A copper-based graphene composite conductor cable and production equipment

Abstract

The application discloses a copper-based graphene composite conductor cable and a production device, which comprise a raw material cleaning reaction kettle, a cleaning stirring structure, a drying drainage structure, a ball milling cylindrical barrel, a pouring drainage structure, a sintering box, an extrusion molding feeding structure, a hot melting wire drawing machine and a processing support, and relate to the technical field of copper-based graphene cable production. The copper powder is chemically cleaned by using solutions such as acetone and dilute hydrochloric acid, and surface impurities are effectively removed. The rotating stirring structure in the ball milling cylindrical barrel is used to realize uniform mixing of graphene powder and copper powder. The meshing design of the ball milling gear and the inner circular ring rack ensures fine control in the grinding process. The combination of the convex lifting support block and the rotating support ball provides stable lifting support, and the grinding is more uniform. The magnetic repulsion between the stirring repulsion circular ring electromagnet and the stirring repulsion circular ring magnet can flexibly adjust the stirring angle of the raw material cleaning reaction kettle, and meet the demand of multi-angle mixing and stirring cleaning.

Description

Technical Field

[0001] This invention relates to the field of copper-based graphene cable production technology, and in particular to a copper-based graphene composite conductor cable and its production equipment. Background Technology

[0002] Graphene is a novel material with a unique structure consisting of a single-layer two-dimensional honeycomb lattice formed by tightly packed carbon atoms linked in an sp² hybrid configuration. This material exhibits excellent optical, electrical, and mechanical properties, thus showing significant application potential in various fields such as materials science, micro / nano fabrication, energy, biomedicine, and drug delivery, and is considered a revolutionary material of the future. Among these, copper-based graphene powder is a composite material obtained by mixing copper powder and graphene and then processing them accordingly.

[0003] However, in practical applications of existing technologies, we have found some problems with the mixing process of copper powder and graphene. Due to the inconsistent particle size of graphene, the compatibility of the mixed copper powder and graphene is often poor, thus affecting the production efficiency of copper-based graphene powder. Furthermore, the parts manufactured during the production process are easily exposed to air, which may cause secondary contamination of the already cleaned raw materials. At the same time, prolonged storage also renders previous cleaning processes wasteful. While existing technologies may already offer solutions to these problems, this application aims to provide an alternative or replacement solution. Summary of the Invention

[0004] The technical solution of the present invention to achieve the above objectives is as follows: a copper-based graphene composite conductor cable production equipment, comprising: a raw material cleaning reaction vessel, a cleaning stirring structure, a drying and diversion structure, a ball mill cylindrical barrel, a tilting and diversion structure, a sintering box, an extrusion molding and feeding structure, a hot melt wire drawing machine, and a processing support. The raw material cleaning reaction vessel is installed on the processing support via the cleaning stirring structure. The ball mill cylindrical barrel is installed on the processing support via the tilting and diversion structure. The raw material cleaning reaction vessel is connected to the ball mill cylindrical barrel via the drying and diversion structure. The sintering box is connected to the processing support via the extrusion molding and feeding structure. The hot melt wire drawing machine is installed on the processing support. The tilting and drainage structure includes: a ball mill drive, a ball mill gear, a rotating inner cylindrical block, a horn-shaped unidirectional drainage block, a set of ring blocks, an inner ring rack, several concave arc blocks, several convex ring blocks, several rotating support balls, several convex lifting support blocks, several lifting support limit shafts, several lifting set springs, a pair of drainage drive shaft tubes, two pairs of angle electric push rods, tilting arc support blocks, several grinding support balls, and a driving drainage assembly; A plurality of concave arc blocks are evenly mounted on the processing support, and a plurality of convex annular blocks are evenly fitted onto the outer side of the ball mill cylindrical barrel. The convex annular blocks are also movably inserted into the inner side of the concave arc blocks. The ball mill drive is mounted on the processing support, and the ball mill gear is mounted on the drive end of the ball mill drive. The rotating inner annular block is inserted into the inner side of the rotating inner cylindrical block via a bearing. The horn-shaped one-way drainage block is mounted on the inner side of the rotating inner cylindrical block. The fitted annular block is fitted onto the outer side of the ball mill cylindrical barrel, and the inner annular rack is mounted on the inner side of the fitted annular block, with gear meshing between the inner annular rack and the ball mill gear. A plurality of convex ball mill telescopic grooves are respectively formed on the concave arc blocks, and a plurality of convex lifting support blocks are also provided. Several movably inserted into the inner sides of several convex ball mill telescopic grooves, several lifting support limiting shafts are movably inserted into the inner sides of several convex ball mill telescopic grooves, and several lifting support limiting shafts are movably inserted into several convex lifting support blocks, several rotating support balls are movably inserted into several convex annular blocks, a pair of flow-guiding drive tubes are inserted into the inner sides of the rotating inner cylindrical block, and a pair of flow-guiding drive tubes are inserted into the horn-shaped unidirectional flow-guiding block, two pairs of angle electric push rods are installed parallel to each other on the processing bracket, the inclined arc support block is installed on the pushing end of the two pairs of angle electric push rods, several grinding support balls are movably inserted into the inclined arc support block, and the drive flow-guiding assembly is installed on a pair of flow-guiding drive tubes.

[0005] Preferably, the cleaning and stirring structure includes: a pair of cleaning shaft tubes, a pair of cleaning drainage valves, a pair of L-shaped drainage shaft tubes, a horn-shaped drainage plate, a stirring and cleaning gearbox, a stirring and cleaning drive motor, a pair of arc-shaped cleaning sliders, a pair of arc-shaped cleaning slides, a stirring cleaner, two pairs of stirring repulsion ring electromagnets, two pairs of stirring repulsion ring magnets, and a pair of limiting arc shafts. The raw material cleaning reactor is mounted on the processing support via a pair of cleaning shaft tubes. A pair of cleaning drainage valves are respectively connected to the pair of cleaning shaft tubes. A pair of L-shaped drainage shaft tubes are respectively inserted into the inner side of the pair of cleaning shaft tubes via bearings. The horn-shaped drainage plate is installed on the L-shaped drainage shaft tube. The stirring cleaning gearbox is fitted onto the cleaning shaft tube. The stirring cleaning drive motor is installed on the stirring cleaning gearbox. A pair of arc-shaped cleaning slides are installed parallel to each other on the processing support. A pair of arc-shaped cleaning sliders... The stirring cleaner is installed on the inner side of the raw material cleaning reactor, and a pair of arc-shaped cleaning sliders are respectively movably inserted into the inner side of a pair of arc-shaped cleaning slides. The stirring cleaner is installed on the raw material cleaning reactor. A pair of limiting arc-shaped shafts are respectively inserted into a pair of arc-shaped cleaning slides, and a pair of limiting arc-shaped shafts are respectively movably inserted into a pair of arc-shaped cleaning sliders. Two pairs of stirring repulsion ring electromagnets are respectively installed on a pair of arc-shaped cleaning slides, and two pairs of stirring repulsion ring magnets are respectively installed on a pair of arc-shaped cleaning sliders.

[0006] Preferably, the drying and guiding structure includes: a toothed transport pipe, several J-shaped smoke guiding pipes, several sponge adsorption blocks, a collection box, several arc-shaped guiding blocks, a feeding threaded rod, several drying cylindrical magnets, several set ring blocks, several arc-shaped magnets, several arc-shaped metal sheets, several set bearing blocks, concave drying drive bearing blocks, a drying drive shaft, a drying drive motor, several drying gears, and several drying set ring racks; The toothed transport tubes are respectively connected to the L-shaped flow guide shaft tube and the flow drive shaft tube. Several J-shaped smoke guide tubes are evenly inserted into the toothed transport tubes. Several sponge adsorption blocks are respectively installed inside the several J-shaped smoke guide tubes. The collection box is fitted onto the several J-shaped smoke guide tubes. Several arc-shaped flow guide blocks are evenly installed inside the toothed transport tubes. The feeding threaded rod is inserted into the several arc-shaped flow guide blocks via bearings. Several drying cylindrical magnets are evenly fitted onto the feeding threaded rod, and several drying cylindrical magnets are movably inserted into the inside of the several arc-shaped flow guide blocks. The set of circular ring blocks are respectively fitted onto the outside of the toothed transport tube by a pair of set bearing blocks. Several arc magnets are respectively installed on several set of circular ring blocks. Several arc metal pieces are respectively inserted into several arc guide blocks and the toothed transport tube. The concave drying drive bearing block is installed on the toothed transport tube. The drying drive shaft is inserted into the concave drying drive bearing block. Several drying gears are evenly installed on the drying drive shaft. Several drying set ring racks are respectively fitted onto several set of circular ring blocks, and several drying set ring racks are respectively engaged with several drying gears.

[0007] Preferably, the extrusion molding feeding structure includes: a concave conveyor table, three chain plate conveyors, a pair of concave sealing blocks, a pair of convex sealing blocks, two pairs of sealing hydraulic push rods, a pair of triangular support blocks, an L-shaped feeding pipe, a feeding extrusion drive shaft, feeding push blades, a feeding extrusion drive machine, and an extrusion molding assembly. The sintering box is mounted on the concave transport platform. Three chain conveyors are evenly installed on the concave transport platform. A pair of triangular support blocks are installed on the concave transport platform, and the pair of triangular support blocks are located between the three chain conveyors. A pair of concave sealing blocks are installed inside the sintering box. A pair of convex sealing blocks are movably inserted into the inner side of the pair of concave sealing blocks. Two pairs of sealing hydraulic push rods are installed inside the pair of concave sealing blocks, and the pushing ends of the two pairs of sealing hydraulic push rods are respectively connected to the pair of convex sealing blocks. The L-shaped feeding pipe is inserted into the processing bracket, and the L-shaped feeding pipe is connected to the flow-driving shaft. The feeding extrusion drive shaft is inserted into the L-shaped feeding pipe. The feeding push blades are installed on the feeding extrusion drive shaft. The driving end of the feeding extrusion drive is connected to the feeding extrusion drive shaft. The extrusion forming assembly is installed on the processing bracket.

[0008] Preferably, the drive and diversion assembly includes: a pair of feeding valves, a feeding convex shaft tube, a ball mill arc block, a diversion spiral rod, a rotary ball mill drive motor, a rotary ball mill drive magnet disk, a rotary ball mill transmission magnet disk, and an arc metal rod; A pair of feeding valves are respectively installed on a pair of flow-driving shaft tubes. The feeding convex shaft tube is connected to the pair of flow-driving shaft tubes. The ball mill arc block is installed on the inner side of the feeding convex shaft tube. The flow-driving spiral rod is movably inserted into the ball mill arc block. The rotary ball mill drive is installed on the outer side of the ball mill cylindrical barrel. The rotary ball mill drive magnet disc is installed on the drive end of the rotary ball mill drive. A rotating groove is opened on the ball mill arc block. The rotary ball mill drive magnet disc is installed on the flow-driving spiral rod. The arc-shaped metal rod is inserted into the ball mill arc block and the ball mill cylindrical barrel.

[0009] Preferably, the extrusion molding assembly includes: a lifting concave extrusion block, two pairs of lifting extrusion electric push rods, two pairs of horizontal bidirectional extrusion adjusting threaded rods, two pairs of horizontal extrusion adjusting threaded tubes, a horizontal extrusion drive motor, a horizontal extrusion gear set, a pair of horizontal extrusion return blocks, two pairs of extrusion lifting bearing blocks, four pairs of lifting extrusion magnets, and a pair of lifting extrusion rollers. Two pairs of lifting and extruding electric push rods are installed parallel to each other on the processing bracket. The lifting concave extrusion block is installed on the pushing end of the two pairs of lifting and extruding electric push rods. The lifting concave extrusion block is provided with a pair of horizontal telescopic grooves. A pair of horizontal extrusion spiral blocks are respectively movably inserted into the inner side of the pair of horizontal telescopic grooves. Two pairs of horizontal extrusion adjusting threaded tubes are respectively inserted into the pair of horizontal extrusion spiral blocks. Two pairs of horizontal bidirectional extrusion adjusting threaded rods are respectively inserted into the inner side of the pair of horizontal telescopic grooves, and the two pairs of horizontal bidirectional extrusion adjusting threaded rods are respectively movably inserted into the inner side of the two pairs of horizontal extrusion adjusting threaded tubes. A pair of extrusion lifting support blocks are respectively movably inserted into the inner side of the pair of horizontal extrusion spiral blocks. Four pairs of lifting and extruding magnets are respectively installed on the pair of horizontal extrusion spiral blocks and the two pairs of extrusion lifting bearing blocks. A pair of lifting and extruding rollers are respectively installed on the two pairs of extrusion lifting bearing blocks.

[0010] Preferably, the processing support is equipped with a plurality of scanning cameras.

[0011] Preferably, the processing support is provided with a plurality of infrared transmitters and infrared receivers.

[0012] A copper-based graphene composite conductor cable includes: a protective sheath, a flame-retardant layer, a plurality of graphene cables, and a buffer structure. The flame-retardant layer is installed inside the protective sheath, and the plurality of graphene cables are installed inside the flame-retardant layer through the buffer structure. The buffer structure includes: several I-shaped diversion strips, a hexagonal inner insulating layer, a hexagonal outer insulating layer, and foamed polypropylene; The inner sides of several I-shaped diverter strips are respectively connected to the hexagonal inner insulating layer and the hexagonal outer insulating layer. The flame-retardant layer is installed on the hexagonal outer insulating layer. Several graphene cables are respectively movably inserted into the inner side of the hexagonal inner insulating layer. The foamed polypropylene is filled between several I-shaped diverter strips and the hexagonal inner insulating layer.

[0013] Preferably, the hexagonal inner insulating layer and the hexagonal outer insulating layer are made of rubber.

[0014] Compared with existing technologies, the copper-based graphene composite conductor cable and production equipment manufactured using the technical solution of this invention offer the following advantages: The copper powder is chemically cleaned using solutions such as acetone and dilute hydrochloric acid, effectively removing surface impurities; the rotating stirring structure within the ball mill cylindrical barrel achieves uniform mixing of graphene powder and copper powder; the meshing design of the ball mill gear and inner ring rack ensures precise control during the grinding process; the combination of the convex lifting support block and the rotating support ball provides stable lifting support, resulting in more uniform grinding; the magnetic repulsion of the stirring repulsion ring electromagnet and the stirring repulsion ring magnet allows for flexible adjustment of the stirring angle of the raw material cleaning reactor, meeting the needs of multi-angle mixing and cleaning; the combination of the drying drive motor and the drying gear enables rapid drying; and the toothed transport pipe and the arc-shaped guide... The design of the flow block ensures stable rotation and pushing of copper powder, while the sponge adsorption block inside the J-shaped smoke diversion pipe effectively absorbs moisture from the copper powder; the chain plate conveyor ensures stable transport of the mold; the combination of the convex sealing block and the triangular support block provides a good sealing effect; the design of the feeding extrusion drive and feeding push blades realizes effective feeding and extrusion molding of the mixed powder; the intelligent feeding, diversion and unloading process is realized by opening the feeding valves one by one; the combination of the rotary ball mill drive and the diversion screw ensures precise diversion and unloading of copper powder raw materials; the combination of two pairs of lifting extrusion electric push rods and lifting concave extrusion blocks provides a stable lifting extrusion effect; the design of the horizontal extrusion drive and the horizontal extrusion gear set realizes precise control and rotational crushing in the horizontal direction. Attached Figure Description

[0015] Figure 1 This is a front cross-sectional view of the copper-based graphene composite conductor cable and its production equipment as described in this invention.

[0016] Figure 2 This is a top cross-sectional view of the copper-based graphene composite conductor cable and its production equipment as described in this invention.

[0017] Figure 3This is a front cross-sectional view of the cleaning and stirring structure of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0018] Figure 4 This is a schematic front cross-sectional view of the drying and drainage structure of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0019] Figure 5 This is a schematic cross-sectional view of the tilting and diversion structure of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0020] Figure 6 This is a front cross-sectional view of the extrusion molding component of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0021] Figure 7 This is a top cross-sectional view of the cleaning and stirring structure of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0022] Figure 8 This is a top sectional view of the tilting and diversion structure of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0023] Figure 9 This is a side cross-sectional view of the tilting and diversion structure of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0024] Figure 10 This is a side cross-sectional view of the extrusion molding component of the copper-based graphene composite conductor cable and the production equipment described in this invention.

[0025] In the diagram: 1. Raw material cleaning reactor; 2. Ball mill cylindrical barrel; 3. Sintering box; 4. Processing support; 5. Cleaning stirring structure; 6. Drying and diversion structure; 7. Tilting and diversion structure; 8. Extrusion molding feeding structure; 101. Ball mill drive; 102. Ball mill gear; 103. Rotating inner cylindrical block; 104. Horn-shaped unidirectional diversion block; 105. Set ring block; 106. Inner ring rack; 107. Concave arc block; 108. Convex ring block; 109. Rotating support ball; 110. Convex lifting support block; 111. Lifting support limit shaft; 112. Lifting set spring; 113. Diversion drive shaft tube; 114. Angle Electric push rod; 115. Inclined arc support block; 116. Grinding support ball; 201. Cleaning shaft tube; 202. Cleaning drainage valve; 203. L-shaped drainage shaft tube; 204. Horn-shaped drainage plate; 205. Stirring and cleaning gearbox; 206. Stirring and cleaning drive motor; 207. Arc cleaning slider; 208. Arc cleaning slide; 209. Stirring cleaner; 210. Stirring repulsion ring electromagnet; 211. Stirring repulsion ring magnet; 212. Limiting arc shaft; 301. Toothed transport pipe; 302. J-shaped smoke drainage pipe; 303. Sponge adsorption block; 304. Collection box; 305. Arc drainage block; 306. Feeding device. Threaded rod; 307. Drying cylindrical magnet; 308. Set ring block; 309. Arc magnet; 310. Arc metal sheet; 311. Set bearing block; 312. Concave drying drive bearing block; 313. Drying drive shaft; 314. Drying drive machine; 315. Drying gear; 316. Drying set ring rack; 401. Concave conveyor table; 402. Chain plate conveyor; 403. Concave sealing block; 404. Convex sealing block; 405. Sealing hydraulic push rod; 406. Triangular support block; 407. L-shaped feeding pipe; 408. Feeding extrusion drive shaft; 409. Feeding push blade; 410. Feeding extrusion drive machine 501. Feeding valve; 502. Feeding convex shaft tube; 503. Ball mill arc block; 504. Drainage spiral rod; 505. Rotary ball mill drive motor; 506. Rotary ball mill drive magnet disc; 507. Rotary ball mill transmission magnet disc; 508. Arc metal rod; 601. Lifting concave extrusion block; 602. Lifting extrusion electric push rod; 603. Horizontal bidirectional extrusion adjusting threaded rod; 604. Horizontal extrusion adjusting threaded tube; 605. Horizontal extrusion drive motor; 606. Horizontal extrusion gear set; 607. Horizontal extrusion spiral block; 608. Extrusion lifting bearing block; 609. Lifting extrusion magnet; 610. Lifting extrusion roller. Detailed Implementation

[0026] Those skilled in the art should connect all electrical components and their compatible power supplies in this case via wires, and should select appropriate controllers according to actual conditions to meet control requirements. The specific connection and control sequence should refer to the working principle described below, where the electrical components are connected in sequence. The detailed connection methods are well-known in the art. The following mainly introduces the working principle and process, without explaining the electrical control. Example

[0027] like Figure 1-10 As shown, the raw material cleaning reactor 1 is mounted on the processing support 4 via the cleaning stirring structure 5, the ball mill cylindrical barrel 2 is mounted on the processing support 4 via the tilting and guiding structure 7, the raw material cleaning reactor 1 is connected to the ball mill cylindrical barrel 2 via the drying and guiding structure 6, the sintering box 3 is connected to the processing support 4 via the extrusion molding feeding structure 8, and the hot melt stretching machine is mounted on the processing support 4; Specifically, the tilting and drainage structure 7 includes: a ball mill drive 101, a ball mill gear 102, a rotating inner cylindrical block 103, a horn-shaped unidirectional drainage block 104, a fitted ring block 105, an inner ring rack 106, several concave arc blocks 107, several convex ring blocks 108, several rotating support balls 109, several convex lifting support blocks 110, several lifting support limiting shafts 111, several lifting fitted springs 112, a pair of drainage drive shaft tubes 113, two pairs of angle electric push rods 114, an inclined arc support block 115, several grinding support balls 116, and a driving and drainage assembly; Specifically, several concave arc blocks 107 are evenly installed on the processing support 4, several convex ring blocks 108 are evenly fitted onto the outer side of the ball mill cylindrical barrel 2, and several convex ring blocks 108 are respectively movably inserted into the inner side of several concave arc blocks 107. The ball mill drive 101 is installed on the processing support 4, the ball mill gear 102 is installed on the drive end of the ball mill drive 101, and the rotating inner ring block is inserted through bearings. Inside the rotating inner cylindrical block 103, the horn-shaped one-way flow guide block 104 is installed. The fitted ring block 105 is fitted onto the outer side of the ball mill cylindrical barrel 2. The inner ring rack 106 is installed inside the fitted ring block 105, and the inner ring rack 106 meshes with the ball mill gear 102. Several concave arc blocks 107 are respectively provided with several convex ball mill telescopic grooves, and several convex lifting... Support blocks 110 are movably inserted into the inner sides of several convex ball mill expansion grooves, several lifting support limiting shafts 111 are movably inserted into the inner sides of several convex ball mill expansion grooves, and several lifting support limiting shafts 111 are movably inserted into several convex lifting support blocks 110, several rotating support balls 109 are movably inserted into several convex annular blocks 108, and a pair of flow-guiding drive shaft tubes 113 are respectively inserted into the rotating inner... On the inner side of the cylindrical block 103, a pair of the flow-driving shaft tubes 113 are respectively inserted into the horn-shaped unidirectional flow-driving block 104, two pairs of the angle electric push rods 114 are installed in parallel on the processing bracket 4, the inclined arc support block 115 is installed on the pushing end of the two pairs of angle electric push rods 114, a number of the grinding support balls 116 are movably inserted into the inclined arc support block 115, and the drive flow-driving assembly is installed on a pair of the flow-driving shaft tubes 113; It should be noted that, as described above, the copper powder is chemically cleaned (using acetone and dilute hydrochloric acid) by the cleaning and stirring structure 5 inside the raw material cleaning reactor 1, cleaning the surface of the copper raw material. Then, the cleaned copper powder is dried and guided by the drying and guiding structure 6, flowing into the inner side of the ball mill cylindrical barrel 2. The inner side of the ball mill cylindrical barrel 2 is then mixed evenly by the tilting and guiding structure 7. The ball mill drive 101 operates, driving the ball mill gear 102 on its drive end to rotate, which in turn drives the corresponding gear. The meshing inner ring rack 106 rotates, driving the mounted ring block 105 to rotate. The rotation of the mounted ring block 105 mixes, stirs, and grinds the graphene powder and copper powder. Simultaneously, the bearing between the rotating inner cylindrical block 103 and the ball mill cylindrical barrel 2 prevents the rotating inner cylindrical block 103 from rotating due to the bearing. Furthermore, several lifting springs 112 on the inner side of several concave arc blocks 107 provide stable lifting and lowering along several lifting support limit shafts 111. Several lifting springs 112 drive the convex lifting support blocks 110 on them, causing the convex lifting support blocks 110 to rise and fall stably along the inner side of the concave arc block 107. At the same time, several rotating support balls 109 on the convex lifting support blocks 110 provide stable lifting and lowering support for the convex ring block 108. Thus, when the convex ring block 108 rotates, it is vertically lifted and lowered by several rising and falling rotating support balls 109. After grinding and stirring, the extension and retraction of two pairs of angle electric push rods 114 drive two pairs of angle electric push rods 114. The push rod 114 pushes the inclined arc support block 115 on the push end to move vertically up and down. The inclined arc support block 115 supports the vertical movement of the ball mill cylindrical barrel 2. At the same time, the ball mill cylindrical barrel 2 is supported vertically and rotated by several grinding support balls 116 on the inclined arc support block 115. Meanwhile, a pair of flow-guiding drive tubes 113 on the rotating inner cylindrical block 103 are used for rotation limit and loading / unloading limit. At the same time, the flow-guiding assembly guides the graphene powder and copper powder and the mixed raw materials along the pair of flow-guiding drive tubes 113.

[0028] like Figure 1-10 As shown, the cleaning and stirring structure 5 includes: a pair of cleaning shaft tubes 201, a pair of cleaning flow valves 202, a pair of L-shaped flow shaft tubes 203, a horn-shaped flow vane 204, a stirring and cleaning gearbox 205, a stirring and cleaning drive motor 206, a pair of arc-shaped cleaning sliders 207, a pair of arc-shaped cleaning slides 208, a stirring cleaner 209, two pairs of stirring repulsion ring electromagnets 210, two pairs of stirring repulsion ring magnets 211, and a pair of limiting arc shafts 212; Specifically, the raw material cleaning reactor 1 is inserted into the processing support 4 via a pair of cleaning shaft tubes 201, a pair of cleaning diversion valves 202 are respectively connected to the pair of cleaning shaft tubes 201, a pair of L-shaped diversion shaft tubes 203 are respectively inserted into the inner side of the pair of cleaning shaft tubes 201 via bearings, the horn-shaped diversion plate 204 is installed on the L-shaped diversion shaft tube 203, the stirring cleaning gearbox 205 is fitted onto the cleaning shaft tubes 201, the stirring cleaning drive motor 206 is installed on the stirring cleaning gearbox 205, and a pair of arc-shaped cleaning slides 208 are installed parallel to each other on the processing support 4. Slider 207 is installed on the inner side of the raw material cleaning reactor 1, and a pair of arc cleaning sliders 207 are movably inserted into the inner side of a pair of arc cleaning slides 208. The stirring cleaner 209 is installed on the raw material cleaning reactor 1. A pair of limiting arc shafts 212 are inserted into a pair of arc cleaning slides 208, and a pair of limiting arc shafts 212 are movably inserted into a pair of arc cleaning sliders 207. Two pairs of stirring repulsion ring electromagnets 210 are installed on a pair of arc cleaning slides 208, and two pairs of stirring repulsion ring magnets 211 are installed on a pair of arc cleaning sliders 207. It should be noted that, as described above, the copper powder raw material is fed into the inner side of the trumpet-shaped guide plate 204, which then guides the copper powder to the inner side of the L-shaped guide shaft tube 203. The cleaning guide valve 202 on the L-shaped guide shaft tube 203 is opened, thereby guiding the raw material into the inner side of the raw material cleaning reactor 1. The stirring and cleaning drive motor 206 operates, driving the stirring and cleaning gearbox 205 on its drive end. This drives the cleaning shaft tube 201 inside the stirring and cleaning gearbox 205 to rotate, which in turn drives the raw material cleaning reactor 1 to rotate. This causes the negative pressure cleaning reactor to rotate along the processing support 4. Simultaneously, two pairs of stirring and repulsion ring electromagnets 210 on the inner side of a pair of arc-shaped cleaning slides 208 magnetically repel two pairs of stirring and repulsion ring magnets 211. The two pairs of stirring and repulsion ring magnets 211 drive the arc-shaped cleaning sliders 207 on them, causing the arc-shaped cleaning sliders 207 to rotate along the inner side of the arc-shaped cleaning slides 208. This changes the angle of the raw material cleaning reactor 1, allowing the stirring angle of the stirrer 209 on the inner side of the raw material cleaning reactor 1 to be adjusted according to different needs, thereby achieving multi-angle mixing and cleaning (solutions such as acetone, dilute hydrochloric acid, ethanol, and deionized water).

[0029] like Figure 1-10As shown, the drying and guiding structure 6 includes: a toothed transport pipe 301, several J-shaped smoke guiding pipes 302, several sponge adsorption blocks 303, a collection box 304, several arc guiding blocks 305, a feeding threaded rod 306, several drying cylindrical magnets 307, several set ring blocks 105, several arc magnets 309, several arc metal sheets 310, several set bearing blocks 311, a concave drying drive bearing block 312, a drying drive shaft 313, a drying drive motor 314, several drying gears 315, and several drying set ring racks 316. Specifically, the toothed transport pipe 301 is connected to the L-shaped diversion shaft pipe 203 and the diversion drive shaft pipe 113 respectively. A plurality of J-shaped smoke diversion pipes 302 are evenly inserted into the toothed transport pipe 301. A plurality of sponge adsorption blocks 303 are respectively installed inside the plurality of J-shaped smoke diversion pipes 302. The collection box 304 is fitted onto the plurality of J-shaped smoke diversion pipes 302. A plurality of arc-shaped diversion blocks 305 are evenly installed inside the toothed transport pipe 301. The feeding threaded rod 306 is inserted into the plurality of arc-shaped diversion blocks 305 via bearings. A plurality of drying cylindrical magnets 307 are evenly fitted onto the feeding threaded rod 306, and the plurality of drying cylindrical magnets 307 are movably inserted into the inner side of the plurality of arc-shaped diversion blocks 305. The set of circular ring blocks 105 are respectively fitted onto the outside of the toothed transport tube 301 via a pair of set bearing blocks 311. A plurality of arc magnets 309 are respectively installed on a plurality of set of circular ring blocks 105. A plurality of arc metal pieces 310 are respectively inserted into a plurality of arc guide blocks 305 and the toothed transport tube 301. A concave drying drive bearing block 312 is installed on the toothed transport tube 301. A drying drive shaft 313 is inserted into the concave drying drive bearing block 312. A plurality of drying gears 315 are evenly installed on the drying drive shaft 313. A plurality of drying set ring racks 316 are respectively fitted onto a plurality of set of circular ring blocks 105, and the plurality of drying set ring racks 316 are respectively engaged with the plurality of drying gears 315. It should be noted that, as described above, the operation of the drying drive motor 314 drives the drying drive shaft 313 on the drive end of the drying drive motor 314 to rotate, causing the drying drive shaft 313 to rotate inside the concave drying drive bearing block 312. The drying drive shaft 313 drives several drying gears 315 to rotate, which in turn drives the drying kit ring rack 316 on it to rotate. The drying kit ring rack 316 drives the kit ring block 105 on it to rotate, causing the kit ring block 105 to rotate along the outside of the toothed transport tube 301 via several kit bearing blocks 311. The magnetic transmission of magnetic energy to several arc-shaped metal sheets is achieved through the arc magnets 309 on the several kit ring blocks 105. 310, through several arc-shaped metal plates 310, the drying cylindrical magnet 307 on the arc-shaped guide block 305 is rotated. The rotating drying cylindrical magnet 307 drives the feeding threaded rod 306 on it to rotate. Through several drying cylindrical magnets 307, the feeding threaded rod 306 on it is rotated. The graphene powder and copper powder inside the toothed transport pipe 301 are transported. Through the gap between the arc-shaped guide block 305 and the toothed transport pipe 301, the copper powder is stably rotated and pushed. At the same time, the sponge adsorption block 303 inside several J-shaped smoke guide pipes 302 on the toothed transport pipe 301 absorbs and guides the moisture inside the copper powder. At the same time, the moisture is guided to the inside of the collection box 304 by several sponge adsorption blocks 303.

[0030] like Figure 1-10 As shown, the extrusion molding feeding structure 8 includes: a concave conveyor table 401, three chain plate conveyors 402, a pair of concave sealing blocks 403, a pair of convex sealing blocks 404, two pairs of sealing hydraulic push rods 405, a pair of triangular support blocks 406, an L-shaped feeding pipe 407, a feeding extrusion drive shaft 408, a feeding push blade 409, a feeding extrusion drive machine 410, and an extrusion molding assembly; Specifically, the sintering box 3 is mounted on the concave transport platform 401, three chain conveyors 402 are evenly installed on the concave transport platform 401, a pair of triangular support blocks 406 are installed on the concave transport platform 401, and the pair of triangular support blocks 406 are located between the three chain conveyors 402, a pair of concave sealing blocks 403 are installed on the inner side of the sintering box 3, a pair of convex sealing blocks 404 are respectively movably inserted into the inner side of the pair of concave sealing blocks 403, and two pairs of sealing hydraulic push rods 405 are respectively installed on the pair of concave sealing blocks 403. On the inner side of 03, the pushing ends of the two pairs of sealing hydraulic push rods 405 are respectively connected to a pair of convex sealing blocks 404. The L-shaped feeding pipe 407 is inserted into the processing bracket 4 and connected to the flow driving shaft pipe 113. The feeding extrusion driving shaft 408 is inserted into the L-shaped feeding pipe 407. The feeding push blade 409 is installed on the feeding extrusion driving shaft 408. The driving end of the feeding extrusion driving machine 410 is connected to the feeding extrusion driving shaft 408. The extrusion forming assembly is installed on the processing bracket 4. It should be noted that, as described above, the upper mold is stably transported by three chain-plate conveyors 402. The sealing hydraulic push rod 405 inside the concave sealing block 403 extends and retracts, driving the convex sealing block 404 above it. This causes the convex sealing block 404 to rise and fall stably along the inner side of the concave sealing block 403, thereby pressing the convex sealing block 404 onto the triangular support block 406. Simultaneously, the feeding extrusion drive 410 operates, driving the feeding extrusion mechanism on its drive end. The drive shaft 408 causes the feeding extrusion drive shaft 408 to rotate stably along the inner side of the L-shaped feeding pipe 407. The feeding extrusion drive shaft 408 drives the feeding push blade 409 on it to rotate, thereby achieving the mixing of ball-milled graphene powder and copper powder raw materials onto the mold on the chain plate conveyor 402. The graphene powder and copper powder on the mold are extruded and molded by the extrusion molding component, and the mixed powder is pressed into shape. Then, sintering treatment is performed to densify the powder and form a copper-based graphene composite material.

[0031] like Figure 1-10 As shown, the drive and diversion assembly includes: a pair of feeding valves 501, a feeding convex shaft tube 502, a ball mill arc block 503, a diversion spiral rod 504, a rotary ball mill drive motor 505, a rotary ball mill drive magnet disc 506, a rotary ball mill transmission magnet disc 507, and an arc metal rod 508. Specifically, a pair of feeding valves 501 are respectively installed on a pair of flow-driving shaft tubes 113, the feeding convex shaft tube 502 is connected to the pair of flow-driving shaft tubes 113, the ball mill arc block 503 is installed on the inner side of the feeding convex shaft tube 502, the flow-driving spiral rod 504 is movably inserted into the ball mill arc block 503, the rotary ball mill drive motor 505 is installed on the outer side of the ball mill cylindrical barrel 2, the rotary ball mill drive magnet disc 506 is installed on the drive end of the rotary ball mill drive motor 505, the ball mill arc block 503 has a rotating groove, the rotary ball mill transmission magnet disc 507 is installed on the flow-driving spiral rod 504, and the arc metal rod 508 is inserted into the ball mill arc block 503 and the ball mill cylindrical barrel 2; It should be noted that, as described above, the feeding, diversion, and unloading effects are achieved by opening a pair of feeding valves 501 one by one. The operation of the rotary ball mill drive motor 505 drives the rotary ball mill drive magnet disk 506 on the drive end of the rotary ball mill drive motor 505 to rotate. The rotary ball mill drive magnet disk 506 transmits magnetism to the arc metal rod 508, which in turn transmits magnetism to the rotary ball mill drive magnet disk 507. The rotary ball mill drive magnet disk 507 drives the diversion spiral rod 504 on it to rotate, and the diversion spiral rod 504 diverts the copper powder raw material to the inside of the feeding convex shaft tube 502. Similarly, the mixed raw material is unloaded through the feeding convex shaft tube 502 on the other side.

[0032] like Figure 1-10 As shown, the extrusion molding assembly includes: a lifting concave extrusion block 601, two pairs of lifting extrusion electric push rods 602, two pairs of horizontal bidirectional extrusion adjusting threaded rods 603, two pairs of horizontal extrusion adjusting threaded pipes 604, a horizontal extrusion drive motor 605, a horizontal extrusion gear set 606, a pair of horizontal extrusion spiral blocks 607, two pairs of extrusion lifting bearing blocks 608, four pairs of lifting extrusion magnets 609, and a pair of lifting extrusion rollers 610; Specifically, two pairs of lifting and extruding electric push rods 602 are installed parallel to each other on the processing bracket 4. The lifting concave extrusion block 601 is installed on the pushing end of the two pairs of lifting and extruding electric push rods 602. The lifting concave extrusion block 601 has a pair of horizontal telescopic grooves. A pair of horizontal extrusion loop blocks 607 are respectively movably inserted into the inner side of the pair of horizontal telescopic grooves. Two pairs of horizontal extrusion adjusting threaded tubes 604 are respectively inserted into the pair of horizontal extrusion loop blocks 607. Two pairs of horizontal bidirectional extrusion adjusting threaded rods 603 Each pair of horizontal telescopic grooves is inserted into the inner side of the two pairs of horizontal bidirectional extrusion adjusting threaded rods 603, which are respectively movably inserted into the inner side of the two pairs of horizontal extrusion adjusting threaded tubes 604. Each pair of extrusion lifting support blocks is respectively movably inserted into the inner side of the two pairs of horizontal extrusion loop blocks 607. Four pairs of lifting extrusion magnets 609 are respectively installed on the two pairs of horizontal extrusion loop blocks 607 and the two pairs of extrusion lifting bearing blocks 608. Each pair of lifting extrusion rollers 610 are respectively installed on the two pairs of extrusion lifting bearing blocks 608. It should be noted that, as described above, the extension and retraction of two pairs of lifting and extruding electric push rods 602 drives the lifting concave extrusion block 601 to move stably up and down. The operation of the horizontal extrusion drive motor 605 on the lifting concave extrusion block 601 drives the horizontal extrusion gear set 606 on its drive end to rotate. The horizontal extrusion gear set 606 then drives the two pairs of horizontal adjusting threaded rods to rotate. These two pairs of horizontal adjusting threaded rods then drive the horizontal adjusting threaded tubes on them to rotate. Finally, these two pairs of horizontal adjusting threaded tubes drive the pair of horizontal extrusion return rods on them to rotate. The forming block 607 performs stable horizontal extension and retraction. By energizing two pairs of lifting and pressing electromagnets on the inner side of the horizontal pressing block 607, the two pairs of lifting and pressing electromagnets magnetically repel the two pairs of lifting and pressing magnets 609 on the two pairs of pressing and pressing bearing blocks 608, thereby changing the position of the two pairs of pressing and pressing bearing blocks 608 for adjustment. The two pairs of pressing and pressing bearing blocks 608 drive the lifting and pressing rollers 610 on them to perform stable lifting and pressing, thereby achieving the lifting and pressing of the mold by the pair of lifting and pressing rollers 610 and the horizontal rotation and rolling.

[0033] As a preferred option, the processing bracket 4 is further provided with a number of scanning cameras.

[0034] As a preferred option, the processing bracket 4 is further provided with several infrared transmitters and infrared receivers.

[0035] A copper-based graphene composite conductor cable includes: a protective sheath, a flame-retardant layer, a plurality of graphene cables, and a buffer structure. The flame-retardant layer is installed inside the protective sheath, and the plurality of graphene cables are installed inside the flame-retardant layer through the buffer structure. The buffer structure includes: several I-shaped diversion strips, a hexagonal inner insulating layer, a hexagonal outer insulating layer, and foamed polypropylene; The inner sides of several I-shaped diverter strips are respectively connected to the hexagonal inner insulating layer and the hexagonal outer insulating layer. The flame-retardant layer is installed on the hexagonal outer insulating layer. Several graphene cables are respectively movably inserted into the inner side of the hexagonal inner insulating layer. The foamed polypropylene is filled between several I-shaped diverter strips and the hexagonal inner insulating layer.

[0036] As a preferred embodiment, both the hexagonal inner insulating layer and the hexagonal outer insulating layer are made of rubber.

[0037] The above technical solutions only embody the preferred technical solutions of the present invention. Any modifications that may be made by those skilled in the art to certain parts thereof embody the principles of the present invention and fall within the protection scope of the present invention.

Claims

1. A production equipment for copper-based graphene composite conductor cables, comprising: The raw material cleaning reactor comprises a cleaning stirring structure, a drying and diversion structure, a ball mill cylindrical barrel, a tilting and diversion structure, a sintering box, an extrusion molding and feeding structure, a hot melt wire drawing machine, and a processing support. The raw material cleaning reactor is mounted on the processing support via the cleaning stirring structure; the ball mill cylindrical barrel is mounted on the processing support via the tilting and diversion structure; the raw material cleaning reactor is connected to the ball mill cylindrical barrel via the drying and diversion structure; the sintering box is connected to the processing support via the extrusion molding and feeding structure; and the hot melt wire drawing machine is mounted on the processing support. The tilting and drainage structure includes: a ball mill drive, a ball mill gear, a rotating inner cylindrical block, a horn-shaped unidirectional drainage block, a set of ring blocks, an inner ring rack, several concave arc blocks, several convex ring blocks, several rotating support balls, several convex lifting support blocks, several lifting support limit shafts, several lifting set springs, a pair of drainage drive shaft tubes, two pairs of angle electric push rods, tilting arc support blocks, several grinding support balls, and a driving drainage assembly; Several concave arc blocks are evenly installed on the processing support, several convex ring blocks are evenly fitted onto the outer side of the ball mill cylindrical barrel, and several convex ring blocks are movably inserted into the inner side of several concave arc blocks. The ball mill drive is installed on the processing support, the ball mill gear is installed on the drive end of the ball mill drive, the rotating inner ring block is inserted into the inner side of the rotating inner cylindrical block through a bearing, the horn-shaped one-way guide block is installed on the inner side of the rotating inner cylindrical block, the fitted ring block is fitted onto the outer side of the ball mill cylindrical barrel, the inner ring rack is installed on the inner side of the fitted ring block, and the inner ring rack meshes with the ball mill gear. Several convex ball mill telescopic grooves are respectively opened on several concave arc blocks, and several convex lifting support blocks are respectively... A plurality of convex ball mill expansion grooves are movably inserted into the inner side of a plurality of convex ball mill expansion grooves, and a plurality of lifting support limiting shafts are movably inserted into a plurality of convex lifting support blocks, a plurality of rotating support balls are movably inserted into a plurality of convex annular blocks, a pair of flow-guiding drive tubes are inserted into the inner side of the rotating inner cylindrical block, and a pair of flow-guiding drive tubes are inserted into the horn-shaped unidirectional flow-guiding block, two pairs of angle electric push rods are installed parallel to each other on the processing bracket, the inclined arc support block is installed on the pushing end of the two pairs of angle electric push rods, a plurality of grinding support balls are movably inserted into the inclined arc support block, and the drive flow-guiding assembly is installed on a pair of flow-guiding drive tubes; The cleaning and stirring structure includes: a pair of cleaning shaft tubes, a pair of cleaning flow valves, a pair of L-shaped flow shaft tubes, a horn-shaped flow vane, a stirring and cleaning gearbox, a stirring and cleaning drive motor, a pair of arc-shaped cleaning sliders, a pair of arc-shaped cleaning slides, a stirring cleaner, two pairs of stirring repulsion ring electromagnets, two pairs of stirring repulsion ring magnets, and a pair of limiting arc shafts. The raw material cleaning reactor is mounted on the processing support via a pair of cleaning shaft tubes. A pair of cleaning drainage valves are respectively connected to the pair of cleaning shaft tubes. A pair of L-shaped drainage shaft tubes are respectively inserted into the inner side of the pair of cleaning shaft tubes via bearings. The horn-shaped drainage plate is installed on the L-shaped drainage shaft tube. The stirring cleaning gearbox is fitted onto the cleaning shaft tube. The stirring cleaning drive motor is installed on the stirring cleaning gearbox. A pair of arc-shaped cleaning slides are installed parallel to each other on the processing support. A pair of arc-shaped cleaning sliders... The stirring cleaner is installed on the inner side of the raw material cleaning reactor, and a pair of arc-shaped cleaning sliders are respectively movably inserted into the inner side of a pair of arc-shaped cleaning slides. The stirring cleaner is installed on the raw material cleaning reactor. A pair of limiting arc-shaped shafts are respectively inserted into a pair of arc-shaped cleaning slides, and a pair of limiting arc-shaped shafts are respectively movably inserted into a pair of arc-shaped cleaning sliders. Two pairs of stirring repulsion ring electromagnets are respectively installed on a pair of arc-shaped cleaning slides, and two pairs of stirring repulsion ring magnets are respectively installed on a pair of arc-shaped cleaning sliders. The drying and guiding structure includes: a toothed transport pipe, several J-shaped smoke guiding pipes, several sponge adsorption blocks, a collection box, several arc-shaped guiding blocks, a feeding threaded rod, several drying cylindrical magnets, several set ring blocks, several arc magnets, several arc metal sheets, several set bearing blocks, concave drying drive bearing blocks, a drying drive shaft, a drying drive motor, several drying gears, and several drying set ring racks; The toothed transport tubes are respectively connected to the L-shaped flow guide shaft tube and the flow drive shaft tube. Several J-shaped smoke guide tubes are evenly inserted into the toothed transport tubes. Several sponge adsorption blocks are respectively installed inside the several J-shaped smoke guide tubes. The collection box is fitted onto the several J-shaped smoke guide tubes. Several arc-shaped flow guide blocks are evenly installed inside the toothed transport tubes. The feeding threaded rod is inserted into the several arc-shaped flow guide blocks via bearings. Several drying cylindrical magnets are evenly fitted onto the feeding threaded rod, and several drying cylindrical magnets are movably inserted into the inside of the several arc-shaped flow guide blocks. The set of circular ring blocks are respectively fitted onto the outside of the toothed transport tube by a pair of set of bearing blocks. Several arc magnets are respectively installed on several set of circular ring blocks. Several arc metal pieces are respectively inserted into several arc guide blocks and the toothed transport tube. The concave drying drive bearing block is installed on the toothed transport tube. The drying drive shaft is inserted into the concave drying drive bearing block. Several drying gears are evenly installed on the drying drive shaft. Several drying set of circular ring racks are respectively fitted onto several set of circular ring blocks, and several drying set of circular ring racks are respectively engaged with several drying gears. The extrusion molding feeding structure includes: a concave conveyor table, three chain plate conveyors, a pair of concave sealing blocks, a pair of convex sealing blocks, two pairs of sealing hydraulic push rods, a pair of triangular support blocks, an L-shaped feeding pipe, a feeding extrusion drive shaft, feeding push blades, a feeding extrusion drive machine, and an extrusion molding assembly. The sintering box is mounted on the concave transport platform. Three chain conveyors are evenly installed on the concave transport platform. A pair of triangular support blocks are installed on the concave transport platform, with the pair of triangular support blocks located between the three chain conveyors. A pair of concave sealing blocks are installed inside the sintering box. A pair of convex sealing blocks are movably inserted into the inner side of the pair of concave sealing blocks. Two pairs of sealing hydraulic push rods are installed inside the pair of concave sealing blocks, with the pushing ends of the two pairs of sealing hydraulic push rods connected to the pair of convex sealing blocks. The L-shaped feeding pipe is inserted into the processing bracket and connected to the flow-driving shaft. The feeding extrusion drive shaft is inserted into the L-shaped feeding pipe. The feeding pusher blades are installed on the feeding extrusion drive shaft. The driving end of the feeding extrusion drive is connected to the feeding extrusion drive shaft. The extrusion forming assembly is installed on the processing bracket.

2. The production equipment for copper-based graphene composite conductor cables according to claim 1, characterized in that, The drive and diversion assembly includes: a pair of feeding valves, a feeding convex shaft tube, a ball mill arc block, a diversion spiral rod, a rotary ball mill drive motor, a rotary ball mill drive magnet disk, a rotary ball mill transmission magnet disk, and an arc metal rod; A pair of feeding valves are respectively installed on a pair of flow-driving shaft tubes. The feeding convex shaft tube is connected to the pair of flow-driving shaft tubes. The ball mill arc block is installed on the inner side of the feeding convex shaft tube. The flow-driving spiral rod is movably inserted into the ball mill arc block. The rotary ball mill drive is installed on the outer side of the ball mill cylindrical barrel. The rotary ball mill drive magnet disc is installed on the drive end of the rotary ball mill drive. A rotating groove is opened on the ball mill arc block. The rotary ball mill drive magnet disc is installed on the flow-driving spiral rod. The arc-shaped metal rod is inserted into the ball mill arc block and the ball mill cylindrical barrel.

3. The production equipment for copper-based graphene composite conductor cables according to claim 2, characterized in that, The extrusion molding assembly includes: a lifting concave extrusion block, two pairs of lifting extrusion electric push rods, two pairs of horizontal bidirectional extrusion adjusting threaded rods, two pairs of horizontal extrusion adjusting threaded tubes, a horizontal extrusion drive motor, a horizontal extrusion gear set, a pair of horizontal extrusion return blocks, two pairs of extrusion lifting bearing blocks, four pairs of lifting extrusion magnets, and a pair of lifting extrusion rollers. Two pairs of lifting and extruding electric push rods are installed parallel to each other on the processing bracket. The lifting concave extrusion block is installed on the pushing end of the two pairs of lifting and extruding electric push rods. The lifting concave extrusion block is provided with a pair of horizontal telescopic grooves. A pair of horizontal extrusion spiral blocks are respectively movably inserted into the inner side of the pair of horizontal telescopic grooves. Two pairs of horizontal extrusion adjusting threaded tubes are respectively inserted into the pair of horizontal extrusion spiral blocks. Two pairs of horizontal bidirectional extrusion adjusting threaded rods are respectively inserted into the inner side of the pair of horizontal telescopic grooves, and the two pairs of horizontal bidirectional extrusion adjusting threaded rods are respectively movably inserted into the inner side of the two pairs of horizontal extrusion adjusting threaded tubes. A pair of extrusion lifting support blocks are respectively movably inserted into the inner side of the pair of horizontal extrusion spiral blocks. Four pairs of lifting and extruding magnets are respectively installed on the pair of horizontal extrusion spiral blocks and the two pairs of extrusion lifting bearing blocks. A pair of lifting and extruding rollers are respectively installed on the two pairs of extrusion lifting bearing blocks.

4. The production equipment for copper-based graphene composite conductor cables according to claim 3, characterized in that, The processing support is equipped with several scanning cameras.

5. The production equipment for copper-based graphene composite conductor cables according to claim 4, characterized in that, The processing support is equipped with several infrared transmitters and infrared receivers.

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