69results about "Cable conductor construction" patented technology

In some embodiments, a cable can include an electrically conductive inner core. A first insulation layer can be disposed about the inner core. An electrically conductive layer can be disposed about the first insulation layer. A second insulation layer can be disposed about the electrically conductive layer. A first polymer jacket can be disposed about the second insulation layer. The first polymer jacket can include a first layer of armor strength members disposed therein. A second polymer jacket can be disposed about the first polymer jacket. The second polymer jacket can include a second layer of armor strength members disposed therein. An outer polymer jacket can be disposed about the second polymer jacket. At least one of the first polymer jacket, the second polymer jacket, and the outer polymer jacket can be formed from an aliphatic polyketone polymer, an ethylene-propylene copolymer, a polyolefin elastomer, a polypropylene, or a cross-linkable polyethylene.

The invention relates to a high-temperature-resistant and radiation-resistant armored coaxial radio frequency cable, which comprises a copper core, a first stainless steel tube, a silicon dioxide micro powder layer, a second stainless steel tube, a copper tube and an outer shielding protection tube which are sequentially arranged from inside to outside, the silicon dioxide micro powder layer is filled in a gap between the first stainless steel tube and the second stainless steel tube, the copper tube wraps the second stainless steel tube, and the outer shielding protection tube wraps the copper tube. The armored coaxial radio frequency cable is small in outer diameter, has good radiation resistance, high temperature resistance and high signal transmission stability, and can meet the insulation requirements of high-temperature scenes such as nuclear power and the like.

The invention relates to the technical field of cables, in particular to an ultrahigh-frequency low-loss longitudinal-hole PTFE insulated coaxial cable which comprises a composite conductive bar, a silver-plated copper flat belt, a PTFE insulating layer, a corrugated aluminum belt shielding layer and a sheath layer which are sequentially connected in a sleeved mode from inside to outside. Four identical longitudinal holes are formed in the PTFE insulating layer, and each longitudinal hole penetrates through the PTFE insulating layer along the extension direction of the PTFE insulating layer; each longitudinal hole is in a crescent shape; the longitudinal holes are distributed at equal intervals in the circumferential direction of the PTFE insulating layer; and each longitudinal hole is formed in the edge area, close to the outer ring, of the PTFE insulating layer. According to the cable, the transmission efficiency is improved by reducing signal attenuation, the service life is prolonged by improving the temperature resistance level, the inner conductor and the outer conductor are structurally adjusted to ensure that the cable has certain flexibility, and energy conservation and environmental protection are achieved by reducing the use amount of rare metal.

The invention relates to the technical field of water-cooled cables, and discloses a novel coaxial water-cooled cable, which comprises an outer sheath and a sealing mechanism, and is characterized in that the sealing mechanism comprises a connecting base, a limiting locking block, a locking bar, a contact ring groove, a spring, a contact ring, a connecting cover, a second limiting locking block, a second locking bar and the like; according to the device, stable mechanical locking is achieved through double clamping connection and friction contact of the limiting locking blocks, the locking strips and corresponding parts, the spring pushes the contact ring to be attached to the protruding connecting ring to form elastic sealing, the connection stability and the sealing performance are remarkably improved, and the sealing performance is greatly improved. The inner conductor is spirally wound, the outer conductor is annularly distributed, and the inner water pipe is used for circulating water cooling, so that the synergistic performance of electric conduction and heat dissipation is greatly optimized, the multi-layer insulation structure is matched with the outer sheath for protection, the insulation and protection performance is comprehensively enhanced, and the cable is suitable for a large-current transmission scene of high-power equipment.

A reelable support member for downhole operations comprising a plurality of composite strands and a filler matrix between the plurality of composite strands, wherein each composite strand comprises carbon fibres and epoxy; and a method of manufacturing the reelable support member by winding a plurality of composite strands around a core, each composite strand comprising carbon fibres and epoxy, and applying a filler matrix between the plurality of composite strands.

The systems, methods, and communication cables taught herein provide cryogenic cooling, high voltage connections, and other electrical connections to a sample on a stage within a vacuum environment while still enabling stage motion in at least five degrees of freedom with minimal stage vibration to achieve new or improved measurement applications in situ within a microscope, such as in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, in-situ microscopy, and in-situ microscopy. Such as atomic probe chromatography and testing of quantum computing components. The connection cables taught herein combine connections into a single connection cable within an outer spring suitable for use in ultra-high vacuum. These connection cables are also shaped and configured to maintain at least a minimum spacing distance from components in the surrounding environment (e.g., chamber walls and other equipment) to prevent mechanical, electrical and thermal shortcuts.

The present invention provides a cable for high-frequency signal transmission and a manufacturing method thereof. When transmitting high-frequency signals, it is difficult for the cable to attenuate, and even when bending and wiring high-frequency signals in a narrow space, the transmission characteristics are hardly reduced. The cable (1) for high-frequency signal transmission at least includes a conductor (2), an insulator (3) covering the periphery of the conductor (2), a coating layer (4) covering the periphery of the insulator (3), and a sheath (6) covering the periphery of the coating layer (4). Among them, an anti-cracking layer (7) is provided between the insulator (3) and the coating layer (4). The anti-cracking layer (7) is arranged in contact with the insulator (3) and has a coating layer (4) on its outer surface. The anti-cracking layer (7) is composed of a resin film (71). In response to the bending of the insulator (3), it bends while relatively moving in the cable length direction, thereby suppressing cracking of the coating layer (4).

The present invention relates to a cable (1) and a method of manufacturing such cable. The cable defines an axial length, the axial length depending on the use of said cable. The cable comprises a plurality of wound inner conductors, the inner conductors surrounded by an inner insulation tube (20). The cable further comprises an electrically conducting layer (30) surrounding the inner insulation tube, the electrically conducting layer surrounded by an outer jacket (40), the outer jacket defining the outer surface of the cable. Further, the cable comprises an antenna (30'), the antenna defined by a portion of the electrically conducting layer being exposed, due to a gap in the outer jacket.

The invention relates to a cable (1, 10, 20, 30) comprising a central electrical conductor (2) and a shielding layer (3) surrounding the central conductor (2) and forming a tubular sheath housing the conductor (2), the shielding layer (3) comprising a plurality of strands (31, 32, 33, 34) wound in a spiral manner around the central conductor (2) at a pitch greater than or equal to 100 mm in order to obtain a characteristic frequency greater than or equal to 1 MHz.

A cable assembly (1) for medical radio frequency or microwave ablation. The cable assembly includes a coaxial cable (2) with an inner conductor (3), encompassed by a dielectric layer (4), encompassed by an outer conductor (5). The cable assembly (1) further includes a first cooling line (6) and a thermal conductive layer (7), which in a cross-sectional view encompasses the coaxial cable (2) and the first cooling line (6) in a circumferential manner. The thermal conductive layer (7) is configured to reduce a thermal peak caused by the coaxial cable (2) when transferring energy, by distributing thermal energy around the coaxial cable (2) and the first cooling line (6) in a circumferential manner.

The invention relates to a coaxial cable (1) for transmitting electric current in a high-voltage system of a motor vehicle comprising: - an inner conductor (2); - an outer conductor (4); - an inner insulating layer (3) arranged between the inner conductor (2) and the outer conductor (4); - and an insulating cable sheath (7); wherein the outer conductor (4) is designed to be able to transmit essentially the same electrical power as the inner conductor (2).In order to enable simplified contacting of the outer conductor (4), the invention provides that the individual wires of the outer conductor (4), viewed in a cross-sectional area of ​​the coaxial cable (1) normal to a cable axis (9) of the coaxial cable (1), are divided into at least three sector bundles (5), wherein the sector bundles (5) are dimensioned such that the inner conductor (2) is positioned eccentrically to the cable axis (9) in the cross-sectional area and wherein the inner conductor (2) and the sector bundles (5) of the outer conductor (4) are stranded together.

The invention provides a coaxial cable and a device testing apparatus which can be arranged at high density. The coaxial cable (40) is provided with a cylindrical outer conductor (45), an insulating part (44) covered by the outer conductor (45), and a plurality of inner conductors (41) arranged in the insulating part (44).

A cable includes at least one inner conductor and an insulation layer surrounding the inner conductor. An outer conductive layer surrounds the insulation layer and center conductor and includes a carbon nanotube substrate having opposing face surfaces and edges. One or more metals are applied as layer(s) to the opposing face surfaces and edges of the carbon nanotube substrate for forming a metallized carbon nanotube substrate. The metallized carbon nanotube substrate is wrapped to surround the insulation layer and center conductor for forming the outer conductive layer. Embodiments of the invention include a braid layer positioned over the outer conductive layer. The braid layer is woven from of plurality of carbon nanotube yarn elements made of a plurality of carbon nanotube filaments. The carbon nanotube filaments include a carbon nanotube core and metal applied as a layer on the carbon nanotube core for forming a metallized carbon nanotube filaments and yarns woven to form the braid layer.

Systems, methods, and communication cables taught herein provide cryogenic cooling, high voltage connections, and other electrical connections to a sample on a stage within a vacuum environment while still enabling stage motion in at least five degrees of freedom with minimal stage vibration to enable new or improved measurement applications in-situ within the microscope such as atom probe tomography and testing of quantum computing components. The connection cables taught herein combine connections into a single connection cable within an outer spring that is suitable for use in ultra-high vacuum. The connection cables are also shaped and configured to maintain at least a minimum standoff distance from components in the nearby environment (e.g., chamber walls and other equipment) to prevent mechanical, electrical, and thermal shortcutting.

A cable includes a pair of conductors extending longitudinally and spaced apart from each other, an inner insulating layer circumferentially extending around an outside of the conductors and fixing the conductors, a conductive shielding layer circumferentially extending around an outside of the inner insulating layer, and an insulating sheath extending around an outer peripheral surface of the conductive shielding layer. The insulating sheath is at least one of an extruded layer and a heat shrinkable sleeve.

A method of manufacturing one or more coaxial assemblies includes forming a first panel member and a second panel member by diffusion bonding sheets formed of a metal material, disposing one or more conductive elements between the first panel member and the second panel member at locations corresponding to the one or more coaxial assemblies, bonding the first panel member to the second panel member to form an assembly structure including a plurality of coaxial assemblies, and separating the one or more coaxial assemblies from the assembly structure. The bonding includes disposing a conductive epoxy, a conductive solder, or a layer formed of the conductive epoxy or the conductive solder and between the first panel member and the second panel member.

Electrical cables are disclosed can include at least one electrical conductor, an inner electrical insulator that surrounds the at least one electrical conductor, and an electrical shield disposed about the inner electrical insulator. The electrical cables can include an electrically conductive material disposed between adjacent layers of the electrical cable. In one example, an electrical coating can be disposed in the electrical shield, for instance, in regions of overlap. Flowable electrically conductive materials are also disclosed that can flow into gaps during operation of the electrical cable.

This patent application proposes a radio frequency coaxial cable and a production method thereof, which belongs to the field of communication materials. The radio frequency coaxial cable includes an inner conductor, an insulating structure layer, an outer conductor, a shielding structure layer and a sheath structure layer. Among them, the material of the inner conductor is a copper plate, and the copper plate includes a plurality of copper structure layers without grain boundaries with the same crystal plane index stacked along the thickness direction of the copper plate, and the thickness direction of the copper plate is perpendicular to the axial direction of the inner conductor; the insulating structure layer is sleeved on the outside of the inner conductor; the outer conductor is sleeved on the outside of the insulating structure layer; the shielding structure layer is sleeved on the outside of the outer conductor; and the sheath structure layer is sleeved on the outside of the shielding structure layer. The production method of the radio frequency coaxial cable includes: using the copper wire obtained by forming the copper plate as the inner conductor, and sleeve the inner conductor, the insulating structure layer, the outer conductor, the shielding structure layer and the sheath structure layer in sequence to form a radio frequency coaxial cable. While ensuring that the inner conductor has low loss, the cost of the inner conductor can be effectively reduced.

A device includes a printed circuit board (PCB) including a signal trace electrically coupled to a signal via. The device further includes a coaxial ground shield configured to reduce signal interference with respect to the signal via. The coaxial ground shield includes a ground via formed in the PCB substantially surrounding the signal via and substantially coaxial with the signal via. The coaxial ground shield further includes metal plating on a wall of the ground via. The metal plating is electrically coupled to a ground plane of the PCB. The coaxial ground shield further includes resin at least partially filling the ground via.

A device comprises a printed circuit board (PCB) having a signal trace electrically connected to a signal via. The device further comprises a coaxial ground shield configured to protect the signal via from signal interference. The coaxial ground shield comprises a ground via in the PCB that substantially surrounds the signal via and is substantially coaxial with the signal via. The coaxial ground shield further comprises a metal coating on a wall of the ground via. The metal coating is electrically connected to a ground plane of the PCB. The coaxial ground shield further comprises a resin that at least partially fills the ground via.

To provide a signal transmission cable whose transmission characteristics are not easy reduced when bent.SOLUTION: A signal transmission cable 1 comprising a conductor 2, an insulator 3 covering the circumference of the conductor 2, a shield layer 4 covering the circumference of the insulator 3, and a sheath 5 covering the circumference of the shield layer 4, wherein between the insulator 3 and the shield layer 4, a plating base layer 6 is provided so as to cover the circumference of the insulator 3, the shield layer 4 has a plating layer 41 formed so as to be in contact with an outer peripheral surface of the plating base layer 6 and so as to cover the plating base layer 6, and the surface roughness of the outer peripheral surface of the plating layer 41 is smaller than the surface roughness of an inner peripheral surface of the plating layer 41.SELECTED DRAWING: Figure 1

To provide a coaxial cable capable of being disposed with high density.SOLUTION: A coaxial cable 40 comprises a tubular outer conductor 45, an insulator 44 covered by the outer conductor 45, and a plurality of inner conductors 41 disposed within the insulator 44.SELECTED DRAWING: Figure 3

A longitudinal cable including a first conductor, a first semiconductor layer, a first insulating layer, the first conductor including a plurality of conductor wires each including a conductive strand which is covered by an insulation sheath, the first conductor including at least one longitudinal discontinuous groove at the periphery uncovering the conductive strand of the conductor wires at the level of a contact zone, each uncovered conductive strand being a smoothing conductive strand, each smoothing conductive strand including longitudinal portions covered by an insulating sheath and uncovered longitudinal portions, the uncovered longitudinal portions being in contact with the first semiconductor layer at the level of a contact zone, the contact zones being spaced apart by the same contact pitch.

Disclosed herein is a miniaturized shielded cable comprising a shield layer with an improved robustness and flexibility.

A cable (1) includes a first retimer (10a), a second retimer (10b), and a coaxial line (20). Each of the first retimer (10a) and the second retimer (10b) includes: a differential-to-single-ended signal converter (11) that receives an input of a differential signal and outputs a single-ended signal; and a single-ended-to-differential signal converter (12) that receives an input of a single-ended signal and outputs a differential signal. The first retimer (10a) and the second retimer (10b) are connected via the coaxial line (20).

The present invention relates to an electrical cable. One embodiment of the electrical cable 100 has at least one first conductor. The first conductor has a first electrical conductor 110. The first conductor further has a first insulation 120 surrounding the first electrical conductor. The electrical cable has at least one first shielding foil 130. The first shielding foil surrounds the first conductor. The first shielding foil 130 has at least one metal layer. The electrical cable has at least one wire screen 140. The wire screen is applied to the first shielding foil 130. The wire screen 140 has wires with a non-circular, in particular elliptical, cross-sectional shape. The wires have a first width. The electrical cable 100 further has a sheath 150. The sheath surrounds the wire screen 140 completely.The indentation depth of the wires in the shielding foil 130 under load is less than a reference indentation depth of wires with a round cross-sectional area and a diameter corresponding to the first width under load.

The present invention provides a coaxial cable and a cable assembly which are difficult to produce a reduction in shielding effect and are difficult to produce a sharp attenuation in a predetermined frequency band. A shield layer (4) of a coaxial cable (1) has a transversely-wound shield portion (41) which is formed by spirally winding a plurality of metal wires (411) having a plating layer (411b) on the outermost layer around an insulator (3), and a collectively-plated portion (42) which covers around the transversely-wound shield portion (41) and is formed by hot-dip plating, and a thickness of the collectively-plated portion (42) is 0.015 mm 2 or more and 0.300 mm 2 When element analysis is performed in any of the following analysis regions (51), an area of a region in which chlorine exists on the analysis region (51), that is, a chlorine-existing region (52) is 5% or less of an area of the analysis region (51).

The invention relates to a braided electronic device cable, a braiding machine and a method for braiding an electronic device cable. The present application relates to a cable assembly having an outer (outer) layer formed by weaving materials together. To achieve the desired pattern, the machine tools forming the outer layer have been modified several times. For a machine tool including two tracks (e.g., an inner track and an outer track) having a plurality of carriers of material to be woven, each carrier location may include a plurality of spools, where each spool carries a reel / turn of material. Each track rotates in an opposite direction during a knitting operation performed by the machine tool. In addition, some spools include arms that guide material in a particular manner. For example, during orbital rotation, the arm provides a rocking motion that moves the material carried by the arm in a periodic (e.g., sinusoidal) motion. Additional tracks may be used to guide the arms.

A coaxial cable includes an inner conductor, an insulation covering the inner conductor, an outer conductor covering the insulation, and a sheath covering the outer conductor. The inner conductor is a compressed conductor including a central element wire and multiple peripheral element wires surrounding the central element wire. The inner conductor has a compressibility of 23.0% or more and 35.0% or less in percentage. The compressibility is calculated from a sectional area S1 and the sectional area S2 of the compressed conductor by Compressibility=[1−S2 / S1]. The sectional area S1 is calculated from the outside diameter D of the central element wire and the total number n of the central and peripheral element wires by S1=n×π×0.25×D2. The outside diameter of the insulation is 1.25 mm or more and less than 1.75 mm.