An example electrical connector includes a body to receive a circuit board. The body includes a first end and a second end. The electrical connector also includes a first latch rotatably attaches to the first end. The electrical connector further includes a second latch rotatably attaches to the second end. The electrical connector further includes a link member attached to the body. In response to a rotation of the first latch, the link member is to slide across the body from the first latch towards the second latch to rotate the second latch.

An ejector device comprising a housing block; an ejector handle adapted to alternate between an open position and a closed position, having first and second rack engagement features, a sloped feature, and a notch; a trigger latch adapted to alternate between a latched position and an unlatched position, and having a sloped feature adapted to engage the sloped handle feature, and a hook adapted to engage the ejector handle notch; and an ejector button adapted to alternate between a pressed position and an unpressed position; wherein the housing block comprises a space for receiving the ejector handle and the latching trigger; the ejector handle is pivotally attached to the housing block and is adapted to urge the latching trigger to the unlatched position when the ejector handle moves to the closed position and the sloped handle feature engages with the sloped latching trigger feature; and the latching trigger is pivotally attached to the housing block, and is adapted to be urged to the unlatched position as the ejector button moves to the pressed position and impinges on the latching trigger.

A connector assembly for connecting an upper circuit board to a lower circuit board is disclosed. The upper circuit board includes a series of fastener holes for a fastening device allowing attachment to the lower circuit board. The connector assembly has a support bracket with access holes aligned with the holes of the upper circuit board. The support bracket is configurable to be positioned over the upper circuit board. The connector assembly has a moveable cover bracket having a series of access holes. The cover bracket is suspended between the support bracket and the cover bracket. The cover bracket is moveable between an open position aligning the access holes with the access holes of the support bracket, and a closed position. In the closed position, the cover bracket blocks access between the access holes of the support bracket and the holes of the upper circuit board.

A welding structure capable of rotational movement and a welding method for the same are introduced. The welding structure capable of rotational movement includes a seat member and a rotational movement member. The seat member has a welding portion. The rotational movement member is movably fitted to the seat member. The rotational movement member has a pressing portion for welding the welding portion to an object; thus, the rotational movement member undergoes rotational movement while the pressing portion is pressing against a pressed object, thereby causing displacement of the object. Therefore, the welding structure capable of rotational movement and the welding method for the same exhibit enhancement of ease of use, labor saving, and convenience.

A handle mechanism is to be mounted on a slidable plate and to slide the slidable plate relative to a chassis. The handle mechanism includes a handle and an engagement component. The handle is adapted to be pivotably disposed on the slidable plate so as to have an engaged position and a disengaged position. The engagement component is slidably disposed on the handle and adapted to contact the chassis to slide the slidable plate into the chassis. The engagement component has a contact surface, and the contact surface has an edge located away from an axis of the handle. A distance between the edge of the contact surface of the engagement component and the axis of the handle in the engaged position is smaller than a distance between the edge of the contact surface of the engagement component and the axis of the handle in the disengaged position.

A computing unit configured to be mounted in a HPC cabinet comprising an external body and an internal body that comprises secondary electronic components. The internal body being releasably coupled with the external body in order to allow extraction of the internal body when the external body is secured fixedly to the HPC cabinet. The computing unit also includes at least one front lever pivotally coupled to the internal body and configured to latch with a latching wall of the external body and to latch with the bottom wall of the external body in order to releasably couple the internal body with the external body.

The disclosure relates to a cage and an electrical device having the same, where the cage is configured to accommodate at least one expansion card and includes a cage body, a rail, and at least one holder. The cage body is configured to accommodate the at least one expansion card. The rail is fixed on the cage body. The rail has a groove configured for an insertion of the at least one expansion card. The at least one holder is movably disposed on the cage body. Part of the at least one holder is removably located in the groove. The at least one holder is configured to block the at least one expansion card in the groove.

A server information handling system couples to a rack and is secured with a security device coupled to one side of the information handling system housing clear of the front side of the information handling system so that the entire front side of the housing is available for venting and/or interface devices like a power switch and ports. The security device has a latch that moves vertically in response to an outward and upward pull on a lever engaged with the latch. The latch secures and releases the housing to the server rack, such as at the rail holding the housing in the rack, and releases a pin from a slot of a bezel that covers a front face of the server information handling system. The pin moves vertically in a channel of the latch and is biased to a locked position so that insertion of the server bezel onto the housing will lock the bezel with the pin while the lever remains in a locked position.

A pluggable mechanism with a synchronous connecting rod includes a turnover connecting rod reversibly disposed on a surface of a jig housing, a synchronous connecting rod fixedly connected to a rod body of the turnover connecting rod, and a plurality of clamping claws connected to the synchronous connecting rod and configured to clamp corresponding connectors respectively to rotate and apply forces for plugging and unplugging. A clamping groove configured to clamp the connector is disposed in an outer edge of each clamping claw, and a rotation center hole configured to cooperate with a centering pin shaft reserved on the jig housing is disposed in a surface of each clamping claw.

A locking mechanism for a device assembly in an information handling system is disclosed. The locking mechanism includes a bulkhead, a compression spring, a leaf spring, and a lever. The compression spring is located within a cavity of the first portion of the bulkhead. A first end of the compression spring is located beyond a surface of the first portion when the compression spring is in a first position. An end of the leaf spring is in physical communication with the first end of the compression spring. The lever is in physical communication with the second portion of the bulkhead and includes an outer surface in physical communication with the leaf spring. When the lever interfaces with a portion of the information handling system and the lever is in a locked position, a connector of an electronic board is fully mated with a connector of the information handling system.