket including first and second bracket arms rotatably coupled to each other, where the second bracket arm includes a second bracket arm slot, a bracket arm linking member rotatably coupled to the first bracket arm and slidably coupled to the second bracket arm, first and second pins slidably disposed in the second bracket arm slot, where the second pin slidably couples the bracket arm linking member to the second bracket arm, a pin connecting member having an aperture and a pin connecting member slot, where the second pin is disposed in the aperture and the first pin is slidably disposed in the pin connecting member slot, and a release lever rotatably coupled to the second bracket arm and adapted to rotate between first and second positions.

A foldable bracket moveable between opened and folded positions. The foldable bracket including first and second bracket arms rotatably coupled to each other, where the second bracket arm includes a second bracket arm slot, a bracket arm linking member rotatably coupled to the first bracket arm and slidably coupled to the second bracket arm, first and second pins slidably disposed in the second bracket arm slot, where the second pin slidably couples the bracket arm linking member to the second bracket arm, a pin connecting member having an aperture and a pin connecting member slot, where the second pin is disposed in the aperture and the first pin is slidably disposed in the pin connecting member slot, and a release lever rotatably coupled to the second bracket arm and adapted to rotate between first and second positions.

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.

Disclosed are various examples of support assemblies comprising multiple elements engaged together and independently rotatable within or substantially parallel to a reference plane while resisting twisting, rotation, or other movement in directions other than substantially within or parallel to the reference plane. The elements typically include projecting members received within cavities of adjacent elements that are configured to allow the resulting assembly to collectively flex within, or substantially parallel to, the reference plane while resisting movement in other directions.

Disclosed are various examples of support assemblies comprising multiple elements engaged together and independently rotatable within or substantially parallel to a reference plane while resisting twisting, rotation, or other movement in directions other than substantially within or parallel to the reference plane. The elements typically include projecting members received within cavities of adjacent elements that are configured to allow the resulting assembly to collectively flex within, or substantially parallel to, the reference plane while resisting movement in other directions.

A one-piece insulation mounting bracket is disclosed. The mounting bracket readily supports the insulation (e.g., curtain wall insulation) without the need for separate fasteners, locking washers, etc. As a result, the insulation can be mounted more quickly than with conventional mounting systems.