513results about "Conductor/cable marking" patented technology

In a wireless IC tag, metallic antennas are deposited as thin films on the front and back surfaces of a spacer, made of a heat-resistant glass epoxy material having a desired dielectric constant, to form a first antenna and a second antenna. An IC chip is mounted in the center of the first antenna. The second antenna functions as an auxiliary antenna for resonating to a desired frequency of a transmission radio wave of the first antenna to strengthen the intensity of the radio wave. Accordingly, even when the IC tag is mounted to a cable or the like, the tag can be mounted in the interior of the enclosure of the cable and thus the radio wave intensity of the first antenna can be prevented from being weakened by a metallic member in the cable.

According to the present invention, there are provided processes for preparing a porous composite material comprising a metal and a two-dimensional nanomaterial. In one aspect, the processes comprise the steps of: providing a powder comprising metal particles; heating the powder such that the metal particles fuse to form a porous scaffold; and forming a two-dimensional nanomaterial on a surface of the porous scaffold by chemical vapour deposition (CVD). Also provided are materials obtainable by the present processes, and products comprising said materials.

An improved conductive busbar assembly and power distribution track utilizing the improved conductive busbar assembly. The busbar assembly including an inner component adapted to engage a stab member of a plug-in unit and an outer component disposed about, and in contact with, the inner component. The inner and outer components are both formed from an electrically conductive material. The busbar assembly provides greater current-carrying capacity and permits take-off devices to be installed at any point along the busway run.

In a liquid crystal display device having a feedback circuit part, the feedback circuit part prevents black points and blinking pixels from being generated on a liquid crystal display panel by compensating ripple voltages generated from a common electrode of a common substrate. The feedback circuit part comprises a negative feedback part, a buffer part, a low-pass filter part, and first and second impedances interconnecting the low-pass filter part and the negative feedback part.

The invention relates to a cable marker printing and threading machine. The cable marker printing and threading machine comprises a movable clamping component, a threading component, a wire cutting component, a first mounting plate and a printing main panel; the printing main panel is arranged on the first mounting plate; the threading component and the wire cutting component are arranged on the first mounting plate; the movable clamping component is arranged on the printing main panel; the threading component comprises a threading pipe, a wire feeding structure, a guiding structure, a mounting block, a moving structure and a fourth mounting plate; a wire is arranged in the threading pipe; the wire feeding structure is located behind the mounting block and comprises at least a pair of wire feeding friction wheels used for transferring the wire; the wire cutting component is located in front of the threading component and is used for cutting off the wire; the movable clamping component comprises a cable marker mould which can be opened and closed, a clamping hole is formed in the cable marker mould, and the clamping hole is coaxial with the threading pipe. The cable marker printing and threading machine solves a calibration problem of the wire penetrating the cable marker and guarantees accuracy of the wire penetrating the cable marker.

This invention intends to provide a method and apparatus for manufacturing an electric wire, capable of easily changing a color applied to the electric wire. The electric wire manufacturing apparatus intends to manufacture an electric wire composed of a core and a cladding. In step S1, the core is supplied from a supply unit. In step S2, in an extrusion cladding unit, the outer periphery of the core is coated with non-color synthetic resin by extrusion cladding to form the cladding. In step S3, the outer surface of the cladding is colored by a coloring unit. The coloring unit includes a plurality of sprayers 15 and 16. In step S3, the sprayers 15 and 16 are exchanged to operate as necessary. In step S4, in a take-up unit, the electric wire is cut into segments each having a desired length, which are wound around a drum.

A first marking 20 and a second marking 30, indicating a connection form, are provided on a covering sheath 11 at a connection position of a first wire 10 serving as a main wire. Therefore, an operation is carried out at a region between the first marking 20 and the second marking 30 of the first wire 10 according to an operation form indicated by the second marking 30. Therefore, the predetermined form of operation can be carried out errorlessly at the predetermined position of the first wire 10 without consulting a manual or the like.

A physical quantity sensor includes: a fixing part; an elastic deforming part; a movable weight part coupled to the fixing part via the elastic deforming part; a fixed arm part extended from the fixing part; and a movable arm part extended from the movable weight part and provided to face the fixed arm part via a gap, wherein the fixed arm part and the movable arm part are laminated structures containing insulating layers and conductor layers, the fixed arm part has a first side surface conductor film provided on a side surface of the fixed arm part and a first connecting electrode part using the conductor layer and electrically connected to the first side surface conductor film, and the movable arm part has a second side surface conductor film provided on aside surface opposed to the first side surface conductor film and a second connecting electrode part using the conductor layer and electrically connected to the second side surface conductor film.

The invention discloses production equipment for a dual-color insulated wire, which consists of a horizontal plastic extruding machine and a vertical stripping extrusion machine. The horizontal plastic extruding machine comprises a machine body, a machine head body and a mold. A main material input hole is arranged on the machine head body. The machine body is connected with the main material input hole of the machine head body. The mold comprises a mold core seat, a mold sleeve, a mold core, a flue dispensing body and an outer mold. A pigment input hole is arranged in the radial direction ofthe highest radial position of the external surface of the front part of the mold sleeve. A pigment filling opening which is communicated with the pigment input hole is arranged at the highest radialposition of the external surface of the front part of the outer mold. A pigment trench which is communicated with the inner cavity of the outer mold is arranged on the external surface of the outer mold. A pigment output through hole is arranged in the axial direction of the center of the bottom surface of a spiral drum. A stripping extrusion nozzle which is abutted with the pigment input hole ofthe mold sleeve is connected onto the pigment output through hole. A through hole is arranged in the radial direction of the bottom surface of the spiral drum. A bar-shaped change-over switch is inserted into the through hole. By turning the change-over switch, the pigment output through hole can be communicated with or isolated from the stripping extrusion nozzle.

The invention discloses an X-ETFE (crosslinked ethylene-tetrafluoroethylene) insulating wire or cable with spiral stripe identifications for aerospace and a preparation process for the insulating wire or cable. The preparation process for the insulating wire or cable includes steps of: printing spiral stripe identifications on an insulating layer of an X-ETFE insulating wire directly formed by a single insulating core wire; printing spiral stripe identifications on a sheath layer of an X-ETFE insulating cable formed by a single insulating core wire, a shielding layer and the sheath layer; printing spiral stripe identifications on an insulating layer and/or a sheath layer of an X-ETFE insulating cable formed by a plurality of insulating core wires, the shielding layer and the sheath layer; and printing spiral stripe identifications on an insulating layer and/or a sheath layer of an X-ETFE insulating cable formed by a plurality of insulating core wires and the sheath layer. The insulating core wires consist of conductors and the insulating layers which wrap the conductors. The X-ETFE insulating wire or cable with the spiral stripe identifications for aerospace is easy to be distinguished and identified, convenient to trace back and rapid in checking, and is beneficial to waste wire recovery. In addition, the X-ETFE insulating wire or cable with the spiral stripe identifications for aerospace has excellent high-temperature resistance, low-temperature resistance and radiation resistance, and the mechanical performance of the insulating layer is quite good.

The present invention provides electrical cables that can be surely discriminated from one another, even when only a part of an outer surface of each cable is exposed. An electrical cable 1 has an electrically conductive core 5 and a sheathing layer 6 covering the core 5. The sheathing layer 6 has an outer surface 6a with a mono-color. On the outer surface 6a, a first mark 7 and a second mark 8 are provided. At an end 1a of the cable 1, the first mark 7 is provided on a first outer surface 1b while the second mark 8 is provided on a second outer surface 1c positioned oppositely to the first surface 1b of the sheathing layer 6. On the first outer surface 1b, a plurality of the first and second marks 7, 8 are provided to be alternately positioned in a longitudinal direction of the cable 1. The first mark 7 has a first color R while the second mark 8 has a second color G different from the first color R. Desirable variation in hue of the first and second colors R, G allows discrimination of the cables 1 from each other.

The invention relates to a two-color cable sheath extruded mould with an improved structure, comprising a mould core unit (1) and a mould cover unit (2). The two-color cable sheath extruded mould with the improved structure is characterized by also comprising a mould sleeve unit (3), wherein a mould sleeve side wall (334) is provided with an injection molding hole (333) longitudinally passing through the mould sleeve side wall (334), and a mould sleeve hole (336) formed inside the mould sleeve side wall (334) is communicated with a mounting hole (331) on the front end surface (335) of the mould sleeve unit (3); the surface of the mould cover unit (2) is provided with a diffluent groove (33) and a color separation ring (23), and both of the diffluent groove (33) and the color separation ring (23) are provided with color separation holes (34) passing through the wall of a mould cover body (24) from top to bottom; the diffluent groove (33) and the color separation ring (23) are converged into the mould cover body (24), and the diffluent groove (33) and the color separation ring (23) both does not pass through the wall body of the mould cover body (24); the color separation ring (23) is spirally distributed along the surface of the mould cover body (24); and the inner surface of the mould sleeve side wall (334) is provided with a thread matched with screw teeth on the outer surface of the mould cover body (24). The invention has the advantages of simple structure, more even distribution of colored bands and more beautiful produced light, cables and pipelines and easy installing and debugging, and conforms to the principle of viscous body hydromechanics.

An electrical apparatus according to the present disclosure comprises a molded device having a molded portion and being formed via an overmolding process. The electrical apparatus includes a wire set at least partially overmolded within the device, the wire set having an outer sheath surrounding a plurality of wires. The molded portion surrounds a portion of the wire set. The electrical apparatus further includes polyurethane bonding material occurring between the outer sheath and the molded portion. The polyurethane bonding material bonds at least a portion of the wire set to the molded portion during the overmolding process.

A producing method of a suspension board with circuit includes simultaneously forming a conductive pattern formed on an insulating layer formed on a metal supporting board and having a terminal portion for connecting to an electronic component, and a mark formed on the metal supporting board, or on the insulating layer and having an opening for forming a reference hole for mounting the electronic component, and forming the reference hole by etching the metal supporting board disposed in the opening of the mark, or the insulating layer and the metal supporting board each disposed in the opening of the mark.

A composite superconducting wire and a method of manufacturing the wire is disclosed. Nano-particle dispersion strengthened copper is co-drawn with Niobium rod to produce DSC-1Nb wire. n numbers of DSC-1Nb wires are then stacked in a hollow DSC tube and drawn to form a DSC-n.Nb hexagonal wire. In a separate preliminary process, Tin rod is co-deformed with Copper tube to form a Cu-1Sn wire. m DSC-n Nb wires and 1 Cu-1Sn wires are then wrapped by Niobium foil and placed into a Copper tube. This entire assembly is then drawn to a finished size. The drawn composite is then subjected to heat treatment with a final stage at 650-700° C. for about 100 hours or longer. The new wire has higher electric critical current and higher mechanical strength than the controlled conventional ones.

An automated wire harness machine is capable of manufacturing a wire harness in an automated process. The wire harness is generally a plurality of bundled, preferably un-stripped, insulated wires. Each un-stripped end portion of each wire is preferably terminated by an electrical terminal in one of a series of electrical connectors of the wire harness. Each connector has at least one wafer which houses a plurality of terminals. The wire harness machine utilizes a pallet that holds all of the wafers of one wire harness. A conveyor transports the pallet and wafers through a series of stations which perform automated manufacturing steps. The first station is a terminal inserter which inserts and locks the terminals within pre-assigned cavities of the wafers. The next station is an automated wire loader which measures, cuts and crimps the two ends of each wire into the respective terminals of the loaded wafer assembly. A third station, or ultrasonic welder, then galls an un-stripped non-ferrous core of the crimped wire to the terminal. The pallet with the loaded wafers, crimped terminals, and terminated wires are then transported to a wire marker station which marks each wire, preferably via a laser, for identification purposes.

The invention discloses an inkjet printing identification process for a fluorine plastic sheath phase-stabilized cable. The process includes the first step of carrying out plasma treatment on a fluorine plastic sheath so that ink can be easily immersed in scattered molecular structures of treated materials, the second step of adopting an inkjet printer with high ink adhesive force to carry out inkjet printing on the surface of the fluorine plastic sheath of the fluorine plastic sheath phase-stabilized cable, and the third step of adopting an electric heater to heat and solidify ink inkjet printing identifications on the surface of the fluorine plastic sheath after inkjet printing is conducted on the surface of the fluorine plastic sheath of the fluorine plastic sheath phase-stabilized cable. A plasma treatment machine is utilized, so that ink is prone to adhering to the surface of the sheath of the fluorine plastic sheath phase-stabilized cable; the electric heater is used for heating and solidifying, so that firmness and productivity of the identifications are improved.

The apparatus for coloring a wire includes a plurality of coloring nozzles, each of which spouts a liquid coloring agent toward an outer surface of a wire with a specific amount thereof per spouting so as to allow the liquid drop of the coloring agent to adhere to the outer surface of the wire, thereby coloring the wire. The coloring agent adheres on the outer surface of the wire so as to form a spot. Each coloring nozzle includes an insert member for receiving the coloring agent therein and a nozzle member that communicates with the insert member. The length of the nozzle member is different from each other. The apparatus selects one coloring nozzle from a plurality of the coloring nozzles in response to the size of the spot to be formed on the outer surface of the wire and spouts the coloring agent.

The invention discloses a recognizable cable, an extrusion die and a manufacture method thereof. The recognizable cable is formed by extruding longitudinal color stripes with colors different from a body on the surface of a protective sleeve and/or an insulated layer so as to form an obvious identification mark on the surface of the cable and/or a cable core. The extrusion die is formed by arranging a circular shunt groove along the circumference of the die body and longitudinally arranging a pigment feeding groove which is communicated with the circular shunt groove; the die body is also longitudinally provided with an extrusion pigment groove communicated with the circular shunt groove, and an outlet is circularly provided with a pigment extrusion opening communicated with the extrusion pigment groove. The invention not only enables the color strips to be firmly clearly attached and be rapidly accurately identified and have high identification rate, but also keeps the physical mechanical performance of the protective sleeve and/or the insulated layer so as to have good economy, can directly identify various characteristics of the color strips, such as voltage stages, waterproofness, fireproofness, and the like, can add a black pigment to an insulated base pigment and overcomes the defect of carbon black addition incapability of the prior art so that a cable without a protective layer has weatherability and can be used for outdoor overhead laying.

The invention discloses a strip marked polyimide composite membrane wire and cable for aerospace, the wire and cable are characterized in that in terms of the strip marked polyimide composite membrane wire for aerospace formed directly by single insulation core wire, spiral strip marks are arranged on the insulation layer; in terms of the strip marked polyimide composite membrane cable for aerospace consisting of a single insulation core wire, a shielding layer and a sheath layer, spiral strip marks are arranged on the sheath layer; in terms of the strip marked polyimide composite membrane cable for aerospace consisting of multiple insulation core wires, a shielding layer and a sheath layer, spiral strip marks are arranged on the insulation layer and/or sheath layer; and in terms of the strip marked polyimide composite membrane cable for aerospace consisting of a plurality of insulation core wire and a sheath layer, the spiral strip marks are arranged on the insulation layer and/or sheath layer. The wire or cable provided by the invention is easily identified; the quality problem of the wire can be conveniently tracked; and meanwhile, the wire and cable provided by the invention have good mechanical performance, flame retardant performance and excellent radiation resistance.

The invention belongs to the technical field of cables and materials, and particularly relates to a luminous optical cable. The luminous optical cable comprises an optical cable core, a protective layer which wraps the optical cable core, and an inner protective layer which wraps the protective layer in an extrusion molding mode. The optical cable core is composed of a reinforcer located at the center of the optical cable core, a plurality of loose tubes which are distributed outside the reinforcer in parallel or in a twisted mode, and a binding layer which binds up the loose tubes. At least one light-guide fiber is arranged in each loose tube. The luminous optical cable is characterized in that a luminous layer is arranged outside the inner protective layer, the luminous layer is wrapped with a protection layer in an extrusion molding mode, the luminous layer wraps the inner protective layer integrally, and the protection layer is transparent. The invention further discloses the luminous optical cable and a method for manufacturing the luminous optical cable. The luminous optical cable and the method for manufacturing the luminous optical cable have the advantages that the product structure is simple, manufacturing is easy, the optical cable can be recognized in bright light and night light conveniently, and construction and maintenance are facilitated.