An apparatus for driving out a camera module between a locked position and an unlocked position includes a moving assembly, a mounting board, a self-locking switch, and an elastic element. The moving assembly slidably connects with the mounting board. The elastic element can be compressed on retraction to then drive out the moving assembly when released. The camera module when driven out is in an unlocked position.

An assembly includes a series of support structures. Each of the support structures includes a base, a top plate having a continuous surface area, and a connector coupling the base to the top plate. The connector assumes a compressed position when under load from an object. The support structures that are in an extended position provide a lateral retention force to the object.

An apparatus for driving out a camera module between a locked position and an unlocked position includes a moving assembly, a mounting board, a self-locking switch, and an elastic element. The moving assembly slidably connects with the mounting board. The elastic element can be compressed on retraction to then drive out the moving assembly when released. The camera module when driven out is in an unlocked position.

A load bracket includes a guide rod, a locking assembly slidably arranged at the guide rod, and a mounting plate slidably arranged at the locking assembly. The locking assembly includes a clamping assembly arranged at the guide rod and connected to the mounting plate, and a driving member connected to the clamping assembly. The driving member is configured to drive the clamping assembly to clamp the guide rod and to cause the mounting plate to abut against the clamping assembly.

A support for an imaging device includes a first rotatable assembly supportable by a support that rotates in a generally horizontal plane and a horizontal locking member. The imaging device includes a second rotatable assembly that rotates in a generally vertical plane. imaging device includes an interconnection structure that interconnects the first rotatable assembly to the second rotatable assembly such that the second rotatable assembly is rotatable around the first rotatable assembly at an elevation higher than the first rotatable assembly and offset laterally from the first rotatable assembly. imaging device includes the first rotatable assembly including a panning structure that rotates the support in the generally horizontal plane and a leveling base that is rotatable in a non-coplanar manner relative to the panning structure.

A top-loading mounting track includes a top-loading track section with a base; two beams extending over a portion of the base; and two rails extending opposite each other from the base and connecting the base to the beams. The beams are laterally spaced apart from each other by a first distance. Each rail includes an inner rail wall defining a shoulder portion; an insertion-pocket portion; and an angled guide-surface portion. The insertion-pocket portions are laterally spaced apart from each other by a second distance that is larger than the first distance. The track section can receive a retention element of a mount assembly, where the retention element has a smallest lateral dimension greater than the first distance. The track section can receive the retention element by passing the retention element between the beams with the retention element angled toward one of the insertion-pocket portions.

An expandable socket for attachment to a mobile electronic device. The expandable socket includes a platform adapted to engage a portion of the portable media player, a skin coupled to the platform, wherein the skin is deformable between a collapsed configuration and an expanded configuration. The expandable socket includes a button coupled to the skin opposite the platform. The expandable socket also includes a biasing element arranged within the skin between the platform and the button, the biasing element configured to bias the skin into the expanded configuration.

A rotation activated quick-release mount. A rack and pinion system converts rotation of a housing into linear expansion and contraction of the housing. A modular plate may be removably coupled with the housing. A biasing device may urge the housing into a base position. The plate may be installed when the housing is in the base position.

A system including a sheath implement a sheath implement that is configured to engage with a lock bracket implement. A sheath implement guide includes a plurality of angled wall portions, a header portion and a first lock cam slot portion. The lock bracket implement includes a guide block section having a plurality of angled edge portions that are configured to engage the plurality of angled wall portions of the sheath implement guide. A top ledge portion of the guide block section is configured to engage the header portion, and wherein the top ledge portion and header portion act as a stopper when the top ledge portion and the header portion makes contact. A second lock cam slot portion is configured to align with the first lock cam slot portion to accept a lock mechanism.

A projector suspension device includes a base fixed to a wall, a support member extending from the base and supporting the projector, and an adjustment mechanism that adjusts rotation and a position of the projector. The adjustment mechanism includes a first slide substrate that slides with respect to the support member in a first direction perpendicular to the wall and adjusts the position of the projector in the first direction, a substrate fixed to the first slide substrate, a first rotating substrate that rotates with respect to the substrate, a second rotating substrate that rotates with respect to the first rotating substrate about an axis parallel to the wall and perpendicular to the substrate, and a turning member that adjusts a rotation of the second rotating substrate and has a rotating pivot perpendicular to the base. The second rotating substrate rotates about the axis by rotation of the turning member.