Abstract: An optical interconnection assembly for a spine-and-leaf network is disclosed. The optical interconnection assembly has spine MF components and leaf MF components. The spine MF components are optically connected to spine MF components of spine switches via spine patch cords. The leaf MF components are optically connected to leaf MF components of leaf switches via leaf patch cords. An array of duplex fiber optic cables serves to optically connect every spine MF component to every leaf MF component so that every spine switch is optically connected to every leaf switch. The optical interconnection assembly facilitates network scale out without the multifiber connections having to be broken up into multiple duplex connections using duplex fiber optic cables.

Abstract: An optical interconnection assembly for a spine-and-leaf network is disclosed. The optical interconnection assembly has spine MF components and leaf MF components. The spine MF components are optically connected to spine MF components of spine switches via spine patch cords. The leaf MF components are optically connected to leaf MF components of leaf switches via leaf patch cords. An array of duplex fiber optic cables serves to optically connect every spine MF component to every leaf MF component so that every spine switch is optically connected to every leaf switch. The optical interconnection assembly facilitates network scale out without the multifiber connections having to be broken up into multiple duplex connections using duplex fiber optic cables.

Abstract: An adapter housing for receiving a plurality of multi-fiber connectors includes a rectangular, box-like housing structure having opposing side walls and a back wall that to adapted to mount in a 2-U space in an equipment rack, wherein the housing structure has a width of no greater than about 17.75 inches and a height of no greater than about 3.50 inches. A bank of adapters is provided for receiving multi-fiber connectors. The bank of adapters includes individual connector-adapter-connector locations that together receive at least 200 multi-fiber connector pairs within the housing structure.

Abstract: An adapter housing for receiving a plurality of multi-fiber connectors includes a rectangular, box-like housing structure having opposing side walls and a back wall that to adapted to mount in a 2-U space in an equipment rack, wherein the housing structure has a width of no greater than about 17.75 inches and a height of no greater than about 3.50 inches. A bank of adapters is provided for receiving multi-fiber connectors. The bank of adapters includes individual connector-adapter-connector locations that together receive at least 200 multi-fiber connector pairs within the housing structure.

Abstract: A rotatable furcation assembly for furcating optical fibers of a multi-fiber fiber-optic cable to form multiple connecting cables is disclosed. The furcation assembly includes a furcation plug having a central, longitudinal axis and an interior sized to accommodate the furcation of the optical fibers. The furcation assembly also has a clip member with a holding feature and at least one mounting feature. The holding feature has a truncated tubular body that holds the furcation plug such that the furcation plug can axially rotate.