The present disclosure relates to an electrically controlled sliding apparatus for photographic equipment, comprising: a controlling component, comprising a power supply and a slider controlling component electrically connected with the power supply; a guiding component; and a sliding component electrically connected with the controlling component and slidably mounted on the guiding component, the sliding component comprising: a rotation component for providing rotation movement; wherein the controlling component further comprises a first conducting part electrically connected with the power supply and the sliding component, the controlling component is configured to supply power to the rotation component through the first conducting part, and wherein the first conducting part comprises a first connecting section and a second connecting section respectively connected with the controlling component and the sliding component.

A bracket (1) for mounting an object to a profiled beam (10), which includes a clamp (2) and a support (3) for adjustably securing the object relative to the profiled beam (10). The clamp (2) includes a pair of opposed clamp members (20, 21), a sprung hinge (4) connecting the clamp members (20, 21) together on a first of their sides and a fastener (5) for fastening the clamp members (20, 21) together on a second of their sides. Each clamp member (20, 21) describes a beam receiving recess (22) and includes a retaining lip (25) on the first side for engaging a profiled beam (10). The fastener (5) is operable to fasten the clamp members (20, 21) on the second side of the beam (10), while the retaining lips (25) engage the first side of the beam (10).

A display panel mounting system includes a plate and an adjustment device. The plate includes a plate opening. The adjustment device includes a body, a sleeve, a coupler, and a nut. The body includes a receiver. The body is configured to be received within the plate opening. The sleeve is received within the body. The coupler includes a slot that receives the receiver such that the coupler is coupled to the body. The nut is coupled to the body such that the sleeve is repositionable within the body when the nut is coupled to the body.

A display panel mounting system includes a plate and an adjustment device. The plate includes a plate opening. The adjustment device includes a body, a sleeve, a coupler, and a nut. The body includes a receiver. The body is configured to be received within the plate opening. The sleeve is received within the body. The coupler includes a slot that receives the receiver such that the coupler is coupled to the body. The nut is coupled to the body such that the sleeve is repositionable within the body when the nut is coupled to the body.

The information display apparatus includes a sheet display section; a mechanical mechanism that moves the display section, and switches a state of the display section between a deployment state in which a display space is formed and a non-deployment state in which the display space is not formed; a motion sensor that detects a motion of the display section; and a controller that calculates, from data of the detection performed by the motion sensor, at least motion information other than a component related to the movement of the display section that is performed by the mechanical mechanism, and determines an anomaly.

The present invention relates to a member for a chair for implementing a multi-channel sound system and a chair including the member, and more particularly, to a member for a chair, the member having a plurality of speakers installed therein to implement a multi-channel sound system and installed in a chair to provide sound environments having a sense of space and a three-dimensional effect to a user who sits in the chair, and a chair including the member.

A cable television apparatus with a screwless clamping connector structure includes a support structure and at least one rotary connector structure which includes a screwless clamping connection part and a printed circuit board connection part, wherein the screwless clamping connection part includes a first end part which defines an opening to receive a coaxial cable core of a coaxial cable. The at least one rotary connector structure can be rotated to change an opening direction of the opening.

The present disclosure provides a connecting bracket and a camera system. The camera system may include a first lens unit, a second lens unit, a first image sensor unit corresponding to the first lens unit, a second image sensor unit corresponding to the second lens unit, and a connecting bracket configured to connect the first lens unit and the first image sensor unit to form a first camera component, and connect the second lens unit and the second image sensor unit to form a second camera component. A predetermined angle may be formed between a first optical axis of the first camera component and a second optical axis of the second camera component.

An extendable hardware mount is disclosed. The mount includes a bracket and a rail system allowing the bracket to move between an extended position and a contracted position. The bracket may be detachable from the rail system. The bracket may include a securement system providing at least one securement location for equipment.

Devices and methods are disclosed for an optical component mounting system for supporting an optical component such as a laser. The mounting system comprises a first component comprising a first surface, a second component comprising a second surface facing the first surface, and adhesive between the first surface of the first component and the second surface of the second component, wherein the first component comprises at least three mounting pads extending from the first surface for contacting the second surface of the second component and providing direct support between the first component and the second component. The component comprising the mounting pads may be a lower mount, an upper mount such as an upper clamping mount, or a bonding pad or other component in the stack of components. A method of assembling the stack of components may comprise curing the adhesive at a temperature at or above an upper end of an expected temperature operating range for the optical component mounting system.