Annealing machine for copper wire processing

Abstract

The utility model discloses an annealing machine for copper wire processing. Comprising a rack, a pay-off heating assembly, a first guide assembly, a second guide assembly, a third guide assembly, a fourth guide assembly, a fifth guide assembly, a dehumidification assembly, an air drying assembly and a take-up assembly, wherein the pay-off heating assembly is mounted on the rack; the first guide assembly and the second guide assembly are mounted on the rack; the first guide assembly, the second guide assembly, the third guide assembly, the fourth guide assembly, the fifth guide assembly, the dehumidification assembly, the air drying assembly and the take-up assembly are sequentially arranged according to working procedures, the first guide assembly is located above the pay-off heating assembly, the rack is provided with a cooling tank, and the third guide assembly and the fourth guide assembly are located in the cooling tank; cooling liquid on the surface of the annealed copper wire can be removed in time through the dehumidification assembly, the surface of the copper wire can be completely dried with the assistance of the air drying assembly, it is avoided that the cooled copper wire is exposed for a long time to generate verdigris, and the quality of the copper wire is guaranteed.

Description

Technical Field

[0001] The utility model relates to the technical field of annealing machines, in particular to an annealing machine for copper wire processing. Background Art

[0002] Annealing is a metal heat treatment process, which means slowly heating the metal to a certain temperature, keeping it for a sufficient time, and then cooling it at an appropriate speed. The purpose is to reduce hardness, improve machinability, eliminate residual stress, stabilize size, reduce deformation and crack tendency, refine grains, adjust structure, and eliminate structural defects. In the production process of copper wire, the copper wire also needs to be annealed to enhance its performance. Nowadays, most annealing treatments are to heat treat the copper wire first, and then cool it to complete the annealing process. However, during the cooling process, liquid is generally used for cooling. After cooling, it needs to be reeled in. At this time, the copper wire will be pulled out of the coolant and exposed to the air. The copper wire stained with coolant is easily exposed to the air for a long time and easily reacts to generate verdigris, which reduces the quality of the copper wire. Utility Model Content

[0003] In order to solve the above problems, the utility model provides an annealing machine for copper wire processing, which is used to discharge the copper wire and heat the copper wire by arranging a wire-feeding heating component, and guide the copper wire for annealing and subsequent dehumidification and wire-winding by a first guide component, a second guide component, a third guide component, a fourth guide component and a fifth guide component, and the dehumidification component is used to remove the residual coolant on the surface of the copper wire after annealing, and the air-drying component is used to further air-dry the surface of the copper wire, and the wire-winding component is used to wind up the wire. The coolant on the surface of the copper wire after annealing can be removed in time by the dehumidification component, and the surface of the copper wire can be completely dried by the air-drying component, so as to avoid the copper wire stained with cooling from being exposed for a long time to produce verdigris, thereby ensuring the quality of the copper wire.

[0004] To achieve the above-mentioned purpose, the technical solution adopted by the utility model is to provide an annealing machine for copper wire processing, including a frame installed on the frame, a wire-laying heating component, a first guide component and a second guide component installed on the frame, a third guide component and a fourth guide component installed on the frame, a fifth guide component and a dehumidification component installed on the frame, an air-drying component and a wire-receiving component installed on the frame, the first guide component, the second guide component, the third guide component, the fourth guide component, the fifth guide component, the dehumidification component, the air-drying component and the wire-receiving component are arranged in sequence according to the process, the first guide component is located above the wire-laying heating component, the frame is provided with a cooling trough, and the third guide component and the fourth guide component are located in the cooling trough.

[0005] As a preferred solution, the wire pay-off heating assembly includes a wire pay-off roller placed on the frame and a heating box installed on the frame. The frame is provided with a wire pay-off groove, and front placement grooves are arranged on both sides of the frame. The wire pay-off roller has a first wire pay-off area and a second wire pay-off area arranged at intervals. The heating box is provided with a first wire passing hole and a second wire passing hole. The front placement groove communicates with the wire pay-off groove. The wire pay-off roller is located in the wire pay-off groove, and both ends of the wire pay-off roller are rotatably placed in the front placement grooves on both sides respectively. The front placement groove is arranged in an inclined shape. The first wire passing hole is located above the first wire pay-off area, and the second wire passing hole is located above the second wire pay-off area.

[0006] As a preferred solution, the first guiding assembly includes a first front guiding pillar and a first rear guiding pillar installed on the frame, a first guiding shaft, a first guiding front wheel and a first guiding rear wheel installed on the first guiding shaft. One end of the first guiding shaft is rotatably installed on the first front guiding pillar, and the other end of the first guiding shaft is rotatably installed on the first rear guiding pillar. The first guiding front wheel is located above the first wire passing hole, and the first guiding rear wheel is located above the second wire passing hole.

[0007] As a preferred solution, the second guiding assembly includes a second front guiding pillar and a second rear guiding pillar installed on the frame, a second guiding shaft, a second guiding front wheel and a second guiding rear wheel installed on the second guiding shaft. One end of the second guiding shaft is rotatably installed on the second front guiding pillar, and the other end of the second guiding shaft is rotatably installed on the second rear guiding pillar. The second guiding front wheel is arranged in a matching manner with the first guiding front wheel, and the second guiding rear wheel is arranged in a matching manner with the first guiding rear wheel.

[0008] As a preferred solution, the third guiding assembly includes a third guiding shaft, a third guiding front wheel and a third guiding rear wheel installed on the third guiding shaft. The frame is provided with a third front guiding groove and a third rear guiding groove. One end of the third guiding shaft is rotatably placed at the bottom of the third front guiding groove, and the other end of the third guiding shaft is rotatably placed at the bottom of the third rear guiding groove. The third guiding front wheel is arranged in a matching manner with the second guiding front wheel, and the third guiding rear wheel is arranged in a matching manner with the second guiding rear wheel.

[0009] As a preferred solution, the fourth guiding assembly includes a fourth guiding shaft, a fourth guiding front wheel and a fourth guiding rear wheel installed on the fourth guiding shaft. The frame is provided with a fourth front guiding groove and a fourth rear guiding groove. One end of the fourth guiding shaft is rotatably placed at the bottom of the fourth front guiding groove, and the other end of the fourth guiding shaft is rotatably placed at the bottom of the fourth rear guiding groove. The fourth guiding front wheel is arranged in a matching manner with the third guiding front wheel, and the fourth guiding rear wheel is arranged in a matching manner with the third guiding rear wheel.

[0010] As a preferred solution, the fifth guiding assembly includes a fifth front guiding strut and a fifth rear guiding strut mounted on the frame, a fifth guiding shaft, a fifth guiding front wheel and a fifth guiding rear wheel mounted on the fifth guiding shaft. One end of the fifth guiding shaft is rotatably mounted on the fifth front guiding strut, and the other end of the fifth guiding shaft is rotatably mounted on the fifth rear guiding strut. The fifth guiding front wheel is arranged in a matching manner with the fourth guiding front wheel, and the fifth guiding rear wheel is arranged in a matching manner with the fourth guiding rear wheel.

[0011] As a preferred solution, the dehumidifying assembly includes a dehumidifying frame mounted on the frame, a first lower dehumidifying cotton and a second lower dehumidifying cotton, a first dehumidifying cover and a second dehumidifying cover mounted on the dehumidifying frame, a first upper dehumidifying cotton and a second upper dehumidifying cotton. The dehumidifying frame is provided with a first lower dehumidifying groove and a second lower dehumidifying groove. The first dehumidifying cover is provided with a first upper dehumidifying groove matching the first lower dehumidifying groove, and the second dehumidifying cover is provided with a second upper dehumidifying groove matching the second lower dehumidifying groove. The first lower dehumidifying cotton is located in the first lower dehumidifying groove, the second lower dehumidifying cotton is located in the second lower dehumidifying groove, the first upper dehumidifying cotton is located in the first upper dehumidifying groove, and the second upper dehumidifying cotton is located in the second upper dehumidifying groove. The first dehumidifying cover and the second dehumidifying cover are both detachably mounted on the dehumidifying frame. The first lower dehumidifying groove is arranged in a matching manner with the fifth guiding front wheel, and the second lower dehumidifying groove is arranged in a matching manner with the fifth guiding rear wheel.

[0012] As a preferred solution, the air-drying assembly includes a first air-dryer and a second air-dryer mounted on the frame, and the first air-dryer and the second air-dryer are arranged corresponding to each other.

[0013] As a preferred solution, the wire-receiving assembly includes a wire-receiving shaft, a wire-receiving motor mounted on the frame, and a transmission belt. The wire-receiving shaft has a first wire-receiving area and a second wire-receiving area arranged at intervals. The frame is provided with a wire-receiving groove, and rear placing grooves are arranged on both sides of the frame. The rear placing grooves are communicated with the wire-receiving groove. The two ends of the wire-receiving shaft are respectively rotatably placed in the rear placing grooves on both sides. One end of the transmission belt is mounted on the output end of the wire-receiving motor, and the other end of the transmission belt is mounted on one end of the wire-receiving shaft. The first wire-receiving area is arranged in a matching manner with the first lower dehumidifying groove, and the second wire-receiving area is arranged in a matching manner with the second lower dehumidifying groove.

[0014] The beneficial effects of the present utility model are as follows: By providing a wire feeding and heating assembly for feeding copper wires and heating the copper wires, the first guiding assembly, the second guiding assembly, the third guiding assembly, the fourth guiding assembly, and the fifth guiding assembly are used to guide the copper wires for annealing and subsequent dehumidifying and wire winding. The dehumidifying assembly is used to remove the residual coolant on the surface of the copper wires after annealing, the air drying assembly is used to further dry the surface of the copper wires, and the wire winding assembly is used to wind the wires. The dehumidifying assembly can timely remove the coolant on the surface of the copper wires after annealing, and supplemented by the air drying assembly, the surface of the copper wires can be completely dried, avoiding the formation of verdigris due to the long-term exposure of the copper wires with cooling liquid adhered, thus ensuring the quality of the copper wires. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 FIG. is a schematic diagram of the overall structure of an annealing machine for copper wire processing according to the present utility model.

[0016] Figure 2 FIG. Figure 1 is a schematic diagram of the structure of the frame in an annealing machine for copper wire processing.

[0017] Figure 3 FIG. Figure 1 is a schematic diagram of the structure of the wire feeding and heating assembly in an annealing machine for copper wire processing.

[0018] Figure 4 FIG. Figure 1 is a schematic diagram of the structure of some components in an annealing machine for copper wire processing.

[0019] Figure 5 FIG. Figure 1 is a schematic diagram of the structure of the dehumidifying assembly in an annealing machine for copper wire processing.

[0020] Figure 6 FIG. Figure 1 is a schematic diagram of the structure of the air drying assembly in an annealing machine for copper wire processing.

[0021] Figure 7 FIG. Figure 1 is a schematic diagram of the structure of the wire receiving assembly in an annealing machine for copper wire processing.

[0022] Description of the attached reference numerals: a00, frame; a10, cooling tank; a20, wire pay-off tank; a30, front placement tank; a40, third front guiding groove; a50, third rear guiding groove; a60, wire take-up tank; a70, rear placement tank; 100, wire pay-off heating assembly; 110, wire pay-off roller; 111, first wire pay-off area; 112, second wire pay-off area; 120, heating box; 121, first wire passing hole; 122, second wire passing hole; 200, first guiding assembly; 210, first front guiding post; 220, first rear guiding post; 230, first guiding shaft; 240, first front guiding wheel; 250, first rear guiding wheel; 300, second guiding assembly; 310, second front guiding post; 320, second rear guiding post; 330, second guiding shaft; 340, second front guiding wheel; 350, second rear guiding wheel; 400, third guiding assembly; 410, third guiding shaft; 420, third front guiding wheel; 430, third rear guiding wheel; 500, fourth guiding assembly; 510, fourth guiding shaft; 520, fourth front guiding wheel; 530, fourth rear guiding wheel; 600, fifth guiding assembly; 610, fifth front guiding post; 620, fifth rear guiding post; 630, fifth guiding shaft; 640, fifth front guiding wheel; 650, fifth rear guiding wheel; 700, dehumidifying assembly; 710, dehumidifying rack; 711, first lower dehumidifying tank; 712, second lower dehumidifying tank; 720, first lower dehumidifying cotton; 730, second lower dehumidifying cotton; 740, first dehumidifying cover; 741, first upper dehumidifying tank; 750, second dehumidifying cover; 751, second upper dehumidifying tank; 760, first upper dehumidifying cotton; 770, second upper dehumidifying cotton; 800, air drying assembly; 810, first air dryer; 820, second air dryer; 900, wire take-up assembly; 910, wire take-up shaft; 911, first wire take-up area; 912, second wire take-up area; 920, wire take-up motor; 930, transmission belt. Detailed implementation mode

[0023] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are some, but not all, of the embodiments of the present utility model. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present utility model without creative efforts shall fall within the protection scope of the present utility model.

[0024] In the description of the present utility model, it should be noted that the orientation or positional relationship indicated by the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings. It is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present utility model. In addition, the terms "first", "second", "third" are only used for descriptive purposes and cannot be construed as indicating or implying relative importance.

[0025] In the description of the present utility model, it should be noted that unless otherwise clearly specified and defined, the terms "installation", "connection", "coupling" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium, and it can be the communication inside two elements. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific circumstances.

[0026] As Figures 1 to 7 shown, the present utility model provides an annealing machine for copper wire processing, which includes a frame a00, a wire feeding and heating assembly 100 installed on the frame a00, a first guiding assembly 200, a second guiding assembly 300, a third guiding assembly 400, a fourth guiding assembly 500, a fifth guiding assembly 600, a dehumidifying assembly 700, a drying assembly 800, and a wire winding assembly 900 installed on the frame a00. The first guiding assembly, the second guiding assembly, the third guiding assembly 400, the fourth guiding assembly, the fifth guiding assembly, the dehumidifying assembly 700, the drying assembly 800, and the wire winding assembly 900 are arranged in sequence according to the process. The first guiding assembly 200 is located above the wire feeding and heating assembly 100. The frame a00 is provided with a cooling tank a10, and the third guiding assembly 400 and the fourth guiding assembly 500 are located in the cooling tank a10. By setting the wire feeding and heating assembly 100 for feeding copper wire and heating the copper wire, the first guiding assembly 200, the second guiding assembly 300, the third guiding assembly 400, the fourth guiding assembly 500, and the fifth guiding assembly 600 are used for guiding the copper wire for annealing and subsequent dehumidifying and wire winding. The dehumidifying assembly 700 is used to remove the residual coolant on the surface of the annealed copper wire, the drying assembly 800 is used to further dry the surface of the copper wire, and the wire winding assembly 900 is used for wire winding. Through the dehumidifying assembly 700, the coolant on the surface of the annealed copper wire can be removed in time, and with the assistance of the drying assembly 800, the surface of the copper wire can be completely dried, avoiding the generation of verdigris due to the long-term exposure of the copper wire with coolant, and ensuring the quality of the copper wire.

[0027] The wire pay-off heating assembly 100 includes a wire pay-off roller 110 placed on a frame a00 and a heating box 120 installed on the frame a00. The frame a00 is provided with a wire pay-off groove a20, and front placement grooves a30 are arranged on both sides of the frame a00. The wire pay-off roller 110 has a first wire pay-off area 111 and a second wire pay-off area 112 arranged at intervals. The heating box 120 is provided with a first wire passing hole 121 and a second wire passing hole 122. The front placement groove a30 communicates with the wire pay-off groove a20. The wire pay-off roller 110 is located in the wire pay-off groove a20, and both ends of the wire pay-off roller 110 are rotatably placed in the front placement grooves a30 on both sides. The front placement groove a30 is arranged in an inclined shape. The first wire passing hole 121 is located above the first wire pay-off area 111, and the second wire passing hole 122 is located above the second wire pay-off area 112. During operation, the wire pay-off roller 110 wound with copper wires is placed in the wire pay-off groove a20. Since the wire pay-off roller 110 has the first wire pay-off area 111 and the second wire pay-off area 112, the wire pay-off roller 110 can pay off two groups of copper wires. The two groups of copper wires respectively pass through the first wire passing hole 121 and the second wire passing hole 122 and are guided by the first guiding assembly. When passing through the first wire passing hole 121 and the second wire passing hole 122, the heating box 120 can heat the copper wires, and the heated copper wires are sent to the first guiding assembly 200.

[0028] The first guiding assembly 200 includes a first front guiding pillar 210 and a first rear guiding pillar 220 installed on the frame a00, a first guiding shaft 230, a first guiding front wheel 240 and a first guiding rear wheel 250 installed on the first guiding shaft 230. One end of the first guiding shaft 230 is rotatably installed on the first front guiding pillar 210, and the other end of the first guiding shaft 230 is rotatably installed on the first rear guiding pillar 220. The first guiding front wheel 240 is located above the first wire passing hole 121, and the first guiding rear wheel 250 is located above the second wire passing hole 122. One group of copper wires is guided by the first guiding front wheel 240 to the second guiding assembly 300, and the other group of copper wires is guided by the first guiding rear wheel 250 to the second guiding assembly 300.

[0029] The second guiding assembly 300 includes a second front guiding pillar 310 and a second rear guiding pillar 320 installed on the frame a00, a second guiding shaft 330, a second guiding front wheel 340 and a second guiding rear wheel 350 installed on the second guiding shaft 330. One end of the second guiding shaft 330 is rotatably installed on the second front guiding pillar 310, and the other end of the second guiding shaft 330 is rotatably installed on the second rear guiding pillar 320. The second guiding front wheel 340 is arranged in a matching manner with the first guiding front wheel 240, and the second guiding rear wheel 350 is arranged in a matching manner with the first guiding rear wheel 250. One group of copper wires is guided by the second guiding front wheel 340 to the third guiding assembly 400, and the other group of copper wires is guided by the second guiding rear wheel 350 to the third guiding assembly 400.

[0030] The third guiding component 400 includes a third guiding shaft 410, a third guiding front wheel 420 and a third guiding rear wheel 430 mounted on the third guiding shaft 410. The machine frame a00 is provided with a third front guiding groove a40 and a third rear guiding groove a50. One end of the third guiding shaft 410 is rotatably placed at the bottom of the third front guiding groove a40, and the other end of the third guiding shaft 410 is rotatably placed at the bottom of the third rear guiding groove a50. The third guiding front wheel 420 is arranged in a matching manner with the second guiding front wheel 340, and the third guiding rear wheel 430 is arranged in a matching manner with the second guiding rear wheel 350. One group of copper wires is guided by the third guiding front wheel 420 to the fourth guiding component 500, and the other group of copper wires is guided by the third guiding rear wheel 430 to the fourth guiding component 500.

[0031] The fourth guiding component 500 includes a fourth guiding shaft 510, a fourth guiding front wheel 520 and a fourth guiding rear wheel 530 mounted on the fourth guiding shaft 510. The machine frame a00 is provided with a fourth front guiding groove and a fourth rear guiding groove. One end of the fourth guiding shaft 510 is rotatably placed at the bottom of the fourth front guiding groove, and the other end of the fourth guiding shaft 510 is rotatably placed at the bottom of the fourth rear guiding groove. The fourth guiding front wheel 520 is arranged in a matching manner with the third guiding front wheel 420, and the fourth guiding rear wheel 530 is arranged in a matching manner with the third guiding rear wheel 430. One group of copper wires is guided by the fourth guiding front wheel 520 to the fifth guiding component 600, and the other group of copper wires is guided by the fourth guiding rear wheel 530 to the fifth guiding component. Since the third guiding component 400 and the fourth guiding component 500 are located in the cooling tank a10, and there is coolant in the cooling tank a10, the coolant can cool and anneal the heated copper wires. After the annealing is completed, the copper wires are sent to the dehumidifying component 700 through the fifth guiding component 600 to remove the residual coolant on the surface of the copper wires.

[0032] The fifth guiding component 600 includes a fifth front guiding support column 610 and a fifth rear guiding support column 620 mounted on the machine frame a00, a fifth guiding shaft 630, a fifth guiding front wheel 640 and a fifth guiding rear wheel 650 mounted on the fifth guiding shaft 630. One end of the fifth guiding shaft 630 is rotatably installed on the fifth front guiding support column 610, and the other end of the fifth guiding shaft 630 is rotatably installed on the fifth rear guiding support column 620. The fifth guiding front wheel 640 is arranged in a matching manner with the fourth guiding front wheel 520, and the fifth guiding rear wheel 650 is arranged in a matching manner with the fourth guiding rear wheel 530. One group of copper wires is guided by the fifth guiding front wheel 640 to the dehumidifying component 700, and the other group of copper wires is guided by the fifth guiding rear wheel 650 to the dehumidifying component 700.

[0033] The dehumidifying component 700 includes a dehumidifying rack 710 installed on the rack a00, a first lower dehumidifying cotton 720 and a second lower dehumidifying cotton 730, a first dehumidifying cover 740 and a second dehumidifying cover 750 installed on the dehumidifying rack 710, a first upper dehumidifying cotton 760 and a second upper dehumidifying cotton 770. The dehumidifying rack 710 is provided with a first lower dehumidifying groove 711 and a second lower dehumidifying groove 712. The first dehumidifying cover 740 is provided with a first upper dehumidifying groove 741 matching the first lower dehumidifying groove 711, and the second dehumidifying cover 750 is provided with a second upper dehumidifying groove 751 matching the second lower dehumidifying groove 712. The first lower dehumidifying cotton 720 is located in the first lower dehumidifying groove 711, the second lower dehumidifying cotton 730 is located in the second lower dehumidifying groove 712, the first upper dehumidifying cotton 760 is located in the first upper dehumidifying groove 741, and the second upper dehumidifying cotton 770 is located in the second upper dehumidifying groove 751. The first dehumidifying cover 740 and the second dehumidifying cover 750 are both detachably installed on the dehumidifying rack 710. The first lower dehumidifying groove 711 is arranged in a matching manner with the fifth guiding front wheel 640, and the second lower dehumidifying groove 712 is arranged in a matching manner with the fifth guiding rear wheel 650. In this embodiment, the dehumidifying rack is provided with a plurality of first card slots and a plurality of second card slots. The first dehumidifying cover 740 has a plurality of first card columns, and the second dehumidifying cover 750 has a plurality of second card columns. The plurality of first card slots are arranged in a one-to-one matching manner with the plurality of first card columns, and the plurality of second card slots are arranged in a one-to-one matching manner with the plurality of second card columns. During dehumidification, a group of copper wires is located between the first lower dehumidifying cotton 720 and the first upper dehumidifying cotton 760, and another group of copper wires is located between the second lower dehumidifying cotton 730 and the second upper dehumidifying cotton 770. In this way, the two groups of copper wires can be dehumidified, so that the copper wires passing through the dehumidifying component 700 can remove the coolant on their surfaces. When the first lower dehumidifying cotton 720, the first upper dehumidifying cotton 760, the second lower dehumidifying cotton 730, and the second upper dehumidifying cotton 770 are used once, they need to be replaced. At this time, the first dehumidifying cover 740 and the second dehumidifying cover 750 are removed from the dehumidifying rack 710, and then the replacement can be carried out.

[0034] The air-drying component 800 includes a first air-dryer 810 and a second air-dryer 820 installed on the rack a00, and the first air-dryer 810 and the second air-dryer 820 are arranged correspondingly. There will still be extremely fine coolant adhering to the surface of the dehumidified copper wire. At this time, the first air-dryer 810 and the second air-dryer 820 blow against each other to dry the surface of the copper wire, making the surface of the copper wire dry.

[0035] The wire take-up assembly 900 includes a wire take-up shaft 910, a wire take-up motor 920 installed on the frame a00, and a transmission belt 930. The wire take-up shaft 910 has a first wire take-up area 911 and a second wire take-up area 912 which are spaced apart. The frame a00 is provided with a wire take-up groove a60, and rear placement grooves a70 are provided on both sides of the frame a00. The rear placement grooves a70 communicate with the wire take-up groove a60. The two ends of the wire take-up shaft 910 are respectively rotatably placed in the rear placement grooves a70 on both sides. One end of the transmission belt 930 is installed on the output end of the wire take-up motor 920, and the other end of the transmission belt 930 is installed on one end of the wire take-up shaft 910. The first wire take-up area 911 is arranged in a matching manner with the first lower dehumidification groove 711, and the second wire take-up area 912 is arranged in a matching manner with the second lower dehumidification groove 712. During processing, the wire take-up motor 920 operates to drive the wire take-up shaft 910 to rotate through the transmission belt 930, thereby driving the winding of the copper wire and the entire processing process of the copper wire. At the same time, the winding frequency and the entire processing frequency can be controlled by the frequency of the wire take-up motor 920.

[0036] The above embodiments are only descriptions of the preferred embodiments of the present invention, and do not limit the scope of the present invention. Without departing from the design spirit of the present invention, various deformations and improvements made by those of ordinary engineering and technical personnel in the art to the technical solutions of the present invention shall fall within the protection scope determined by the claims of the present invention.

Claims

1. An annealing machine for copper wire processing, characterized in that, It includes a wire pay-off and heating assembly mounted on the frame, a first guiding assembly, a second guiding assembly, a third guiding assembly, a fourth guiding assembly, a fifth guiding assembly, a dehumidifying assembly, a drying assembly and a wire take-up assembly mounted on the frame. The first guiding assembly, the second guiding assembly, the third guiding assembly, the fourth guiding assembly, the fifth guiding assembly, the dehumidifying assembly, the drying assembly and the wire take-up assembly are arranged in sequence according to the process. The first guiding assembly is located above the wire pay-off and heating assembly. The frame is provided with a cooling tank, and the third guiding assembly and the fourth guiding assembly are located in the cooling tank.

2. The annealing machine for copper wire processing according to claim 1, wherein: The wire pay-off and heating assembly includes a wire pay-off roller placed on the frame and a heating box mounted on the frame. The frame is provided with a wire pay-off groove, and front placement grooves are provided on both sides of the frame. The wire pay-off roller has a first wire pay-off area and a second wire pay-off area arranged at intervals. The heating box is provided with a first wire passing hole and a second wire passing hole. The front placement grooves communicate with the wire pay-off groove. The wire pay-off roller is located in the wire pay-off groove, and both ends of the wire pay-off roller are rotatably placed in the front placement grooves on both sides. The front placement grooves are arranged in an inclined shape. The first wire passing hole is located above the first wire pay-off area, and the second wire passing hole is located above the second wire pay-off area.

3. An annealing machine for copper wire processing according to claim 2, characterized in that: The first guiding assembly includes a first front guiding pillar and a first rear guiding pillar mounted on the frame, a first guiding shaft, a first guiding front wheel and a first guiding rear wheel mounted on the first guiding shaft. One end of the first guiding shaft is rotatably mounted on the first front guiding pillar, and the other end of the first guiding shaft is rotatably mounted on the first rear guiding pillar. The first guiding front wheel is located above the first wire passing hole, and the first guiding rear wheel is located above the second wire passing hole.

4. An annealing machine for copper wire processing according to claim 3, characterized in that: The second guiding assembly includes a second front guiding pillar and a second rear guiding pillar mounted on the frame, a second guiding shaft, a second guiding front wheel and a second guiding rear wheel mounted on the second guiding shaft. One end of the second guiding shaft is rotatably mounted on the second front guiding pillar, and the other end of the second guiding shaft is rotatably mounted on the second rear guiding pillar. The second guiding front wheel is arranged in a matching manner with the first guiding front wheel, and the second guiding rear wheel is arranged in a matching manner with the first guiding rear wheel.

5. The annealing machine for copper wire processing according to claim 4, wherein: The third guiding assembly includes a third guiding shaft, a third guiding front wheel and a third guiding rear wheel mounted on the third guiding shaft. The frame is provided with a third front guiding groove and a third rear guiding groove. One end of the third guiding shaft is rotatably placed at the bottom of the third front guiding groove, and the other end of the third guiding shaft is rotatably placed at the bottom of the third rear guiding groove. The third guiding front wheel is arranged in a matching manner with the second guiding front wheel, and the third guiding rear wheel is arranged in a matching manner with the second guiding rear wheel.

6. The annealing machine for copper wire processing according to claim 5, wherein: The fourth guiding component includes a fourth guiding shaft, a fourth front guiding wheel and a fourth rear guiding wheel mounted on the fourth guiding shaft. The frame is provided with a fourth front guiding groove and a fourth rear guiding groove. One end of the fourth guiding shaft is rotatably placed at the bottom of the fourth front guiding groove, and the other end of the fourth guiding shaft is rotatably placed at the bottom of the fourth rear guiding groove. The fourth front guiding wheel is arranged in a matching manner with the third front guiding wheel, and the fourth rear guiding wheel is arranged in a matching manner with the third rear guiding wheel.

7. An annealing machine for copper wire processing according to claim 6, characterized in that: The fifth guiding component includes a fifth front guiding pillar and a fifth rear guiding pillar mounted on the frame, a fifth guiding shaft, a fifth front guiding wheel and a fifth rear guiding wheel mounted on the fifth guiding shaft. One end of the fifth guiding shaft is rotatably mounted on the fifth front guiding pillar, and the other end of the fifth guiding shaft is rotatably mounted on the fifth rear guiding pillar. The fifth front guiding wheel is arranged in a matching manner with the fourth front guiding wheel, and the fifth rear guiding wheel is arranged in a matching manner with the fourth rear guiding wheel.

8. An annealing machine for copper wire processing according to claim 7, characterized in that: The dehumidifying component includes a dehumidifying frame mounted on the frame, a first lower dehumidifying cotton and a second lower dehumidifying cotton, a first dehumidifying cover and a second dehumidifying cover mounted on the dehumidifying frame, a first upper dehumidifying cotton and a second upper dehumidifying cotton. The dehumidifying frame is provided with a first lower dehumidifying groove and a second lower dehumidifying groove. The first dehumidifying cover is provided with a first upper dehumidifying groove matching the first lower dehumidifying groove, and the second dehumidifying cover is provided with a second upper dehumidifying groove matching the second lower dehumidifying groove. The first lower dehumidifying cotton is located in the first lower dehumidifying groove, the second lower dehumidifying cotton is located in the second lower dehumidifying groove, the first upper dehumidifying cotton is located in the first upper dehumidifying groove, and the second upper dehumidifying cotton is located in the second upper dehumidifying groove. The first dehumidifying cover and the second dehumidifying cover are both detachably mounted on the dehumidifying frame. The first lower dehumidifying groove is arranged in a matching manner with the fifth front guiding wheel, and the second lower dehumidifying groove is arranged in a matching manner with the fifth rear guiding wheel.

9. The annealing machine for copper wire processing according to claim 8, wherein: The air-drying component includes a first air-dryer and a second air-dryer mounted on the frame, and the first air-dryer and the second air-dryer are arranged correspondingly.

10. The annealing machine for copper wire processing according to claim 9, characterized in that: The wire-receiving component includes a wire-receiving shaft, a wire-receiving motor mounted on the frame, and a transmission belt. The wire-receiving shaft has a first wire-receiving area and a second wire-receiving area arranged at intervals. The frame is provided with a wire-receiving groove, and rear placement grooves are provided on both sides of the frame. The rear placement grooves are communicated with the wire-receiving groove. The two ends of the wire-receiving shaft are respectively rotatably placed in the rear placement grooves on both sides. One end of the transmission belt is mounted on the output end of the wire-receiving motor, and the other end of the transmission belt is mounted on one end of the wire-receiving shaft. The first wire-receiving area is arranged in a matching manner with the first lower dehumidifying groove, and the second wire-receiving area is arranged in a matching manner with the second lower dehumidifying groove.

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