Abstract: An electronic equipment rack has a support structure made up of post members configured to form a cage having a front, a back, a top, a bottom, a first lateral side, and a second lateral side and defining a space therebetween. A first plenum is arranged along the first lateral side of the support structure. A second plenum is arranged along the second lateral side of the support structure. A sealing panel defining a first wall of the first plenum has a length extending substantially from the top of the support structure to the bottom of the support structure. A portion of the first sealing member is selectively removable to define an intake port in the first plenum.

Abstract: An electronic equipment rack has a support structure made up of post members configured to form a cage having a front, a back, a top, a bottom, a first lateral side, and a second lateral side and defining a space therebetween. A first plenum is arranged along the first lateral side of the support structure. A second plenum is arranged along the second lateral side of the support structure. A sealing panel defining a first wall of the first plenum has a length extending substantially from the top of the support structure to the bottom of the support structure. A portion of the first sealing member is selectively removable to define an intake port in the first plenum.

Abstract: An electronics cabinet having a cabinet frame, a front equipment rail, and a structural air dam. The cabinet frame includes a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical post connected to the top frame and the bottom frame. The front equipment rail is removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams. The structural air dam is connected to the front equipment rail and to one of the plurality of vertical posts.

Abstract: An electronics cabinet having a cabinet frame, a front equipment rail, and a structural air dam. The cabinet frame includes a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical post connected to the top frame and the bottom frame. The front equipment rail is removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams. The structural air dam is connected to the front equipment rail and to one of the plurality of vertical posts.

Abstract: An electronics cabinet having a cabinet frame, a front equipment rail, and a structural air dam. The cabinet frame includes a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical post connected to the top frame and the bottom frame. The front equipment rail is removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams. The structural air dam is connected to the front equipment rail and to one of the plurality of vertical posts.

Abstract: An industrial control panel is provided that comprises a zone enclosure unit and an equipment segregation unit. The zone enclosure unit has a back panel, a plurality of side panels, a top panel, a bottom panel, and a door to access the interior of the zone enclosure unit. The zone enclosure unit is adapted to contain a first set of electrical equipment. The equipment segregation unit may be mounted to the zone enclosure unit. The equipment segregation unit has a back panel, a plurality of side panels, a bottom panel, and a door to access the interior of the equipment segregation unit. The equipment segregation unit is adapted to contain a second set of electrical equipment. The first set of electrical equipment is capable of being electrically connected to the second set of electrical equipment.

Abstract: An electronics cabinet having a cabinet frame, a front equipment rail, and a structural air dam. The cabinet frame includes a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical post connected to the top frame and the bottom frame. The front equipment rail is removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams. The structural air dam is connected to the front equipment rail and to one of the plurality of vertical posts.

Abstract: An electronics cabinet having a cabinet frame, a front equipment rail, and a structural air dam. The cabinet frame includes a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical post connected to the top frame and the bottom frame. The front equipment rail is removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams. The structural air dam is connected to the front equipment rail and to one of the plurality of vertical posts.

Abstract: The present invention is directed to an enclosure for electrical equipment. The enclosure includes a power plate assembly and a vented cover installed over the power plate assembly. Electrical components operating at 50 volts or more are mounted to a rail in the power plate assembly. The vented cover separates the electrical components mounted to the rail from the electrical components mounted in the enclosure.

Abstract: The present invention is directed to an enclosure for electrical equipment. The enclosure includes a power plate assembly and a vented cover installed over the power plate assembly. Electrical components operating at 50 volts or more are mounted to a rail in the power plate assembly. The vented cover separates the electrical components mounted to the rail from the electrical components mounted in the enclosure.

Abstract: An electronics cabinet having a cabinet frame, a front equipment rail, and a structural air dam. The cabinet frame includes a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical post connected to the top frame and the bottom frame. The front equipment rail is removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams. The structural air dam is connected to the front equipment rail and to one of the plurality of vertical posts.

Abstract: An industrial control panel is provided that comprises a zone enclosure unit and an equipment segregation unit. The zone enclosure unit has a back panel, a plurality of side panels, a top panel, a bottom panel, and a door to access the interior of the zone enclosure unit. The zone enclosure unit is adapted to contain a first set of electrical equipment. The equipment segregation unit may be mounted to the zone enclosure unit. The equipment segregation unit has a back panel, a plurality of side panels, a bottom panel, and a door to access the interior of the equipment segregation unit. The equipment segregation unit is adapted to contain a second set of electrical equipment. The first set of electrical equipment is capable of being electrically connected to the second set of electrical equipment.

Abstract: Certain embodiments of the present invention provide a door for a vertical cable manager. The door includes a panel. Additionally, the door includes a first hinge pin disposed at a first end of the panel. The first hinge pin slides from an extended position to a retracted position. Additionally, the door includes a first hinge pin retention member disposed adjacent the first hinge pin. The first hinge pin retention member is releasably connected to the first hinge pin to secure the first hinge pin in the retracted position.

Abstract: A cable management system for managing electrical cables in a raised floor grid system is provided. The cable management system includes a cable enclosure including side walls and a base together defining an enclosure cavity. Each of the side walls defines a cable opening and a plurality of bracket openings in communication with the enclosure cavity. The cable management system also includes a sealing assembly installed in each of the cable openings, and a plurality of equipment brackets mountable to the sidewalls via the bracket openings, which are configured to enable mounting of the equipment brackets in vertical and angled orientations. The cable management system further includes a plurality of support brackets connectable to support structure of the raised floor grid system for supporting the cable enclosure on the support structure. The cable enclosure can be installed in the raised floor grid system by removing only a single floor tile.

Abstract: An in-ceiling cabling enclosure for supporting communications network equipment and cables interconnecting the network equipment including a front wall, a rear wall, and two side walls extending between the front wall and the rear wall creating a volume inside the enclosure. An access door assembly is pivotally connected to either the rear wall or the two side walls. The access door assembly pivots through an arc of ninety degrees between a first position opening the enclosure and a second position closing the enclosure. An equipment mount plate is attached to an interior portion of the access door assembly, and opposed equipment mount rails are removably attached to the equipment mount plate. The equipment mount rails are adapted to receive the network equipment and to secure the network equipment to the access door assembly.

Abstract: An in-ceiling cabling enclosure for supporting communications network equipment and cables interconnecting the network equipment including a front wall, a rear wall, and two side walls extending between the front wall and the rear wall creating a volume inside the enclosure. An access door assembly is pivotally connected to either the rear wall or the two side walls. The access door assembly pivots through an arc of ninety degrees between a first position opening the enclosure and a second position closing the enclosure. An equipment mount plate is attached to an interior portion of the access door assembly, and opposed equipment mount rails are removably attached to the equipment mount plate. The equipment mount rails are adapted to receive the network equipment and to secure the network equipment to the access door assembly.

Abstract: An in-ceiling cabling enclosure for supporting communications network equipment and cables interconnecting the network equipment including a front wall, a rear wall, and two side walls extending between the front wall and the rear wall creating a volume inside the enclosure. An access door assembly is pivotally connected to either the rear wall or the two side walls. An equipment mount plate is attached to an interior portion of the access door assembly, and opposed equipment mount rails are removably attached to the equipment mount plate. A cable slack management tray extends between the opposed equipment mount rails, and the slack management tray has a surface adapted to support and maintain the position and the contour of cable bundles located in the enclosure. A thermal management system is also disposed in the housing to provide efficient exhaust of hot air generated by active equipment in the enclosure to the space outside of the enclosure.

Abstract: An in-ceiling cabling enclosure for supporting communications network equipment and cables interconnecting the network equipment including a front wall a rear wall and two side walls extending between the front wall and the rear wall creating a volume inside the enclosure. An access door assembly is pivotally connected to either the rear wall or the two side walls. The access door assembly pivots through an arc of ninety degrees between a first position opening the enclosure and a second position closing the enclosure. An equipment mount plate is attached to an interior portion of the access door assembly, and opposed equipment mount rails are removably attached to the equipment mount plate. The equipment mount rails are adapted to receive the network equipment and to secure the network equipment to the access door assembly.

Abstract: A cable management rack for routing cables thereon. The rack has a front side and a rear side. The rack includes a frame, first and second frame-mountable components, each of the components having a plurality of ports configured for receiving an end of one of the cables therein, and a frame-mountable pass-through tray disposed on the frame between the first and second components, the pass-through tray for routing the cables between the front side of the rack and the rear side of the rack.

Abstract: A cable management system for managing electrical cables in a raised floor grid system is provided. The cable management system includes a cable enclosure including side walls and a base together defining an enclosure cavity. Each of the side walls defines a cable opening and a plurality of bracket openings in communication with the enclosure cavity. The cable management system also includes a sealing assembly installed in each of the cable openings, and a plurality of equipment brackets mountable to the sidewalls via the bracket openings, which are configured to enable mounting of the equipment brackets in vertical and angled orientations. The cable management system further includes a plurality of support brackets connectable to support structure of the raised floor grid system for supporting the cable enclosure on the support structure. The cable enclosure can be installed in the raised floor grid system by removing only a single floor tile.