Abstract: An optical fiber enclosure comprises a housing, a spool, an adapter plate disposed in a space defined by an interior diameter of the spool, and a spacer coupling the adapter plate to the housing. The spacer is configured to separate the adapter plate from the spool to prevent rotation of the adapter plate with the spool.

Abstract: A coaxial panel comprising a frame with a plurality of openings and a mounting frame for holding a plurality of coaxial jacks that is mounted to the frame is disclosed. Each mounting frame includes an exterior surface that includes an intermating structure for slidably coupling a first mounting frame to a second identical mounting frame in a sliding direction either in a vertical orientation or a horizontal orientation. The intermating structure configured such that two coupled mounting frames cannot be pulled apart in a direction generally perpendicular to the sliding direction. The coaxial jacks mounted to the mounting frame and the mounting frame include slidably intermating alignment structures for aligning front coaxial cable connection locations of the coaxial jacks with the plurality of openings in the frame.

Abstract: A splitter unit including a chassis containing splitter cards. The splitter unit includes a central processing unit mounting location. The splitter unit also includes test access devices that are inactive when the central processing unit mounting location is vacant. The splitter unit is configured such that the splitter cards provide passive signal splitting even when the central processing unit mounting location is vacant.

Abstract: A coaxial panel comprising a frame with a plurality of openings and a mounting frame for holding a plurality of coaxial jacks that is mounted to the frame is disclosed. Each mounting frame includes an exterior surface that includes an intermating structure for slidably coupling a first mounting frame to a second identical mounting frame in a sliding direction either in a vertical orientation or a horizontal orientation. The intermating structure configured such that two coupled mounting frames cannot be pulled apart in a direction generally perpendicular to the sliding direction. The coaxial jacks mounted to the mounting frame and the mounting frame include slidably intermating alignment structures for aligning front coaxial cable connection locations of the coaxial jacks with the plurality of openings in the frame.

Abstract: A coaxial panel comprising a frame with a plurality of openings and a mounting plate for holding a plurality of coaxial jacks that is mounted to the frame is disclosed. Each mounting plate includes an exterior surface that includes an intermating structure for slidably coupling a first mounting plate to a second identical mounting plate in a sliding direction either in a vertical orientation or a horizontal orientation. The intermating structure configured such that two coupled mounting plates cannot be pulled apart in a direction generally perpendicular to the sliding direction. The coaxial jacks mounted to the mounting plate and the mounting plate include slidably intermating alignment structures for aligning front coaxial cable connection locations of the coaxial jacks with the plurality of openings in the frame.

Abstract: A splitter unit including a chassis containing splitter cards. The splitter unit includes a central processing unit mounting location. The splitter unit also includes test access devices that are inactive when the central processing unit mounting location is vacant. The splitter unit is configured such that the splitter cards provide passive signal splitting even when the central processing unit mounting location is vacant.

Abstract: A splitter unit including a chassis containing splitter cards. The splitter unit includes a central processing unit mounting location. The splitter unit also includes test access devices that are inactive when the central processing unit mounting location is vacant. The splitter unit is configured such that the splitter cards provide passive signal splitting even when the central processing unit mounting location is vacant.

Abstract: A coaxial panel comprising a frame and a designation tray slidably coupled to the frame is disclosed. The designation tray is movable between an open position and a closed position. The designation tray includes at least one designation space visible when the tray is in a closed position and includes at least two designation spaces that are visible when the designation tray is slidably moved to an open position, the two designation spaces being on different faces of the designation tray. A method comprising providing a movable tray with a front designation visible from a front of the tray when the tray is in a closed position and sliding the tray from the closed position to an open position to expose a side designation is also disclosed.

Abstract: A coaxial panel comprising a frame and a designation tray slidably coupled to the frame is disclosed. The designation tray is movable between an open position and a closed position. The designation tray includes at least one designation space visible when the tray is in a closed position and includes at least two designation spaces that are visible when the designation tray is slidably moved to an open position, the two designation spaces being on different faces of the designation tray. A method comprising providing a movable tray with a front designation visible from a front of the tray when the tray is in a closed position and sliding the tray from the closed position to an open position to expose a side designation is also disclosed.

Abstract: A coaxial panel comprising a frame with a plurality of openings and a mounting plate for holding a plurality of coaxial jacks that is mounted to the frame is disclosed. Each mounting plate includes an exterior surface that includes an intermating structure for slidably coupling a first mounting plate to a second identical mounting plate in a sliding direction either in a vertical orientation or a horizontal orientation. The intermating structure configured such that two coupled mounting plates cannot be pulled apart in a direction generally perpendicular to the sliding direction. The coaxial jacks mounted to the mounting plate and the mounting plate include slidably intermating alignment structures for aligning front coaxial cable connection locations of the coaxial jacks with the plurality of openings in the frame.

Abstract: A fiber optic adapter or adapter assembly including a pair of clip arms extending from opposite sides. The clip arms include an angled outer surface and sides of a housing of the adapter include opposing flanges, the clips arms and the flanges cooperating to releasably hold the adapter to a mounting location. The clip arms each including an angled outer surface which engages sides at the mounting location to hold the adapter at the mounting location. Pulling on a first end of the adapter to remove it from the mounting location causes the sides to engage the angled outer surface of the clip arms and permit the adapter to be removed from the mounting location toward the first end.

Abstract: A splitter unit including a chassis containing splitter cards. The splitter unit includes a central processing unit mounting location. The splitter unit also includes test access devices that are inactive when the central processing unit mounting location is vacant. The splitter unit is configured such that the splitter cards provide passive signal splitting even when the central processing unit mounting location is vacant.

Abstract: A telecommunications splitter assembly. The assembly includes a chassis in which a plurality of vertically spaced-apart splitter cards are mounted. A card-retaining bracket is fastened to an open end of the chassis to retain the cards within the chassis. The card-retaining bracket includes card support structures that extend beneath the cards to inhibit the cards from bowing.