Abstract:
An optical fiber signal transmission jumper connector structure includes a connector body, a pair of fiber optic plugs and a sliding sleeve, for connecting a fiber optic socket to achieve signal connections. The fiber optic plugs are installed at the front end of the connector body; the sliding sleeve is slidably covered onto the connector body; the top side of the sliding sleeve has two buckle portions fixed to the fiber optic socket, and two snap holes are formed on a surface of the sliding sleeve and corresponding to two snap hooks of the connector body. The snap hooks can be pressed simultaneously to pull the connector body backward to separate from the sliding sleeve, and the pair of optical fiber plugs can be converted when the optical signal is transmitted while the connector is plugged in the fiber optic socket, so as to improve the convenience of on-site operations.
Abstract:
An optical fiber signal transmission jumper connector structure includes a connector body, a pair of fiber optic plugs and a sliding sleeve, for connecting a fiber optic socket to achieve signal connections. The fiber optic plugs are installed at the front end of the connector body; the sliding sleeve is slidably covered onto the connector body; the top side of the sliding sleeve has two buckle portions fixed to the fiber optic socket, and two snap holes are formed on a surface of the sliding sleeve and corresponding to two snap hooks of the connector body. The snap hooks can be pressed simultaneously to pull the connector body backward to separate from the sliding sleeve, and the pair of optical fiber plugs can be converted when the optical signal is transmitted while the connector is plugged in the fiber optic socket, so as to improve the convenience of on-site operations.
Abstract:
A multi-socket panel device with an anti-crosstalk structure, wherein a plurality of through holes are formed on the circuit board. The through holes are arranged in two rows extending from one side of the circuit board to another side of the circuit board. Two electrical connectors disposed on the circuit board are arranged near two opposite sides of the rows of the through holes. The electromagnetic wave propagating in the circuit board are reflected or refracted by the through holes due to travel in different media, whereby the crosstalk caused by the electromagnetic wave is avoided when signals of high frequency are transmitted in two electrical connectors.
Abstract:
A cable structure includes a tubular body, a main spacer, a first spacer, a first protector, a second protector and a plurality of twisted pairs. The tubular body is disposed in the tubular body. The first spacer is substantially perpendicularly connected to the main spacer in a central position. The first protector and the second protector are disposed at two ends of the main spacer. A first channel is formed by the main spacer, the first protector and the second protector, a second channel is formed by the main spacer, the first protector and the first spacer, and a third channel is formed by the main spacer, the second protector and the first spacer. The twisted pairs are disposed in the first channel, the second channel and the third channel.
Abstract:
A network cable connector includes: a main body having a containing portion and a pushing pipe communicated to each other; and a hollow compression device for passing a network cable and having a fastener, a clamping part and a sleeve member. The clamping part installed in the fastener has plural compression parts at an end of the clamping part, and the other end of the clamping part is a pushing part. The sleeve member covers the end of the fastener coupled to the main body and has a curved inner surface tapered from an end near the fastener to the other. When the hollow compression device and main body are secured by screwing, the pushing pipe pushes the pushing part to move the clamping part towards the sleeve member, and the compression parts compresses the curved inner surface of the sleeve member to clamp the network cable tightly.
Abstract:
An auto-positioning structure for an upper cover of a network plug includes a base having an upper end and a rear end and an upper cover having an end pivoted to the upper end and assembled with the base to form a main body. A front portion of a network cable is inserted into the main body. A circuit board cooperates with a piercing terminal seat and a press plate to assemble with the network cable. A releasing spring sheet is disposed on the upper cover, and a front base is disposed on the base and corresponding to the releasing spring sheet. An unlock spring sheet is disposed on the front base and facing the releasing spring sheet, wherein the releasing spring sheet pushes the unlock spring sheet when the upper cover is lifted, and the upper cover is positioned when it reaches a predetermined angle.
Abstract:
A tracking jumper cable assembly includes an electrical connection device at each of two opposite ends of a duplex fiber optic patch cable thereof. The electrical connection device includes bottom cover member, a light transmissive top cover member covering the bottom cover member and defining an inside chamber therebetween, a circuit board mounted in the inside chamber and carrying a LED, two metal conducting plates electrically connected to the LED at the circuit board and respectively extended out of two back holes of the top cover member back hole to facilitate tracking remote connective portions of the cable with a pair of electronic component testing tweezers.
Abstract:
An electrical connector with multi-direction cable installation capability includes a connector body, upper and lower cable protector covers pivotally connected to a rear side of the connector body and defining multiple cable insertion openings in different directions, a cable organizer lockable to the connector body by the upper and lower cable protector covers to keep core wires of an inserted cable in position, and an end cap detachably attached to the cable organizer and defining an opening for selectively matching with one of the cable insertion opening to provide a cable passage through which the inserted cable extends out of the electrical connector.
Abstract:
A multidirectional modular jack and face panel mounting structure includes a face panel including a row of modular jack mounting holes and a modular jack engagement structure around each modular jack mounting hole, and modular jacks respectively mounted in the modular jack mounting holes, each modular jack including an IDC housing configured for mounting in one respective modular jack mounting hole in one of a series of angular positions and face panel engagement structures disposed around the IDC housing for engagement with the modular jack engagement structure around the respective modular jack mounting hole of the face panel.
Abstract:
An angle panel having openings cut through a flat base thereof for holding network jacks individually, and a backwardly extending retaining structure located on one side of each opening for securing one respective network jack for receiving a respective mating network plug to keep the plug hole of the installed network jack in an oblique position relative to the flat base. When attaching a network jack to the angle panel, opposing upper hook and lower hook of the attached network jack are respectively hooked on the retaining structure at the corresponding opening and the flat base of the angle panel.