2168results about "Flat/ribbon cables" patented technology

An automated assembly sensor cable has a generally wide and flat elongated body and a registration feature generally traversing the length of the body so as to identify the relative locations of conductors within the body. This cable configuration facilitates the automated attachment of the cable to an optical sensor circuit and corresponding connector. In various embodiments, the automated assembly sensor cable has a conductor set of insulated wires, a conductive inner jacket generally surrounding the conductor set, an outer jacket generally surrounding the inner jacket and a registration feature disposed along the surface of the outer jacket and a conductive drain line is embedded within the inner jacket. A strength member may be embedded within the inner jacket.

A hybrid cable comprising an optical fiber, an intermediate layer surrounding the optical fiber, and an electrically insulating jacket surrounding the intermediate layer. The intermediate layers include a collection of metallic strands. The hybrid cable may be used to establish simultaneous electrical and fiber-optic connection between two communication devices. Thus, the two communication devices may simultaneously transfer optical signals through the optical fiber and perform any of various electrical functions (power transfer, eye safety control) through the metallic strands. For example, an optical transceiver may couple to an optical antenna unit through the hybrid cable. Such an optical transceiver may serve as part of a point-to-point link, a point-to-multipoint link, and / or, a link between a primary transceiver unit and an optical router.

A fast, reliable, highly integrated memory device formed of a carbon nanotube memory device and a method for forming the same, in which the carbon nanotube memory device includes a substrate, a source electrode, a drain electrode, a carbon nanotube having high electrical and thermal conductivity, a memory cell having excellent charge storage capability, and a gate electrode. The source electrode and drain electrode are arranged with a predetermined interval between them on the substrate and are subjected to a voltage. The carbon nanotube connects the source electrode to the drain electrode and serves as a channel for charge movement. The memory cell is located over the carbon nanotube and stores charges from the carbon nanotube. The gate electrode is formed in contact with the upper surface of the memory cell and controls the amount of charge flowing from the carbon nanotube into the memory cell.

A hybrid cable comprising an optical fiber, an intermediate layer surrounding the optical fiber, and an electrically insulating jacket surrounding the intermediate layer. The intermediate layers include a collection of metallic strands. The hybrid cable may be used to establish simultaneous electrical and fiber-optic connection between two communication devices. Thus, the two communication devices may simultaneously transfer optical signals through the optical fiber and perform any of various electrical functions (power transfer, eye safety control) through the metallic strands. For example, an optical transceiver may couple to an optical antenna unit through the hybrid cable. Such an optical transceiver may serve as part of a point-to-point link, a point-to-multipoint link, and / or, a link between a primary transceiver unit and an optical router.

A flexible LED cable light has a flat insulation body, at least two wires embedded in parallel in the insulation body, multiple LEDs connected in parallel electrically to the two wires and a protective layer covering the insulation body. Each wire has high flexibility, good conductivity and large current-resistant that is suitable to decorate over long distances. Furthermore, segments of the cable light can also be connected to another segment by a connector so the present invention is waterproof, inexpensive, cuttable, joinable, etc.

A flat cable having at least two conductor planes, in which a number of electrical conductors running in the longitudinal direction of the cable are arranged, in which the electrical conductors in the flat cable thickness direction and / or in the flat cable width direction are kept at a defined distance from each other by means of a central insulation layer of predetermined thickness acting as a spacer insulator and are electrically insulated and positioned relative to each other and to the flat cable exterior by means of an outer insulation layer.

A flat cable 10 is constituted by integrally forming a shield 20 and an external sheath 24 with a plurality of core wires 12 and 18. Then, a slit S for branching each of the core wires 12 and 18 is formed at a terminal of the flat cable 10. Further, a coupling portion 26 is formed at a part P in which this slit S is formed. The coupling portion 26 is a means for mechanically coupling the shield 20 thereto. Preferably, the coupling portion 26 is constituted by an external sheath 24 for riveting the shield 20 thereto by penetrating the shield 20 and then connecting the shield 20 thereto.

A flexible LED cable light has a flat insulation body, at least two wires embedded in parallel in the insulation body, multiple LEDs connected in parallel electrically to the two wires and a protective layer covering the insulation body. Each wire has high flexibility, good conductivity and large current-resistant that is suitable to decorate over long distances. Furthermore, segments of the cable light can also be connected to another segment by a connector so the present invention is waterproof, inexpensive, cuttable, joinable, etc.

An anti-electromagnetic-interference (anti-EMI) signal transmission flat cable include a plurality of conducting wires; and an insulating sheath being an integrally formed flat and flexible member for longitudinally enclosing a circumferential surface of each of the conducting wires, so that the conducting wires are substantially equally spaced and parallelly arranged in the insulating sheath to isolate from one another. The insulating sheath has an anti-EMI and electrically non-conductive material doped therein, so as to protect the conducting wires against EMI during signal transmission and accordingly, prevent errors in signal transmission via the conducting wires.

An electrical interposer for connecting two electronic devices includes a plurality of first cores with undulating structure extending in a first direction and a plurality of second cores with undulating structure extending in a second direction angular with the first direction. Each first core has first peaks and first valleys alternately arranged in the first direction and each first peak is electrically connected with a corresponding neighboring first valley but insulated from others. Each second core has second peaks and second valleys alternately arranged in the second direction and each second peak is electrically connected with a corresponding neighboring second valley but insulated from others. The first cores and the second cores interlace with each other to reach a woven structure with the first peaks and the second peaks jointly constituting an upper interface, and the first valleys and the second valleys jointly constituting a lower interface.

A shielded electrical ribbon cable (2) includes conductor sets (4) each including one or more insulated conductors (6), and a first and second shielding film (8) on opposite sides of the cable. In transverse cross section, cover portions (7) of the shielding films (8) substantially surround each conductor set (4), and pinched portions (9) of the films (8) form pinched portions of the cable on each side of each conductor set (4). Dense packing is achieved while maintaining high frequency electrical isolation between conductor sets (4). When the cable (2) is laid flat, a quantity s / Dmin is in a range from 1.7 to 2, where S is a center-to-center spacing between nearest insulated conductors (6) of two adjacent conductor sets (4), and Dmin is the lesser of the outer dimensions of such nearest insulated conductors (6). Alternatively, a first and second conductor set each having only one pair of insulated conductors can satisfy a condition that Σ / σ1 is in a range from 2.5 to 3. Other shielded cables, systems, and methods, which may or may not utilize the dense packing, are also disclosed.

The present invention provides a cable assembly and method of making thereof for use with HDMI / DVI connectors. The cable assembly of the present invention includes a flat extruded cable jacket that includes an oblong cross section. Parallel oblong orifices lie across the cross section of the extruded jacket, extend the length of the jacket and provide a means for the insertion of solid straight conductors extending through the oblong orifices. The alignment of the oblong orifices in conjunction with a cylindrical orifice provides a means to attach the conductors to a HDMI / DVI connector. The oblong configurations as associated with the present invention are also applicable for Firewire cable and provides for a flat cable assembly for use therein.

Disclosed are methods of manufacturing electrical cables. In one embodiment of the invention, method for manufacturing a wellbore cable includes providing at least one insulated conductor, extruding a first polymeric material layer over the insulated conductor, serving a first layer of armor wires around the polymeric material and embedding the armor wires in the first polymeric material by exposure to an electromagnetic radiation source, followed by and extruding a second polymeric material layer over the first layer of armor wires embedded in the first polymeric material layer. Then, a second layer of armor wires may be served around the second polymeric material layer, and embedded therein by exposure to an electromagnetic radiation source. Finally, a third polymeric layer may be extruded around the second layer of armor wires to form a polymeric jacket.

The present invention relates to a detector constructed from electrically conducting fabric and configured to present a varying electrical characteristic in response to a mechanical interaction. The detector comprises a first conducting layer (401) which is displaced from a second conducting layer (402) such that conduction between the layers results when the layers are mechanically forced together. In addition, the first of the layers has a plurality of lengths of conductive yarn and a plurality of lengths of non-conductive yarn machined therein, such that at least one length of conductive yarn is electrically isolated from another of the lengths of conductive yarn and the conducting yarns in the first of the layers are electrically grouped to define a plurality of identifiable rows. Each identifiable row has a respective electrical conductor; and define specific regions of the detector.

A signal transmission cable adapted to pass through a hinge assembly includes a flexible circuit substrate; a first connection section formed at a first end of the flexible circuit substrate and having a plurality of signal transmission lines provided thereon; a second connection section formed at a second end of the flexible circuit substrate and having a plurality of signal transmission lines provided thereon; and a cluster section formed on the flexible circuit substrate between the first and the second connection section, and having a plurality of signal transmission lines provided thereon to connect at two ends to the signal transmission lines on the first and the second connection section, respectively. The cluster section includes a plurality of clustered flat cables, which are formed by cutting the flexible circuit substrate along a plurality of paralleled cutting lines extended in the lengthwise direction of the flexible circuit substrate.

A multi-purpose wire includes at least one elongated conductor having a width of at least 0.125 inches. The conductor includes at least one conductive layer having a thickness no greater than about 0.0200 inches. The wire also includes a bonding material between each conductor, and an insulation layer surrounding the conductor and bonding material.

Self-healing electrical garments and self-healing electrical conductors and components for use in electrical garments are provided. A communication medium of various forms is integrated into a garment seam that is used to join two or more portions of a garment. The communication media can be used to provide electrical or other electromagnetic connection for coupling among a plurality of electrical devices associated with the garment. The self-healing electrical conductor may be used as part of a garment portion or may be used as a joining fiber in a variety of techniques to join garment portions together. The self-healing electrical conductor comprises an electrical conductor, a conductive polymer immediately surrounding or adjacent to the electrical conductor, an insulator enclosing the electrical conductor and the conductive polymer.

An electrified ceiling framework system having a plurality of grid elements forming a grid network arranged in a substantially planar arrangement. A conductive material is disposed on a surface of at least one of the plurality of grid elements. The conductive material is electrically connected to a low voltage power source and has a contact surface connectable to a low voltage device.

An aircraft conductor sandwich assembly configured to be embedded in a composite aircraft structure. The conductor sandwich assembly comprises a plurality of carbon conductors disposed between two sheets of insulating layers and an adhesive resin bonding the plurality of carbon conductors and the two sheets of insulating layers into a carbon sandwich assembly such that (i) the conductors are electrically isolated and (ii) structural loads can be passed through said conductor sandwich assembly.

A method for making cable of at least two thermoplastic insulated electrical conductors by thermal bonding. Two electrical conductors are moved into an extruder and are coated independently with heated thermoplastic insulation which maintains concentricity of each conductor with respect to the surrounding insulation. The insulated conductors are held in a spaced relationship until the insulation sets and then the heated insulated conductors are touched together causing the heated insulation to fuse together thereby joining them.

A multi-channel signal acquisition probe has a ribbon cable with ganged coaxial signal cables. The coaxial signal cables are separated into individual cables at one end of the ribbon cable. A junction box is mounted the ribbon cable with the individual cables extending through apertures in a front face of the junction box. An electrically conductive terminal is disposed in the junction box and extends into openings in opposing sides of the junction box. The electrically conductive terminal is electrically coupled to each outer shielding conductor of the signal cables. The free ends of each of the individual signal cables has a probing head. A terminal connector is disposed on the other end of the ribbon cable.

According to an example embodiment, the multilayer stretchable cable includes a multilayer stretchable film and a plurality of conductive lines in the stretchable film. The conductive lines are in at least two different layers of the multilayer stretchable film in a thickness direction of the stretchable film, at least one conductive line is a signal line and at least one other conductive line in a layer adjacent to the signal line is a ground line. The signal line and the ground line are in zigzag patterns and are parallel to a width direction of the multilayer stretchable film.

According to one embodiment, a flexible flat cable includes a plurality of ground lines and a plurality of signal lines. Each of the ground lines is connected to an electromagnetic shield layer by two connection line members. An arrangement of the ground lines and signal lines that are positioned in a region on one side of a center line of the flexible flat cable and an arrangement of the ground lines and signal lines on a region on the other side are symmetric with respect to the center line. In each of two connectors to which end portions of the flexible flat cable are coupled, terminals corresponding to the ground lines are grounded, a terminal corresponding to a signal line interposed between two ground lines is assigned a high-speed signal, and a terminal corresponding to another signal line is assigned a ground potential.

Disclosed are fiber optic ribbons having at least one optical fiber and a protective covering such as a matrix material. The fiber optic ribbons include an attachment portion for providing the craft an installation option for securing the same. Specifically, the fiber optic ribbon has a first portion that has at least one optical fiber and an attachment portion. The attachment portion generally extends away from the first portion, thereby providing a portion of the fiber optic structure suitable for receiving a fastener therethrough without damaging the at least one optical fiber or causing undue levels of optical attenuation. Moreover, the fiber optic ribbon may be used by itself if a rugged construction is provided or can further include cable components such as a cable jacket. The fiber optic structures may also have a bulbous first portion for indicating the location of the optical fiber to the craft.