Abstract:
A single-use inflation system (1, 100) is disclosed. In one aspect, the system (1) includes an inflatable device (14) connected to a disposable integrated inflation tool (10, 110) via a length of tubing (12). The integrated inflation tool (10, 110) is configured such that the tool allows compressed fluid to flow into the inflatable device (14) as soon as the end of a container (102) is punctured. As the pressure rises in the inflatable device (14) and reaches and/or exceeds the predetermined pressure at which the inflation tool (10, 110) is set, the inflation tool (10, 110) vents air from the container (102) to prevent overpressurization of the inflatable device (14).
Abstract:
A seal (110) for a telecommunications enclosure (100) includes a first body (114) made of a first material. The first body (114) defines a port (112) and the port (112) defines a port axis (113). The first body (114) further includes a first axial face (122), an opposite second axial face (124), and a peripheral surface (126). The peripheral surface (126) surrounds the first body (114) between the first axial face (122) and second axial face (124), and the peripheral surface (126) further surrounds the port. The seal (110) also includes a second body (116) made of a second material. The second body (116) is disposed on at least the peripheral surface (126) of the first body (114). The second material is softer than the first material of the first body (114).
Abstract:
A fiber optic adapter assembly closure for optically and mechanically coupling two fiber optic connectors. The closure includes a first adapter half with a connector port end positioned opposite from an engagement end. The connector port end defines a connector port and the engagement end includes an engagement flange. The closure also includes a second adapter half with a connector port end positioned opposite from an engagement end. The connector port end defines a connector port and the engagement end includes an engagement flange. The engagement flange of the first adapter half is configured to mate with the engagement flange of the second adapter half. The closure also includes a coupler that mounts over the mated engagement flanges of the first and second adapter halves to secure the engagement ends of the first and second adapter halves together.
Abstract:
A cable organizer for fiber optic cables includes a support structure, and a groove plate mounted to the support structure. The groove plate has an access groove for managing fiber optic cables on the groove plate. Fiber optic trays are pivotally mounted to the groove plate, and each fiber optic tray is configured to manage an optical fiber from the fiber optic cables. The access groove is at an angle relative to the fiber optic trays to provide a side access to the fiber optic cables.
Abstract:
The present disclosure relates to enclosures such as optical termination enclosures for telecommunications networks. The enclosures can include housings for accommodating fiber pass-through cables and drop cables. In one example, the enclosure can include tethers having ruggedized fiber opt connectors for coupling to the drop cables or any other cable. The present disclosure also relates to a tether assembly that can include an overmold that anchors strength members to a cable jacket of the tether assembly.
Abstract:
A fiber optic module includes a housing having a first major surface and an opposite second major surface. The module includes an input configured to receive at least one module input fiber. The module includes at least one connectorized pigtail output routed from the housing. The pigtail output is configured to carry a signal from at the at least one module input fiber entering the housing via the input. The module further includes at least one connector storage feature disposed on the first major surface of the housing. The connector storage feature is configured to receive and store the connectorized pigtail output.
Abstract:
An enclosure (10) includes a base (38) defining a splice region (148) and a cover (40) coupled to the base (38) to move between a closed position and an open position. A plurality of ruggedized adapters (26) are on the cover (40), each adapter having an inner port (64) and an outer port (66). A removable module (32) is disposed on the cover (40), at least one input fiber (12) being routed from the splice region (148) of the base (38) to the removable module (32), wherein the at least one input fiber (12) is output from the module as a pigtail (28) having a connectorized end that is connected to an inner port (64) of a ruggedized adapter (26). A cable input location (16) receives an input cable (14/20) including at least one tube (138) surrounding at least one fiber (12) that carries the same signal as the at least one input fiber (12) being routed from the splice region (148) to the removable module (32). The input cable (14/20) is anchored to the base (38) at the cable input location (16). A tube holder (150) is slidably mounted to the base (38) past the cable input location (16), wherein the tube holder (150) keeps separate an unused fiber-carrying tube (138) that is stored within the base (38) in a loop (122) from a fiber- carrying tube (138) whose fiber (12) leads toward the splice region (148) of the base (38) for further routing toward the removable module (32).
Abstract:
An enclosure (10) includes a base (38) defining a splice region (148) and a cover (40) coupled to the base (38) to move between a closed position and an open position. A plurality of ruggedized adapters (26) are on the cover (40), each adapter having an inner port (64) and an outer port (66). A removable module (32) is disposed on the cover (40), at least one input fiber (12) being routed from the splice region (148) of the base (38) to the removable module (32), wherein the at least one input fiber (12) is output from the module as a pigtail (28) having a connectorized end that is connected to an inner port (64) of a ruggedized adapter (26). A cable input location (16) receives an input cable (14/20) including at least one tube (138) surrounding at least one fiber (12) that carries the same signal as the at least one input fiber (12) being routed from the splice region (148) to the removable module (32). The input cable (14/20) is anchored to the base (38) at the cable input location (16). A tube holder (150) is slidably mounted to the base (38) past the cable input location (16), wherein the tube holder (150) keeps separate an unused fiber-carrying tube (138) that is stored within the base (38) in a loop (122) from a fiber- carrying tube (138) whose fiber (12) leads toward the splice region (148) of the base (38) for further routing toward the removable module (32).