Abstract: The present invention is directed to a modular containment system that redirects exhaust from cabinets without altering the cabinet. The modular containment system includes a docking station having a first and second bay. The first bay has a first side frame and a second side frame. A top support joins the front of the first and second side frames and cross bars join the back of the first and second side frames. The second bay is connected to the first bay. The second bay has a third side frame. The second bay also has cross bars and a top support that join the second and third side frames. A cabinet is positioned within one of the first and second bays.

Abstract: The present invention is directed to a telescoping wire cable tray system. The wire cable tray system includes an outer wire cable tray and an inner wire cable tray positioned within the outer wire cable tray. The inner wire cable tray slides or telescopes with respect to the outer wire cable tray enabling the length of the wire cable trays to be adjusted during installation of the wire cable tray system. The wire cable tray system may include trapeze support bars, clamps, side walls or downspout fittings.

Abstract: The present invention is directed to a cable routing system with a drop down cable routing device that routes cables from the cable routing system. The drop down cable routing device is attached to a cable tray of the cable routing system. The drop down cable routing device includes an outer shell and an inner core. The outer shell has downwardly extending sides. A bottom of each side of the outer shell includes a mating flange extending therefrom. The inner core is positioned within the outer shell. The inner core has a base with sides and mating flanges extending downwardly from the sides. The mating flanges of the outer shell engage the mating flanges of the inner core to secure the outer shell and the inner core together.

Abstract: The present invention is directed to a telescoping wire cable tray system. The wire cable tray system includes an outer wire cable tray and an inner wire cable tray positioned within the outer wire cable tray. The inner wire cable tray slides or telescopes with respect to the outer wire cable tray enabling the length of the wire cable trays to be adjusted during installation of the wire cable tray system. The wire cable tray system may include trapeze support bars, clamps, side walls or downspout fittings.

Abstract: Certain embodiments of the present invention provide an apparatus for closing off an opening above, below, or between electronic equipment in a rack. The rack includes a pair of equipment rails. The electronic equipment is mounted to the equipment rails. The apparatus includes a base, a roller shade, and a handle. The roller shade is rotatably connected to the base and includes a free end extending from the base when the roller shade is rotated. The handle is connected to the free end of the roller shade. The base is removably connected to the equipment rails at a first position. The handle is removably connected to the equipment rails at a second position spaced apart from the first position such that the free end of the roller shade is extended to close off the opening in the rack.

Abstract: The present invention is directed to a cable routing system with brackets that join cable trays to form the cable routing system. A bracket that joins adjacent cable trays includes a main body having a base with a top edge, a bottom edge and sides. The bracket further includes upper members that extend from the top edge, a bottom member that extends from the bottom edge and side members extending from the sides. When attached to adjacent cable trays, the longitudinal wires of the cable tray are positioned between the upper members and the side members and the transverse wires of the cable tray are retained in a space defined by the upper members. A bracket that joins perpendicular cable trays includes a main body and a securing clip. The main body has a bottom and two sides extending upwardly therefrom. Each side of the main body includes a deflectable side latch that engages a bottom longitudinal wire of the cable tray. The securing clip engages the main body to secure the bracket to the cable tray.

Abstract: A cable routing system formed from a tray with a plurality of transverse wires and a plurality of longitudinal wires. The transverse wires form a generally flat top portion with downwardly extending sidewalls. The longitudinal wires are positioned underneath the top portion, side longitudinal wires are positioned adjacent the downwardly extending sidewalls and bottom longitudinal wires are positioned at an end of each of the downwardly extending sidewalls. The transverse wires and the longitudinal wires form a grid with a plurality of openings for routing a plurality of cables. The cable routing system also includes a sidewall removablely secured to the tray to retain cables routed thereon and a corner radius device removablely secured to the tray to provide bend radius control to cables routed along intersecting cable trays.

Abstract: The present invention is directed to a wall mount bracket that supports a cable tray in a cable routing system. The wall mount bracket includes a back wall and a sidewall. The back wall has a top, a bottom, sides and mounting holes positioned therebetween. The sidewall extends outwardly from one side of the back wall. The longitudinal wires of the cable tray are positioned on the sidewall of the wall mount bracket. The sidewall also has a distal end with an engaging member that receives a bottom longitudinal wire of the sidewall of the cable tray.

Abstract: The present invention is directed to a cable routing system with a drop down cable routing device that routes cables from the cable routing system. The drop down cable routing device is attached to a cable tray of the cable routing system. The drop down cable routing device includes an outer shell and an inner core. The outer shell has downwardly extending sides. A bottom of each side of the outer shell includes a mating flange extending therefrom. The inner core is positioned within the outer shell. The inner core has a base with sides and mating flanges extending downwardly from the sides. The mating flanges of the outer shell engage the mating flanges of the inner core to secure the outer shell and the inner core together.

Abstract: An interconnect device is used to mate a heat generating device to a power source. Plated components are provided on the interconnect device to provide a heat sink function for the heat generating device when the heat generating device is connected to the interconnect device, and to provide an electrical path between the heat generating device and the power source. A method of manufacturing same is also disclosed.

Abstract: The present invention is directed to a telescoping wire cable tray system. The wire cable tray system includes an outer wire cable tray and an inner wire cable tray positioned within the outer wire cable tray. The inner wire cable tray slides or telescopes with respect to the outer wire cable tray enabling the length of the wire cable trays to be adjusted during installation of the wire cable tray system. The wire cable tray system may include trapeze support bars, clamps, side walls or downspout fittings.

Abstract: Certain embodiments of the present invention provide a cooling duct assembly for electronic equipment installed in a cabinet. The cooling duct assembly comprises at least one main duct in fluid communication with a front portion of the cabinet. The at least one main duct receives cold air from the front portion of the cabinet and routes the cold air toward a back portion of the cabinet. Additionally, the cooling duct assembly comprises at least one side duct in fluid communication with the at least one main duct. The at least one side duct receives the cold air from the at least one main duct and routes the cold air to at least one side air intake opening on the electronic equipment.

Abstract: An assembly (118) is provided for mating a sensor (22) to a connector (24). The assembly includes an interconnect device (20, 120) and a housing (174a-174b). The interconnect device has conductive pathways (40, 154) provided thereon. The sensor is mounted on the interconnect device and is in electrical communication with the conductive pathways. The housing generally surrounds a portion of said interconnect device. The housing is formed of two portions which mate together. At least one flow tube (178) is attached to the housing. A gasket seals the sensor to the housing.

Abstract: An interconnect device is used to mate a heat generating device to a power source. Plated components are provided on the interconnect device to provide a heat sink function for the heat generating device when the heat generating device is connected to the interconnect device, and to provide an electrical path between the heat generating device and the power source. A method of manufacturing same is also disclosed.

Abstract: An interconnect device is used to mate a heat generating device to a power source. Plated components are provided on the interconnect device to provide a heat sink function for the heat generating device when the heat generating device is connected to the interconnect device, and to provide an electrical path between the heat generating device and the power source. A method of manufacturing same is also disclosed.

Abstract: A land grid array connector includes a housing having a plurality of passageways therethrough and a conductive contact provided in each passageway. A recess is formed in each passageway. Each contact has a deformable portion having a tip provided at an end thereof. The deformable portion is capable being in an undeformed position and in a deformed position. When a lateral force is placed on the deformable portion of each contact, at least a portion of the tip is maintained within the recess. The recess is sized and configured to limit lateral deflection of the tip upon deformation of the deformable portion in a lateral direction.

Abstract: A header connector apparatus (10) is configured to receive an electronic card (11). The apparatus (10) includes a body (12) having first and second spaced apart side arms (14, 16) formed integrally with the body (12) and configured to receive the card (11) therebetween. The first side arm (14) has a longitudinally extending first dovetail member (52). The apparatus (10) also includes an actuator button (48, 70) having a longitudinally extending second dovetail member (54, 74) configured to mate with the first dovetail member (52) to allow the button (48, 70) to move longitudinally relative to the body (12), and an ejector mechanism (36) coupled to the body (12) and the button (48, 70). The ejector mechanism (36) is configured to eject the card (11) from the body (12) upon longitudinal movement of the button (48, 70) relative to the body (12).

Abstract: A printed circuit board includes at least one via providing a conductive path through the printed circuit board. The via comprises at least one axially extending conductive strip formed by cutting material from a metal barrel lining the interior wall of the via.

Abstract: A method for increasing the impedance of a via for providing a conductive path through a printed circuit board is disclosed. The method comprises the steps of forming a conductive pad on the printed circuit board, forming a non-threaded opening extending through the conductive pad and through the printed circuit board to form an annular conductive pad surrounding the non-threaded opening, forming a conductive metal barrel lining the inner wall of the non-threaded opening connected to the annular conductive pad, and cutting material from the metal barrel to leave at least one conductive strip extending axially along the inner wall of the opening without cutting material from the annular conductive pad so that the at least one conductive strip is connected to an undivided annular conductive pad.

Abstract: A connector includes a plurality of horizontally-spaced contacts arranged in a row with each contact having a forwardly-extending contact portion configured to engage a corresponding contact in a mating connector, an intermediate portion and a rearwardly-extending tail portion. An insulative housing encases the intermediate portions of the contacts. The housing has horizontally-spaced, vertical slots between the contact intermediate portions. A shield is provided for each contact. Each shield has a vertical flange portion for insertion into a vertical slot and an upper horizontal portion extending along and above the intermediate portion of the adjacent contact. The insulative housings with contacts and shields assembled therein are configured to be inserted into horizontally-extending slots in a connector housing.