Abstract: An improved oven is aimed at optimizing heat transfer and delivering an optimal cooking efficiency in comparison to conventional high-speed cooking ovens. The oven includes tubes that generate plume arrays of a heated gas and introduce them into a cooking chamber of the oven. The tubes may be removably located at the bottom of the cooking chamber of the oven. The tubes are dimensioned for hot air impingement to tighten impingement plume arrays, subject to the space constraints of the oven's cooking chamber. With the optimized cooking efficiency provided by the present invention, high-speed cooking technology may now be extended to ovens operating on a power supply based on a voltage less than 220 volts, preferably between 110 and 125 volts, with more productive results, so that the high-speed cooking technology may find wider applicability and a broader customer base.

Abstract: An improved oven is aimed at optimizing heat transfer and delivering an optimal cooking efficiency in comparison to conventional high-speed cooking ovens. The oven includes tubes that generate plume arrays of a heated gas and introduce them into a cooking chamber of the oven. The tubes may be removably located at the bottom of the cooking chamber of the oven. The tubes are dimensioned for hot air impingement to tighten impingement plume arrays, subject to the space constraints of the oven's cooking chamber. With the optimized cooking efficiency provided by the present invention, high-speed cooking technology may now be extended to ovens operating on a power supply based on a voltage less than 220 volts, preferably between 110 and 125 volts, with more productive results, so that the high-speed cooking technology may find wider applicability and a broader customer base.

Abstract: The input/output expansion system (“I/O expansion system”) for an external or main computing unit includes a rack; at least one I/O expansion module mounted to the rack, the I/O expansion module comprising at least one I/O circuit card; a utilities control module mounted to the rack, the utilities control module being configured to receive a command from the external computer unit and generating a signal in response to the command for distribution to at least one I/O expansion module; and expansion power chassis mounted to the rack, the an expansion power chassis being electrically connected to a power source and being configured to distribute the power to the at least one I/O expansion module and the utilities control module.

Abstract: A cable management system includes an opposed pair of articulated A-frame support assemblies that are connected by a cable support platform, such as a roller. The A-frame support assemblies may be reach between an electrical system chassis and an equipment rack in a manner that permits the elevation of the cable support platform to change concomitant with extensile and de-extensile motion of the electrical system chassis relative to the equipment rack. This change in elevation manages slack in the cable to feed cable forwardly during extensile motion of the electrical system chassis and to pull cable rearwardly with de-extensile motion.

Abstract: A cable management system includes an opposed pair of articulated A-frame support assemblies that are connected by a cable support platform, such as a roller. The A-frame support assemblies may be reach between an electrical system chassis and an equipment rack in a manner that permits the elevation of the cable support platform to change concomitant with extensile and de-extensile motion of the electrical system chassis relative to the equipment rack. This change in elevation manages slack in the cable to feed cable forwardly during extensile motion of the electrical system chassis and to pull cable rearwardly with de-extensile motion.

Abstract: The input/output expansion system (“I/O expansion system”) for an external or main computing unit includes a rack; at least one I/O expansion module mounted to the rack, the I/O expansion module comprising at least one I/O circuit card; a utilities control module mounted to the rack, the utilities control module being configured to receive a command from the external computer unit and generating a signal in response to the command for distribution to at least one I/O expansion module; and expansion power chassis mounted to the rack, the an expansion power chassis being electrically connected to a power source and being configured to distribute the power to the at least one I/O expansion module and the utilities control module.

Abstract: Connector 10 mountable to a mother board for mating with a daughter card (80,90) at a card-receiving slot (14). Connector (10) includes at least two key-receiving sites (30a,30b) along the length of the card-receiving slot (14), and a pair of switching contacts (40) at each site that are normally in engagement with each other, completing an indicator circuit of the mother board. A key member (50) is affixable to the connector at a selected one of the key-receiving sites (30a,30b) and includes an actuator arm (58) that disengages the switching contacts (40), breaking the circuit. The key member (50) prevents insertion of a daughter card (90) that is not programmed by having a notch (82) at the corresponding location.

Abstract: An electrical connector (10) having an array of contacts (14) in housing (12), and including a conductive member (50) affixed to the housing to be nonengagingly adjacent the contacts and define spark gaps (80) therebetween such as at protrusions (58) along body section (52) of the conductive member (50). Board-mounting sections (56) extend from the conductive member and be received into mounting holes (36) of a circuit element (30) to establish a chassis ground connection, thereby establishing a continuing ESD arrangement for protection of circuits and components of an electronic apparatus when connected to another apparatus at an input/output port, and even when unmated.