Abstract:
A panel for mounting telecommunications equipment has an insulating body and a grounding strip to provide ground connection to the telecommunications equipment. The grounding strip has a panel portion for mounting the grounding strip to the insulating body and a mounting portion bending away from the insulating body and having one or more mounting holes for mounting the panel to external structure to enable the panel to be mounted to the external structure without requiring spacers to prevent overstress to the insulating material. In one implementation, the panel is a protector panel for receiving five-pin plug-in protectors that provide electrical isolation between multi-wire cabling and telephones and other types of telecommunications equipment.
Abstract:
An electrical backplane assembly for interconnecting a plurality of connection modules in a fiber distribution shelf to the central controller of an optical fiber administration system. The electrical backplane assembly mounts upon a bracket assembly within the confines of the shelf structure of the fiber distribution shelf. The bracket assembly retains the electrical backplane assembly in a small previously unused area of space in between the tops of the connection modules and the interior top panel of the fiber distribution shelf. By having the electrical backplane assembly entirely contained within the shelf structure of a fiber distribution shelf, a unique configuration is provided that greatly reduces the size and complexity of the overall fiber administration system.
Abstract:
A telecommunication network cross-connect panel 10 is described having a chassis 14 for receiving insertable modules 12, 212. The chassis 14 has a back wall 24 with a backplane printed circuit board 34. An array of rear coaxial connectors are mounted to the backplane printed circuit board 34 in columns of four connectors 36, 38, 40 and 42 for terminating and cross-connecting two pieces of telecommunication equipment per column. Female DIN connector receptacles 44 are mounted on the front side of the board 34 at spaced slot locations with each receptacle 44 electrically connected to a corresponding four backplane connectors of a corresponding column. A plurality of modules 12 are insertable into the slots for interconnecting male DIN connector plugs 58 into corresponding aligned DIN connector receptacles 44. A plug 58 is mounted on a rear end of a module printed circuit board 50. A plurality of coaxial mini-WECO jacks are mounted to a front end of the printed circuit board 50 and electrically connected through the board 50 to the plugs 58. A panel face plate 52 is mounted on the front end of the board 50 with apertures for receiving forward ends of the jacks 60, 62, 64 and 65. The backplane is capable of being pre-wired to terminate various telecommunications apparatuses, prior to the insertion the modules 12 or 212.
Abstract:
Methods, systems, and devices are described for wired communication. In one aspect, a distribution point may use a redundant number of digital subscriber line (DSL) lines that share a same cable binder to cancel crosstalk. For example a first distribution point may use a redundant number of lines, which may be virtualized lines, to cancel interference between lines controlled by the first distribution point and lines controlled by a second distribution point. In some cases, a distribution point may share precoding and cancelling coefficients with another distribution point over a cloud network or other service to enable vectoring without sharing transmitted data between the two distribution points. That is, the first distribution point may receive information related to crosstalk between sets of CPEs without receiving data transmitted by a separate distribution point sharing the same cable binder, and use the crosstalk related information to cancel crosstalk.
Abstract:
A telecommunications module (10) has contacts (12, 14, 16) for connecting wires therewith, the contacts (12, 14, 16) being arranged in a number of substantially parallel rows, which is three or a multiple of three, at least one row of contacts (12, 14, 16) which is assigned to transmit a specific signal, such as a POTS, a line or a DSLAM signal, being assigned to transmit a different signal than any adjacent row of contacts within each multiple of three rows.
Abstract:
A telecommunications module (10) has contacts (12, 14, 16) for connecting wires therewith, the contacts (12, 14, 16) being arranged in a number of substantially parallel rows, which is three or a multiple of three, at least one row of contacts (12, 14, 16) which is assigned to transmit a specific signal, such as a POTS, a line or a DSLAM signal, being assigned to transmit a different signal than any adjacent row of contacts within each multiple of three rows.
Abstract:
A telecommunications terminal module (10) includes the following features. The terminal module (10) includes at least one location (36) for mounting a section (32,34, 64) of a telecommunications rack (12), the mounting location (36) is provided with surfaces (38,40,42) facing said section (32, 34, 64), and the surfaces (38, 40, 42) of said mounting location (36) are configured such that said terminal module (10) can be tilted from the condition as secured to said rack (12) relative to said section (32, 34, 64) about one rim (70) thereof.
Abstract:
A telecommunications module (10) has at least two sides (12, 14), a first group of contacts (16) adapted to connect with POTS wires, a second group of contacts (18) adapted to connect with line wires, a third group of contacts (20) adapted to connect with DSLAM wires. The first group of contacts (16) and the second group of contacts (18) are provided on different sides (12, 14) of the telecommunications module, and at least some contacts (16) of the first group are in contact with at least some contacts (18) of the second group at disconnection points (22).
Abstract:
The distribution connecting module for telecommunications and data systems technology, comprises a housing inside of which input and output contacts for connecting lines and wires are placed, said contacts being accessible from the exterior. The housing is provided with a cavity inside of which at least one printed circuit board is placed. The input and output contacts are situated on the opposing faces of the housing. The input contacts are provided in the form of at least one connector strip with insulation displacement contacts. The input and output contacts can be detachably connected to the printed circuit board. The connector strip supporting the input contacts is detachably connected to the housing via a front part. The insulation displacement contacts are connected to the printed circuit board via fork contacts. The connection between the front part and the housing is such that when the connection is released, the connector strip, which is connected to the front part, is, together with the fork contacts, moved away from the printed circuit board.
Abstract:
A grounding apparatus for a distribution device having a functional element and a grounding contact point includes a grounding rail having opposed end sections provided with a holding part for fitting the grounding rail to the functional element. An electrically conductive contact spring on each of the end sections extends outwardly beyond the holding part to make contact with the grounding contact point. A safety plug for use with the grounding apparatus includes an overvoltage protection device connected to a conductive contact tongue for contacting an electrical cable connected to the functional element. The overvoltage protection device has a grounding electrode and a conductive fitting in electrical contact with the grounding electrode is provided with an insulation-displacement terminal for connecting the safety plug to the grounding apparatus. A handling apparatus having a base body with a retaining groove is provided for installing the grounding apparatus to the distribution device.