A power and optical fiber interface system includes a housing having an interior. A cable inlet is configured to receive a hybrid cable having an electrical conductor and an optical fiber. An insulation displacement connector (IDC) is situated in the interior of the housing configured to electrically terminate the conductor, and a cable outlet is configured to receive an output cable that is connectable to the IDC and configured to output signals received via the optical fiber.

A mounting device includes a housing, a sliding structure, and a switch structure. The housing includes two tracks, an elastic element including a blocking rib, and a first clamping element. The sliding structure is movably disposed in the tracks and includes a second clamping element and a reverse rib. The switch structure is movably disposed on the sliding structure and includes a forward rib. When the sliding structure is in the installed position, a support frame is fastened between the first clamping element and the second clamping element, and the blocking rib prevents the sliding structure moving relative to the housing. When the switch structure is moved in a detaching direction, the forward rib pushes the blocking rib away from the reverse rib, to allow the sliding structure to move in the detaching direction relative to the housing.

A mounting bracket may reserve an installation site for a network component at a specific geographic location. The mounting bracket may bear indicia by which the mounting bracket can be associated (e.g., electronically) with the geographic location for tracking and/or reporting purposes. The indicia may be removable from the mounting bracket. The indicia may block the network component from being installed at the mounting bracket prior to removal of the indicia.

An assembly for mounting one or more RRUs to a mounting structure includes: first and second mounting panels, each of the first and second mounting panels having a main body and a flange that extends generally perpendicularly to the main body, the main body including mounting apertures patterned for mounting of an RRU; a mounting foundation having side edges, each of the side edges having an open-ended slot; mounting members extending from the flanges away from the main body of each of the first and second mounting panels, the mounting members configured to enter the open-ended slots on the mounting foundation and slide therein, and fasteners cooperating with the mounting members to mount the mounting panel to the mounting foundation.

A portable electric fence energizer is described, having a housing and an electric pulse generating circuit located within the housing. The energizer further includes a post securing mechanism configured to secure the housing relative to an electrically conductive post. The post securing mechanism includes at least one electrical contact configured to contact the post when secured by the post securing mechanism. A conductive link between the electrical contact and the electric pulse generating circuit may be used to provide an earth connection for the energiser, or an output connection between the electric pulse generating circuit and a wire of the electric fence.

The application belongs to the technical field of LED display screens, and particularly relates to an outdoor LED display. The Outdoor LED display comprises a box body, a display module and a plurality of control assemblies; the display module comprises a plurality of sub-modules, and each sub-module is provided with a control assembly; the box body comprises a frame and a panel installed on the frame, and the display module is connected at one end of the frame away from the panel; the panel, the frame, and the display module form an installation space for installing the control assembly. In this application, each sub-module is installed with a corresponding control assembly, and the control assembly can control the corresponding sub-module to display, thereby enhancing the display effect of the outdoor LED display.

An interconnecting module (1) configured to be mounted in a High-Performance Computing cabinet, thereafter HPC cabinet, in order to interconnect a plurality of computing units (A1-A4) located in the HPC cabinet, the interconnecting module (1) comprising a chassis configured to be mounted horizontally within housings (H1-H4) defined in the computing units (A1-A4), a plurality of connection units (M1-M4) spaced vertically, each connection unit (M1-M4) being configured to be connected to a motherboard of a computing unit (A1-A4), the connection units (M1-M4) being interconnected, each connection unit (M1-M4) comprising at least a fastening member configured to cooperate with a housing (H1-H4) of a computing unit (A1-A4), a vertical rack cooperating with all the fastening members and at least a main lever (2) mounted pivotally on the chassis, the main lever (2) being configured to move the vertical rack vertically in order to engage/disengage all the fastening members (51-54) simultaneously.

An adjustable computing device hanger can include a hangable support member; a first set of angling side members, pivotably coupled to the hangable support member, that include first side edge bumpers, and a second set of angling side members, pivotably coupled to the hangable support member, that include second side edge bumpers; and a first guide member that bridges the first set of the angling side members and a second guide member that bridges the second set of angling side members, where each of the first guide member and the second guide member includes a corresponding bottom edge bumper.

An object of the present invention is to provide an electronic control unit that curbs overflow of a sealant at a three-way junction of the sealant in the vicinity of a connector. The electronic control unit includes a first seal part 51 that seals between a base member 40 and a cover member 30, a second seal part 52 that seals between the base member 40 and a connector housing 20, and a third seal part 53 that is connected to the first seal part 51 and the second seal part 52 and seals between the cover member 30 and the connector housing 20. In a part (three-way junction) where the first seal part 51, the second seal part 52, and the third seal part 53 intersect, a space part 41JA1 that is connected to the recessed part 41 and recessed further from a surface forming the recessed part 41 is formed.

A mounting system is disclosed that includes a bracket configured to mount an object on a structure. The bracket includes a front panel, two side panels extending from the front panel, and a plurality of slots. Each slot is configured to accept a projection connected to the object and retain the projection within the slot. The bracket further includes a plurality of apertures. The mounting system further includes a retainer configured to extend into the bracket through the plurality of apertures and prevent, at least in part, the plurality of projections, retained by the bracket in the plurality of slots, from being withdrawn from the plurality of slots.