Abstract: A coaxial cable includes a center conductor, a dielectric layer extending around the center conductor, and an outer conductor extending around the dielectric layer. The outer conductor includes winding turns wrapped along a helical path around the dielectric layer in a first lay direction. A wire layer extends around the outer conductor. The wire layer includes winding turns wrapped along a helical path around the outer conductor in a second lay direction. The second lay direction is opposite to the first lay direction.

Abstract: Disclosed herein is a coaxial cable that includes a circumferential conductive tape that includes a plurality of bonding agent strips running along a length of an outer surface of the circumferential conductive tape. Further, the coaxial cable includes a jacket surrounding the circumferential conductive tape such that the plurality of bonding agent strips bonds the circumferential conductive tape to the jacket.

Abstract: Corrosion resistant coaxial cable. In one example embodiment, a method for manufacturing a coaxial cable includes various steps. First, a dielectric is extruded around a center conductor. Next, the dielectric is surrounded with an outer conductor. Then, a corrosion-inhibiting composition is applied to the outer conductor. Finally, the outer conductor is surrounded with a jacket. The corrosion-inhibiting composition includes a synthetic sulfonate salt dispersed in a paraffinic mineral oil. The synthetic sulfonate salt is present in the composition in an amount of from about 5% to about 10% by weight. The paraffinic mineral oil is present in the composition in an amount of from about 90% to about 95% by weight.

Abstract: Methods and apparatus for reducing the electromagnetic interference (EMI). The present invention is aimed at the reduction of the electric current flowing on the external surface of shields of cables made by a combination of shielded cables. In one embodiment the cable shields are electrically connected with each other in one or a plurality of positions along the cable, in order to reduce the current flowing on the cable shields, and a conducting connection externally to the jacket is provided, in order to connect an EMI filter. In a different embodiment the cable jacket is partially removed, in order to provide an electrical connection between all the shields and an external EMI filter. In a different embodiment the cable comprises quarter-wavelength sleeve chokes in order to reduce the shield common mode current at some particular frequencies.

Abstract: A cable is provided, the cable includes: a conductor configured to propagate a signal; an elastomeric layer surrounding the center conductor; and a conductive topcoat layer surrounding and bonded to the elastomeric layer. The conductive topcoat layer includes a suspension of conductive particles. The conductive topcoat layer is formed by curing a topcoat and conductive paste mixture applied to the elastomeric layer.

Abstract: A composite material formed of electrically conductive metalized carbon fibers, a thin metal coating or a composite material formed of a conductive polymer and metal nanoparticles.

Abstract: A cable structure includes a conductor, a shielding layer wrapped the conductor, a knit layer surrounding the shielding layer, and an insulating layer bound round the knit layer. The knit layer is interlaced by multiple knitting wires. Each of the knitting wires has a plurality of metallic wires which are arranged side by side to form a metallic strip, and at least one fiber filament arranged at an outer side of the metallic strip. The abreast knitting wires are arranged by means of each two adjacent metallic strips sandwiching at least one fiber filament therebetween.

Abstract: A cable for a high-voltage electronic device having a small diameter and an excellent voltage resistance characteristic. The cable includes an inner semiconducting layer, a high-voltage insulator, an outer semiconducting layer, a shielding layer, and a sheath on an outer periphery of a cable core portion, wherein the high-voltage insulator is formed of an insulating composition containing 0.5 to 5 parts by mass of an inorganic filler with respect to 100 parts by mass of an olefin-based polymer, and the inorganic filler has an average dispersed-particle diameter of 1 ?m or less.

Abstract: This is directed to a cable for use with an electronic device. The cable can be substantially flat, such that all of the conductive wires of the cable are substantially in the same plane. A spacer can be placed between the wires to ensure that wires conducting signals remain a minimum distance apart to avoid signal degradation. The spacer can also control the bending of the cables to favor bending in a preferred direction while reducing or limiting bending in a less preferred direction.

Abstract: A guarded coaxial cable assembly includes a micro-coaxial cable and an adjacent structure for protecting the micro-coaxial cable.

Abstract: A guarded coaxial cable assembly including a micro-coaxial cable and at least one rail.

Abstract: A protective jacket in a coaxial cable. In one example embodiment, a coaxial cable includes two or more internal components and a jacket surrounding the internal components. The internal components include an electrical conductor configured to propagate a signal and an outer conductor surrounding the electrical conductor. The jacket includes two or more protruding portions and two or more recessed portions. Each recessed portion is positioned between two of the protruding portions. Each of the protruding portions makes contact with the outer conductor and each of the recessed portions does not make contact with the outer conductor. A method for manufacturing a coaxial cable with a protective jacket is also disclosed.

Abstract: An electrical line for the connection of non-stationary electrical loads to a power source is specified which has a line core surrounded by a jacket (8) of insulating material. Four wires (1), stranded together to form one star quad (S), for the transmission of data, and also two wires (2) stranded together to form a pair of wires (A) and used for supplying power are placed in the line core. The star quad (S) and the pair of wires (A) are stranded together as stranding elements for forming the line core and, over the same, a layer (5) of insulating material is placed, over which a braid or a stranded cover layer of copper wires is arranged in a first layer (6) as part of an electrical screen. At least one layer of a fleece material consisting of synthetic material and made electrically conductive is placed over the first layer (6) as second layer (7) of the electrical screen and the fleece material is surrounded by the jacket (8) of insulating material.

Abstract: A shielded cable includes a core comprising an insulated wire including an inner conductor and an insulation layer formed on an outer periphery of the inner conductor, a shield layer formed on an outer periphery of the core, and a jacket layer formed on an outer periphery of the shield layer. The shield layer includes a stranded conductor shield layer including a stranded conductor spirally wound around the core, and the stranded conductor includes a plurality of conductor strands stranded together. The shield layer may further include a tinsel copper braided shield layer or a metal plated strand braided shield layer that is formed between the core and the stranded conductor shield layer.

Abstract: Shielding seam location in a coaxial cable. In one example embodiment, a coaxial cable includes a center conductor surrounded by a dielectric, an inner conductive tape surrounding the dielectric, a conductive braid surrounding the inner conductive tape, an outer conductive tape surrounding the conductive braid, and a jacket surrounding the outer conductive tape. The outer conductive tape includes an aluminum layer, a seam in which two edges of the aluminum layer overlap one another, and means for visibly manifesting the location of the seam.

Abstract: A submarine power cable (10) has an electrical conductor (1) surrounded by an insulation (2,3,4), said insulation being surrounded by a metallic moisture barrier (5) characterized in that the cable (10) further comprises a semi-conductive adhesive layer (6) surrounding said metallic moisture barrier (5), and a semi-conductive polymeric jacket (7) able to be in electrical contact with sea water surrounding said semi-conductive adhesive layer (6), the overlaying of the metallic moisture barrier (5), the semi-conductive adhesive layer (6) and the semi-conductive polymeric jacket (7) forming a 3-layer sheath.

Abstract: To provide an electronic wire having a diameter reduced while ensuring an excellent abrasion resistance and a method of manufacturing the electronic wire. An electronic wire 1 is obtained by coaxially providing sequentially a central conductor 2, an insulator 4, an outer conductor 6 and a jacket 7. The central conductor 2 consists of twisted copper alloy wires 3 each containing silver in an amount which is equal to or larger than 1 weight % and is equal to or smaller than 3 weight % and each having a diameter which is equal to or larger than 0.010 mm and is equal to or smaller than 0.025 mm, and a tensile strength of the central conductor is equal to or higher than 950 MPa and a conductivity of the central conductor is equal to or higher than 70% IACS and is equal to or lower than 85% IACS.

Abstract: A cable assembly (100) comprises a cable (13), a filter (11) made of magnetic material for anti-EMI and surrounding the cable (13), an insulative main body (12) enclosing the filter (11), at least a pair of flexible prongs (121) extending outwardly from the insulative main body (12); wherein the pair of the flexible prongs (121) with the insulative main body (12) together forming a clip (122,123) with a hole for receiving cables (131,133).

Abstract: The invention provides a system of components, methods for assembly, and a hand tool, for adding a male connector to a standard and modified ribbon high definition multimedia (HDMI) cable for field termination or factory installation. The invention also provides a locking plug which can mate with female HDMI connectors with great retaining force. Features of the connector system including the locking top shell, bottom shell, wire holders and the connector core make possible and efficient the addition of a solderless male connector. Features of the modified ribbon type HDMI cable facilitate threading of the wire holders significantly improving the time it takes to assemble a male connector on the cable. The hand tool disclosed is designed to accomplish all steps of assembly for field termination.

Abstract: A thin format crush resistant electrical cable that includes at least one bundle, having each bundle comprising a central conductor, an insulator that encapsulates the central conductor, a shielding that encapsulates the insulator, and a jacket that encapsulates the shielding wherein the jacket is crush resistant and thin format in cross section wherein a height of the jacket is smaller than a width of the jacket in cross-section and which enables a small bending radius. One or more embodiments include a small coaxial cable with width less than the jacket height in which the coaxial cable resides. Additional form fitting elements may be utilized as one or more additional bundles to provide for direction changes of the cable that may be implemented by bending the cable wherein the form fitting elements or wires maintain the form desired. The additional bundles may be conductive wire in any geometry.

Abstract: Improved electrical cables employ a protective material thereon for antimicrobial prevention. The electrical cable is formed by a metallic strip helically wound with interlocking edges to define an armor having an inner hollow area within which is housed a plurality of electrical conductors. The armor is treated with a coating which may be used for corrosion protection. The coating is treated with an antimicrobial and/or antifungal additive inhibiting the proliferating or these microorganisms on the cable.

Abstract: An improved electrical conduit having a protective material thereon for anti-microbial and antifungal prevention. The metallic conduit includes a metal armor defining an outer surface and an interior hollow area within which electrical conductors are disposed. A first polymeric layer is formed over the outer surface of the metal armor. A second polymeric layer is extruded over the first polymeric layer. The first and/or second polymeric layers may be formed with an anti-microbial and/or anti-fungal additive. In addition, the first polymeric layer may have a first color and the second polymeric layer may have a second color where the first color is different from the second layer sufficient for the first color to be visible when the second polymeric layer is compromised.

Abstract: A shielded electrical wire and device and method for making the same is disclosed.

Abstract: There is provided a resin composition made of a mixture of a crosslinked polyethylene and a non-crosslinked polyethylene, and having a density of 0.960 g/cm3 or more and a melt fracture tension within a range from 20 to 100 mN. Furthermore, there is provided a high-frequency co-axial cable comprising sequentially: an internal conductor; an internal solid layer; a foamed insulation layer; an external solid layer; an external conductor; and an outer coat, the foamed insulation layer being composed of a foam body of the above resin composition.

Abstract: The present invention relates to a micro coaxial cable with a high bending performance, comprising an inner conductor; an insulating layer configured to surround the inner conductor, and a helical winding conductor configured to surround the insulating layer and having an elongation of 1.5 to 4% and a pitch of 3.0 to 5.0 D.

Abstract: The present invention relates to a peelable and water-crosslinked semiconductive resin composition. The peelable and water-crosslinked semiconductive resin composition includes 100 parts by weight of a basic resin; 20 to 80 parts by weight of carbon black based on weight of the basic resin; and 0.05 to 5.0 parts by weight of an amide-based lubricant based on weight of the basic resin, wherein the basic resin is a mixed resin including 60 to 80 weight % of an ethylene-based copolymer resin that is bonded with an unsaturated organic silane and has a melting point of 80° C. or above; 5 to 20 weight % of an ethylene-acrylic acid copolymer or its alkali metal salt; and 5 to 40 parts by weight of an ethylene propylene copolymer containing 5 to 20 weight % of ethylene, or a propylene rein.

Abstract: A device for making a shielded electrical wire comprising a first folding die that folds a first and second edge of a shield tape in an opposite direction from the central portion of the shield tape, a second folding die that wraps the shield tape around the insulated conductors and folds the first edge back over onto the central portion of the shield tape to form a receiving area, a third folding die that tightens the shield tape around the plurality of conductors while positioning the receiving area to receive a drain wire, a wire guide that installs a drain wire in the receiving area, and a closing die that closes the shield tape around the plurality of conductors and the drain wire to form an enclosure around the plurality of conductors with the second edge overlapping the receiving area at an outside surface of the enclosure, in order to better define the claimed invention.

Abstract: A cable having a cable structure comprising a stranded wire formed by stranding a plurality of stranded conductors and an inclusion that is more deformable than the stranded conductors, wherein a plurality of stranded conductors are arranged on a circumference of the inclusion.

Abstract: A dilute copper alloy material includes, based on a total mass of the dilute copper alloy material, 2 to 12 mass ppm of sulfur, 2 to 30 mass ppm of oxygen, 4 to 55 mass ppm of titanium, and a balance consisting of pure copper and an inevitable impurity. A part of the sulfur and the titanium forms a compound or an aggregate of TiO, TiO2, TiS or Ti—O—S, and an other part of the sulfur and the titanium forms a solid solution. TiO, TiO2, TiS and Ti—O—S distributed in a crystal grain of the dilute copper alloy material are not more than 200 nm, not more than 1000 nm, not more than 200 nm and not more than 300 nm, respectively, in particle size thereof, and not less than 90% of particles distributed in a crystal grain of the dilute copper alloy material are not more than 500 nm or less in particle size.

Abstract: A foam coaxial cable includes a central conductor; an inner skin layer surrounding the central conductor coaxially; an insulation layer surrounding the inner skin layer coaxially and made of polyethylene resin containing a plurality of foam cells uniformly formed therein; wherein the inner skin layer is made of polyolefin resin having excellent compatibility with the polyethylene resin to increase an interfacial adhesive force with the insulation layer, an outer skin layer surrounding the insulation layer coaxially to prevent overfoaming of the insulation layer and allow uniform creation of foam cells; a shield surrounding the outer skin layer coaxially; and a jacket surrounding the shield. This cable improves an interfacial adhesive force between the central conductor and the insulation layer and also improves the degree of foam of the foam cells, thereby capable of propagating ultra high frequency of GHz level without signal interference.

Abstract: The present invention provides an electric cable comprising a conductor element, and successively around said conductor element: an electrically-insulating layer; a metal screen; and an outer protective sheath; the cable further comprising an extruded outer layer surrounding the outer protective sheath, said extruded outer layer being directly in contact with said outer protective sheath, and being obtained from a composition containing more than 50.0 parts by weight of apolar polymer per 100 parts by weight of polymer in the composition, together with an electrically-conductive filler.

Abstract: An electric power sea cable including at least one cable core. The cable core includes an electric conductor, an electric insulation surrounding the conductor, and a protective sheath surrounding the electric insulation and acting as a water barrier. At least one outer layer surrounds the at least one cable core. The protective sheath is made of metal and the electrical power sea cable includes at least one friction reducing layer surrounding the at least one cable core and arranged inside of the at least one outer layer.

Abstract: A cable for electromedical application and especially for recording the ECG of patients of different body shapes and body sizes is provided including a textile composite (1) formed of a carrier layer (2) and a cover layer (3). At least one electric line (4) is accommodated between the carrier layer (2) and the cover layer (3). After manufacture in a cost-effective manner, the cable offers sufficient protection against short circuits in case of penetration of moisture, on the one hand, and adapts to curved and irregularly shaped structures without problems, on the other hand. The cable textile composite (1) is flexibly deformable without destruction, wherein at least one electric line (4) is electrically insulated by an insulation (5) against the carrier layer (2) and the cover layer (3).

Abstract: A cable for transporting or distributing electric energy, especially medium or high voltage electric energy, includes at least one electrical conductor, at least one electrically insulating layer surrounding the electrical conductor, and at least one sheath surrounding the electrically insulating layer, wherein the sheath includes 65% to 95% by weight of at least one thermoplastic ethylene polymer; 5% to 35% by weight of at least one plasticizing agent, the percentages being expressed with respect to the total weight of the sheath. The above sheath guarantees improved flexibility without impairing mechanical properties and particularly thermopressure resistance, which is essential to preserve shape and integrity of the screen layer during cable installation and use at high operating temperatures.

Abstract: A coaxial cable includes an internal insulating layer formed on an outer periphery of an electric conductor, and a conductive layer formed on an outer periphery of the internal insulating layer, wherein the conductive layer is made of a metal nanoparticle paste sintered body obtained by sintering metal nanopraticles by irradiation of light toward a metal nanoparticle paste, and an external insulating layer is formed on an outer periphery of the conductive layer.

Abstract: This invention provides a shield conductor having improved heat dissipation property. The present invention relates to a shield conductor comprising: a wire, a shielding layer for enwrapping the outer circumference of the wire, and a sleeve pipe for housing the wire and the shielding layer, wherein the outer circumference of the wire tightly adheres to the shielding layer, while the shielding layer tightly adheres to the inner circumference of the sleeve pipe.

Abstract: The coiled wire armored cable (10) includes transmission wires (14) encased by an insulator (12). A solid protective wire (16) is spirally wound over the exterior of the insulator. The protective wire (16) is fabricated from a metal, such as steel or titanium material, and will have a gauge that prevents a rodent from chewing through the wire. The coils of the protective wire are spaced apart along the length of the cable. The spacing (a) of the coils will be less than the width of the teeth of the rodent so that the coils create a “fence” that prevents the rodent's teeth from contacting the insulator.

Abstract: A low-capacitance, interference-free, stretch-prevention and high tensile strength digital audio video cable practical for a long-distance application is disclosed to include an electrical strand formed of multiple high-frequency transmission lines and low-frequency transmission wires and a filler, a tin foil layer surrounding the electrical strand, a braided layer surrounding the tin foil layer, and an outer plastic sheath surrounding the braided layer. Each high-frequency transmission line includes multiple high-frequency transmission wires that are equal in length and arranged in parallel, an insulation layer surrounding the high-frequency transmission wires, two shielding layers surrounding the insulation layer, and a grounding wire set in between the two shielding layers in a middle position relative to the high-frequency transmission wires.

Abstract: An umbilical for use in the offshore production of hydrocarbons, the umbilical comprising a plurality of functional elements contained within an outer sheath, at least one of said functional elements comprising a multicore electric cable, said multicore electric cable comprising a plurality of insulated electric conductors electrically insulated from each other and assembled together in a helical or S/Z manner, said multicore electric cable further comprising a protective polymer sheath surrounding said plurality of insulated electric conductors, said multicore electric cable further comprising a tubular metallic layer located inside said protective polymer sheath and surrounding said plurality of insulated electric conductors.

Abstract: The cable includes a conductive cable core, an inner insulating sheath covering the cable core, a conductive sheath covering the inner insulating sheath, and an outer insulating sheath covering the conducting sheath, except for a revealed portion of the conductive sheath extending from an end of the cable, wherein the revealed portion has an end opposite the outer insulating sheath. The method includes the steps of, while maintaining the free end of the conductive sheath in contact with the inner insulating sheath, pushing up the end of the revealed portion of the conductive sheath from the end of the cable for revealing a portion of the inner insulating sheath and causing the revealed portion of the conductive sheath to crumple, forming an annular nipple, and blocking the pushed up portion of the conductive sheath.

Abstract: The present invention provides an improved cable structure, which comprising: a first conductor; a second conductor at one side of the first conductor; a coating unit covered externally onto the first and second conductors, so that the central distance of the first and second conductors is a stable distance; moreover, one surface of the coating unit is provided with a plane portion, and the other surface provided with a depressed portion between the first and second conductors. Thus, the cable could be used to balance efficiently the impedance and realize zero delay difference during HF signal transmission.

Abstract: Process for manufacturing a cable comprising the following steps:(a) conveying at least one conductor to an extruder apparatus;(b) extruding an insulating coating layer radially external to said at least one conductor; (c) longitudinally folding a metal tape around said extruded insulating coating layer, said metal tape bearing at least one adhesive coating layer in a radially external position; (e) extruding at least one continuous coating layer comprising at least one polyamide or a copolymer thereof around and in contact with said folded metal tape; wherein the step (e) is carried out at a draw down ratio (DDR) not higher than 2.5, preferably of from 1.2 to 2.0.

Abstract: An insulating layer 3 mainly composed of a fluorine resin is provided at an outer periphery of an inner conductor 2 to provide an inner insulated wire 4. A skin layer 5 mainly composed of a fluorine resin and doped with titanium oxide and carbon black or the titanium oxide and nickel as color pigment is provided at an outer periphery of stranded inner insulated wires 4. An outer conductor (shield) 6 is provided at an outer periphery of the skin layer 5, and a sheath layer (jacket) 7 is provided at an outer periphery of the outer conductor 6, to provide a signal transmission cable 1 having excellent electric characteristics, mechanical characteristics and terminal workability.

Abstract: As a coaxial cable includes a dielectric layer around a center conductor, an outer conductor layer around the dielectric layer, and a sheath around the outer conductor layer, wherein the dielectric layer is made of unsintered polytetrafluoroethylene, and a metal foil imparting an increased shielding effectiveness and shape maintainability is provided between the dielectric layer made of the unsintered polytetrafluoroethylene and the outer conductor layer, it is possible to make it a high frequency coaxial cable which, having a very excellent low insertion loss, and also having a high shielding effectiveness against a signal leakage increasing an attenuation, can be bent easily and freely by hand without using a tool or the like while effectively maintaining an electrical characteristic for a high frequency signal and, after being bent, has an excellent shape maintainability in that bent condition, enabling an easy wiring work or connecting work by virtue of the excellent shape maintainability.

Abstract: A data transmission cable (2) comprises at least one pair of wires (4) comprising two wires (6) lying parallel to each other, each with an electrical conductor (8) surrounded by an insulation (10). The pair of wires (4) is sheathed over its length by a foil (12) with an electrically conducting inner side (14) and an electrically insulating outer side (16). To improve the electrical properties of the data transmission cable (2), the foil (12) has a longitudinal fold (18), so that the inner side (14) is directed outward, an additional wire (20), which contacts the inner side (14) made to face outward, being laid on the foil (12).

Abstract: A process for manufacturing a cable includes the steps of conveying at least one conductor to an extruder apparatus; extruding an insulating coating layer radially external to the at least one conductor; longitudinally folding a metal tape around the extruded insulating coating layer, the metal tape bearing at least one adhesive coating layer in a radially external position; and extruding at least one continuous coating layer of at least one polyamide or a copolymer thereof around and in contact with the folded metal tape. The step of extruding the at least continuous coating layer is carried out at a draw down ratio not higher than 2.5, preferably, 1.2 to 2.0.

Abstract: A process of twinning a pair of polymer-insulated conductors to form a twisted pair, where the polymer-insulated conductors are formed by extruding a uniformly thick coating of polymer onto the conductors. More than one twisted pair is encased in a polymer jacket forming a cable. The twisted pair obtains a desirable average impedance performance using a reduced amount by weight of polymer forming said polymer-insulated conductors by: (i) extruding to form longitudinally running peaks and valleys in the exterior surface of each of the polymer-insulated conductors of the pair of polymer-insulated conductors and (ii) twinning resultant polymer-insulated conductors to nest at least one of the peaks in the exterior surface of one of the polymer-insulated conductors in at least one of said valleys in the exterior surface of the other of the polymer-insulated conductors of the pair of polymer-insulated conductors.

Abstract: An electrical cable with enhanced magnetic fields and better controlling of impedances. The electrical cable includes a central ground core, an inner dielectric layer surrounding the central ground core, and a pair of signal conductor wires spirally wound on the inner dielectric layer. The signal conductor wires are separated from the central ground core by a thickness of the inner dielectric layer, and spaced apart from each other and parallel to each other. The cable further includes an intermediate dielectric layer disposed between the signal conductor wires and an outer dielectric layer surrounding the signal conductor wires and the intermediate dielectric layer.

Abstract: A shield wire has one covered wire, a metal foil shield wound around the covered wire, and a sheath covering around the metal foil shield and a sheath covering around the metal foil shield. In the metal foil shield, slits are formed linearly along a lengthwise direction of a core.

Abstract: The invention discloses a flexible flat cable and the manufacturing method thereof. The Flexible flat cable is manufactured by the following steps of: forming a metal layer on an insulated base layer, then forming a protective layer on the metal layer which had been formed above the insulated base layer, to make the metal layer be covered between the insulated base layer and the protective layer for forming a composite shelter, then preparing a conducting layer and an insulated substrate, and then spreading an insulated glue layer on the bottom of the composite shelter and then combining the composite shelter, the conducting layer and the insulated substrate by a thermo-compression bonding process to make the conducting layer be covered between the insulated base layer and the insulated substrate for forming a flexible flat cable having the composite shelter.