Abstract: There is disclosed an optical waveguide distribution device having a distribution panel with splice cassettes removably connected thereto. Fiber optic splices are placed within the splice cassettes, so that removal of the splice cassettes allows improved access to the splices. In addition, the distribution panel includes a front wall upon which are positioned a plurality of couplings. The front wall is removably connected to the distribution panel to allow improved access to the couplings.

Abstract: The system comprising a plurality of optical waveguide distribution devices has a first number of logic groups of optical waveguide distribution devices, each logic group comprising a second number of optical waveguide distribution devices, wherein: a) in order to ensure structured wiring of fiberoptic modules within a logic group comprising optical waveguide distribution devices, only two lengths of prefabricated patch cables are kept ready, namely a first length designed for wiring fiberoptic modules within an optical waveguide distribution device and a second length designed for wiring fiberoptic modules between optical waveguide distribution devices which are spaced at a maximum distance apart from one another within the respective logic group, it being possible, when wiring of fiberoptic modules between optical waveguide distribution devices which are not spaced at a maximum distance apart from one another within the respective logic group needs to be carried out, for the corresponding excess length of t

Abstract: There is disclosed an optical waveguide distribution device having a distribution panel with splice cassettes removably connected thereto. Fiber optic splices are placed within the splice cassettes, so that removal of the splice cassettes allows improved access to the splices. In addition, the distribution panel includes a front wall upon which are positioned a plurality of couplings. The front wall is removably connected to the distribution panel to allow improved access to the couplings.

Abstract: The invention relates to a distribution cabinet (10) for optical fibers, comprising a housing (11) and a frame (18) that is pivotally mounted inside the housing (11). Cables encompassing optical fibers that are guided therein can be routed into and/or directed out of the distribution cabinet, the cables being routed to the frame (18) from a rear side (14) of the housing (11) and being routed away from the frame in the direction of the rear side. Subassemblies are fastened to the frame (18) in order to connect the optical fibers that are guided within the cables. At least one holding device (23) for the cables is fastened to the pivotally mounted frame (18), the cables being fixable to the holding device (23). The holding device (23) is configured so as to be pivotable relative to the housing (11) along with the frame (18), while also being pivotable relative to the frame (18).

Abstract: The invention relates to a distribution cabinet (10) for optical fibers, comprising a housing (11) and a frame (18) that is pivotally mounted inside the housing (11). Cables encompassing optical fibers that are guided therein can be routed into and/or directed out of the distribution cabinet, the cables being routed to the frame (18) from a rear side (14) of the housing (11) and being routed away from the frame in the direction of the rear side. Subassemblies are fastened to the frame (18) in order to connect the optical fibers that are guided within the cables. At least one holding device (23) for the cables is fastened to the pivotally mounted frame (18), the cables being fixable to the holding device (23). The holding device (23) is configured so as to be pivotable relative to the housing (11) along with the frame (18), while also being pivotable relative to the frame (18).

Abstract: A patch cable management system for an optical waveguide distributing device includes a plurality of plus modules and/or splice modules mounted on a subrack. Each plus module and/or splice module is provided with a plurality of couplings for contact with optical waveguides on the front and rear. An electronic module provided with all the functions and componenty of a conventional backplane can be positioned at any desired location within the optical waveguide distributing device and connected to the plug moduels and/or splice modules to serve for the electronic addressing and localization of the plugged optical-fiber connections.

Abstract: This invention relates to an optical waveguide distribution cabinet (10) comprising a housing (11), a frame (17) which is rotatably mounted in said housing (11) and assemblies which are fixed to said frame (17) and used to connect optical waveguides guided by patch cables (18). The frame (17) is shorter than the housing (11) in such a way that a holder (20) for the patch cables (18) is provided between an end of the housing (11) and an adjacent end of the frame (17). Said holder (20) is mounted in the housing (11) in a fixed manner and the frame (17) can be pivoted in relation to the holder (20).

Abstract: This invention relates to an optical waveguide distribution cabinet (10) comprising a housing (11), a frame (17) which is rotatably mounted in said housing (11) and assemblies which are fixed to said frame (17) and used to connect optical waveguides guided by patch cables (18). The frame (17) is shorter than the housing (11) in such a way that a holder (20) for the patch cables (18) is provided between an end of the housing (11) and an adjacent end of the frame (17). Said holder (20) is mounted in the housing (11) in a fixed manner and the frame (17) can be pivoted in relation to the holder (20).

Abstract: An optical distribution device has first connector points for the connection of incoming light waveguide cables, second connector points for the connection of outgoing light waveguide cables and at least one light waveguide connector cable having at least one connecting device on one or both ends for connecting at least one of the first connector points to at least one of the second connector points. Each connection device is provided with an electrical code memory device for storing an identification code and each of the first and second connector points are provided with an electrical code reader device connected to the associated code memory device for reading the identification code when the associated connector device is connected to one of the connector points. A controller is connected to the code reader device for evaluating the identification code to identify the optical connection effected by the light waveguide connector cable.

Abstract: A patch cable management system for an optical waveguide distributing device includes a plurality of plus modules and/or splice modules mounted on a subrack. Each plus module and/or splice module is provided with a plurality of couplings for contact with optical waveguides on the front and rear. An electronic module provided with all the functions and componenty of a conventional backplane can be positioned at any desired location within the optical waveguide distributing device and connected to the plug moduels and/or splice modules to serve for the electronic addressing and localization of the plugged optical-fiber connections.

Abstract: An optical distribution device has first connector points for the connection of incoming light waveguide cables, second connector points for the connection of outgoing light waveguide cables and at least one light waveguide connector cable having at least one connecting device on one or both ends for connecting at least one of the first connector points to at least one of the second connector points. Each connection device is provided with an electrical code memory device for storing an identification code and each of the first and second connector points are provided with an electrical code reader device connected to the associated code memory device for reading the identification code when the associated connector device is connected to one of the connector points. A controller is connected to the code reader device for evaluating the identification code to identify the optical connection effected by the light waveguide connector cable.

Abstract: The invention relates to a protection for glass fibers for telecommunication with air-space paper-insulated core (H1 to Hn) in distribution fields arranged in the form of cassettes. Several air-space paper-insulated cores (H1 to Hn) are assembled according to their length in a composite element (VE1 to VE5), wherein the ends can be cut to the required length if necessary. The air-space paper-insulated acres (H1 to Hn) are assembled according to their length in a discontinued manner using connecting shaped parts or in a continuous manner along the generatrix of the air-space paper-insulated cores.

Abstract: The invention is concerned with a hood sleeve which is formed from a sealing body and a hood body these two parts being held together with the aid of a mechanical retaining device, initially without a sealing effect. The sealing-off between the hood body and the sealing body is carried out with the aid of a seal system which is activated by a functional element, for example in the form of an eccentric.