Abstract: An example wearable device that includes a conductive deformable fabric is described herein. The conductive deformable fabric has a conductive trace that has a non-extendable fixed length along a first axis, and the conductive trace is sewn into a fabric structure to produce a conductive deformable material. The fabric structure includes a stitch pattern that facilitates the conductive trace to unfold and fold in an oscillating fashion to allow the conductive trace to expand and contract, respectively, along the first axis without exceeding the fixed length of the conductive trace. The conductive deformable material is positioned within the wearable device such that when the wearable device is worn, the stitch pattern is over a joint of the user to allow the stitch pattern to expand or contract along with the movement of the joint.

Abstract: An improved patch panel assembly includes a frame and faceplate that mate with a housing, and the housing defines a plurality of individual communication ports. The housing is mounted to the patch panel frame and includes jack openings that accommodate data jacks and circuit board openings that accommodate mating blades of circuit boards. The two sets of openings are separated on the housing by an intervening spacing and interposer terminal sets are provided to electrically interconnect the jacks with circuits on the circuit boards. The patch panel housings may be formed in discrete groupings so that, if desired, the patch panels may have ports that are grouped together by bandwidth, storage capability and the like. Inasmuch as the housings are mounted to the patch panel frames, the jacks and the circuit boards can be easily and individually replaced, repaired or upgraded with similar components without requiring disassembly of the patch panel.

Abstract: An improved patch panel assembly includes a frame and faceplate that mate with a housing, and the housing defines a plurality of individual communication ports. The housing is mounted to the patch panel frame and includes jack openings that accommodate data jacks and circuit board openings that accommodate mating blades of circuit boards. The two sets of openings are separated on the housing by an intervening spacing and interposer terminal sets are provided to electrically interconnect the jacks with circuits on the circuit boards. The patch panel housings may be formed in discrete groupings so that, if desired, the patch panels may have ports that are grouped together by bandwidth, storage capability and the like. Inasmuch as the housings are mounted to the patch panel frames, the jacks and the circuit boards can be easily and individually replaced, repaired or upgraded with similar components without requiring disassembly of the patch panel.

Abstract: An improved patch panel assembly includes a frame and faceplate that mate with a housing, and the housing defines a plurality of individual communication ports. The housing is mounted to the patch panel frame and includes jack openings that accommodate data jacks and circuit board openings that accommodate mating blades of circuit boards. The two sets of openings are separated on the housing by an intervening spacing and interposer terminal sets are provided to electrically interconnect the jacks with circuits on the circuit boards. The patch panel housings may be formed in discrete groupings so that, if desired, the patch panels may have ports that are grouped together by bandwidth, storage capability and the like. Inasmuch as the housings are mounted to the patch panel frames, the jacks and the circuit boards can be easily and individually replaced, repaired or upgraded with similar components without requiring disassembly of the patch panel.

Abstract: A patch panel adapter assembly is provided for use with infrastructure management systems that utilize a plurality of cables interconnected to end-user devices and work area outlets, and integrated circuits to monitor the status of these end-user devices and outlets includes a pair of circuit boards. Individual “smart” patch panels, ones with increased functionality are provided and have a series of stub cables connected to them. These may be mounted, either in a group, or individually using standoffs, in opposition to ordinary patch panels. The stub cables are inserted into the ordinary patch panel jacks to provide a smart panel that may be used to control the network. Use of the adapter assemblies reduces the time and labor required to retrofit or upgrade an existing network.

Abstract: A patch panel (100) for use with infrastructure management systems that utilizes a plurality of cables interconnected to end-user devices and work area outlets, and integrated circuits to monitor the status of these end-user devices and outlets includes a pair of circuit boards. A plurality of connective jacks (31) are mounted on the first (36) of the two circuit boards, and are interconnected to other network devices. Wires from the jacks extend to and connect with network devices and the first circuit board has a plurality of first integrated circuits (45) mounted thereon which monitor the status of the network devices connected to the jacks. The second circuit board (49) is spaced apart from the first circuit board and it includes a plurality of second integrated circuits (52) that convey the status information obtained from the network work area outlets on the network to network devices, such as switches and scanners of the network (104).

Abstract: A termination unit (144) for use with a system that permits the monitoring of a computer network to perform network inventories. The termination unit takes the form of a cap that engages the termination face of a network jack and has a sensing circuit (246) integrated therewith so that, once engaged with the jack, the sensing circuit is connected to two terminals of the jack. The sensing circuit may include a resistor, capacitor or inductor, any of which provide a known sensing value that is different than a sensed value of an end-user device used on the network, but less than infinity so that the system senses when an end-user device is connected to or disconnected from the network.

Abstract: A method of identifying a new end-user device connected within a network includes monitoring a plurality of remote outlets and detecting a new end-user device upon connection thereof to the network at a first of the remote outlets and determining information about the new end-user device by electronically communicating with some but not all of the remote outlets. A system for performing such a method with a network having a plurality of end-user devices connected thereto is also disclosed.

Abstract: A structure for use with data network management systems uses a plurality of cables interconnecting patch panels, network devices and end-user devices and further utilizes integrated circuits to monitor the status of these end-user devices. The structure includes respective primary (36) and secondary (45) circuit boards. A plurality of connective jacks (31) are mounted on the primary circuit board and these jacks are interconnected to switches and other patch panels within the network. Wires from the jacks extend to and connect with end-user devices and a secondary circuit board is spaced apart from the primary circuit board so as to define a hollow nest (42) within the patch panel assembly that houses and protects integrated circuits (45, 52) and the like.

Abstract: A patch panel (100) for use with infrastructure management systems that utilizes a plurality of cables interconnected to end-user devices and work area outlets, and integrated circuits to monitor the status of these end-user devices and outlets includes a pair of circuit boards. A plurality of connective jacks (31) are mounted on the first (36) of the two circuit boards, and are interconnected to other network devices. Wires from the jacks extend to and connect with network devices and the first circuit board has a plurality of first integrated circuits (45) mounted thereon which monitor the status of the network devices connected to the jacks. The second circuit board (49) is spaced apart from the first circuit board and it includes a plurality of second integrated circuits (52) that convey the status information obtained from the network work area outlets on the network to network devices, such as switches and scanners of the network (104).

Abstract: A structure for use with data network management systems uses a plurality of cables interconnecting patch panels, network devices and end-user devices and further utilizes integrated circuits to monitor the status of these end-user devices. The structure includes respective primary (36) and secondary (45) circuit boards. A plurality of connective jacks (31) are mounted on the primary circuit board and these jacks are interconnected to switches and other patch panels within the network. Wires from the jacks extend to and connect with end-user devices and a secondary circuit board is spaced apart from the primary circuit board so as to define a hollow nest (42) within the patch panel assembly that houses and protects integrated circuits (45, 52) and the like.

Abstract: Disclosed is a connector module which permits termination of cross-connect wires on one surface and cable wires on an opposite surface. The module exhibits a generally "Z" shaped configuration which permits test access, jumper insertion, and protector mounting on either surface.

Abstract: Disclosed is a connector module which permits a make-before-break contact when inserting jumper or test access leads. The stem portions of the contacts make physical and electrical contact at two points which are aligned with slots in the module so that one point remains closed while one point opens due to lead insertion. Ribs may also be provided to guide the lead insertion and control deflection of the leads and stems.