Abstract: A system and method for securing an item. Custom connectors which only couple to a custom converter can secure an item, deter its theft, and prevent unauthorized access. The custom connectors have a custom head which has a custom void. The custom void has a unique shape which matches and couples with a custom converter. A custom converter allows the custom connector to be manipulated. If desired, subsequently, when the item is in a more secure location, conventional screws can replace the item.

Abstract: A system and method for securing an item. Custom connectors which only couple to a custom converter can secure an item, deter its theft, and prevent unauthorized access. The custom connectors have a custom head which has a custom void. The custom void has a unique shape which matches and couples with a custom converter. A custom converter allows the custom connector to be manipulated. If desired, subsequently, when the item is in a more secure location, conventional screws can replace the item.

Abstract: An internal support bracket for a power switch includes a bottom support and a top cover. The top cover is secured to the bottom support. The combined bottom support and top cover define an aperture for securing the power switch. The bottom support includes a bottom surface with a ridge protruding therefrom. A method of securing a power switch to the interior of a computer chassis includes connecting a base support including a channel to an interior wall of the computer chassis. A power switch is positioned between a top cover and a separate bottom support. The separate bottom support includes a ridge protruding from a bottom surface. The top cover is secured to the separate bottom support. The ridge of the separate bottom support is slid into the channel such that the internal support bracket including the power switch is secured in a locked position.

Abstract: A power distribution system, modular data center (MDC), and method provide a permanent electrical enclosure sized for an eventual maximum load allowing for flexible ampacity and concurrent upgradeability. A busway is mountable in a MDC to carry three-phase AC electrical power. A three-phase electrical cable is rated to carry a maximum power value to connect to a power distribution unit (PDU) of a first rack-based information handling system (IHS) of the MDC. A bus plug is engaged to the first busway and has at least three conduction paths that electrically connect to the three-phase electrical cable. Interchangeable fused switch modules of different power ratings are selectable to be received in a fused switch module receptacle in the bus plug. A reduced power fused switch module for initial power capacity of the MDC can later be upgraded to a maximum power rating without changing anything but the fused switch module.

Abstract: There is adopted a shape in which the portions, at the central side of a distribution board, of left and right unit bases on which respective breakers are mounted can be arranged in a staggered manner, so that there is realized a structure in which units can be horizontally arranged while the units share a central vertical bus-line. Alternatively, two insertion-type breakers are horizontally arranged on one and the same unit base and wiring is performed from a contactor provided on the unit base to the primary-side terminal of each of the breakers, so that the left and right breakers share the central vertical bus-line.

Abstract: An electrical distribution apparatus includes a bus bar assembly including a first surface. The electrical distribution apparatus also includes a backplane including a second surface. The electrical distribution apparatus further includes a plurality of engagement features and a plurality of openings for receiving the plurality of engagement features. The plurality of engagement features couple the bus bar assembly to the backplane. The plurality of engagement features extend from at least one of the first surface and the second surface. The plurality of openings are defined by at least one of the first surface and the second surface.

Abstract: An electrical panelboard enclosure includes an enclosure housing with an interior equipment chamber accessible by way of a service entrance door. A service panel is configured to receive power from a main power source. A main power breaker has a main power breaker toggle switch and is positionable between a power-on state and a power-off state to selectively activate and deactivate the main power. A power cutoff switch mechanism is operable from outside the service entrance door and is positionable between a power-on state and a power-off state to mechanically engage and deactivate the main power breaker toggle switch and cutoff the main power without opening the service entrance door. A lockout system is operable to prevent the service entrance door from being secured in a closed position unless the main power breaker and the power cutoff switch mechanism are in the same state.

Abstract: An electrical panelboard enclosure includes a primary service panel configured to receive power from a main power source and an alternate power source, an alternate power source connector array, and a distribution panel that delivers main or alternate power to subsidiary load circuits. A service transfer switch unit includes a main power breaker and an alternate power breaker having mutually interlocked toggle switches for respectively activating/deactivating the main and alternate power. The panelboard enclosure further includes a power cutoff switch operable from outside a service entrance door of the enclosure to mechanically engage and deactivate the main power breaker toggle switch.

Abstract: An interlock arrangement includes a pair of slidable lockouts operatively associated with utility and generator side switches of an electrical panel. Together with either an interlinked member or a rocker lockout, the interlock arrangement sequences manual switching of the utility and generator side switches according to a pre-defined switching sequence, such as a seven step sequence or a five step sequence.

Abstract: A locking device for an electric switch is disclosed which is movably guided in a withdrawable rack via an actuating shaft wherein the electric switch is placed in a preferred position, in particular in a disconnected position. In at least one embodiment, the locking device is movable from a release position in which the switch is displaceable in the withdrawable rack to a locking position in which the locking device blocks the switch displacement in a predetermined direction and the actuating shaft is actuated via an actuating crank. In order to safe the switch locking in the preferred position thereof, the locking device is movable to the locking position when the actuating crank actuation is blocked, only. The withdrawable rack, provided with the inventive locking device for the electric switch displaceable in the withdrawable rack via the actuating shaft, is also disclosed.

Abstract: The time required to boot a computer is reduced by reducing or eliminating the need to discover many or all devices within the computer and the machine topology. Access panels are monitored so that it is detected when they are opened. For the access panels that have not been opened, it is assumed that the system configuration, topology, devices, etc. have not changed since the last boot process and there is no need to spend time discovering these devices and machine topology. Stored, instead of discovered, configuration information is then used to configure these devices. This reduces the time required to boot since discovery of devices is not performed. A service processor or other logic may be used to detect which access panels are opened. Also, only those elements of the configuration that may be affected by the particular access panels that were opened need to be re-discovered.

Abstract: A computer enclosure includes a hood (30), a bracket (10) attached to the hood, and a base (60). The bracket includes a connective portion (12), and two frames (14, 16) connected with opposite sides of the connective portion. Two L-shaped openings (18a) and an aperture (20a) are defined in the connective portion. A distal edge of each frame is bent outwardly to form a flange (22). An L-shaped opening (18b) and an aperture (20b) are defined in each flange. Three parallel beams (32a, 32b) are formed from a top plate (31) of the hood. The beams form a plurality of latches (36b) engagingly received in the openings of the bracket. A plurality of posts (34a, 34b) is formed at the beams, corresponding to the apertures. A plurality of screws (50) extends through the apertures and is threadedly engaged in the posts. The bracket is thereby locked on the hood.

Abstract: A load feeder of modular construction is provided. The load feeder includes a feeder assembly and a base lower part with integrated cable and/or bus sections. The base lower part can be expanded to form a modular support system, with a cable and bus system, by arranging in a row and making contact with further physically identical base lower parts, in order to accommodate further feeder assemblies or input and output assemblies.

Abstract: A child safety outlet cover that plugs into and completely covers electrical wall outlets. The outlet cover has a door on the front of the cover which allows power cords to plug into a wall outlet and yet the plugs and outlet remain covered. The door is equipped with a childproof safety latch to keep children from opening the door. If the door is opened an alarm will sound and electricity to the outlet cover will shut off. Even with the door closed there is no power to the outlet cover unless a power cord is plugged into the outlet cover.

Abstract: A switchgear unit comprising two switching devices (1, 2) which are provided with a reversing combination, which switchgear unit is of simple design and allows easy assembly and disassembly by the customer. The reversing combination comprises an assembly which is composed of a support (3) and an anchor (4) and is inserted into slots (7, 8) in connecting side walls (5, 6) of the switching devices (1, 2). The anchor (4) prevents the contact carriers (10) of the switching devices (1, 2) from being released at the same time and, when one of the switching devices (1 or 2) is switched on, prevents the contact carrier (10) of the other switching device (2 or 1) from being released.

Abstract: An interpolating process is performed on an input periodic signal using at least one first circuit board and a second board. Each first circuit board includes a partial circuit for performing the interpolating process. A plurality of these first boards can be mounted on the second board, and a divisional number of the interpolating process can be selected in accordance with the number of first boards mounted on the second board.

Abstract: A bolt-on, duplex circuit breaker having an external, integrally formed key member designed with a truncated pyramidal shape. The pyramidal shape is used to discourage tampering aimed at its removal. A panelboard into which bolt-on, duplex circuit breakers are mounted having mounting rails onto which the circuit breakers are disposed. The mounting rails have cooperating, key member accepting notches that act in conjunction with the key member integrally formed upon the circuit breaker for limiting the number of bolt-on, duplex circuit breakers that are insertable within the panelboard.