Cable core wire surface continuous treatment equipment

Abstract

The utility model relates to a continuous processing device, and provides a cable core wire surface continuous processing device which comprises a groove body, a shield, a console, a liquid discharge pipe, a transparent protection plate and the like. The whole tank body is in an L shape, a liquid discharging pipe is arranged on the lower right portion of the tank body, a protective cover is arranged on the top of the tank body, a plurality of windows are formed in the protective cover, transparent protective plates are rotationally arranged at the windows, the transparent protective plates seal the windows at the corresponding positions, and a control table is arranged on one side of the right portion of the tank body. According to the utility model, the processing procedures of spraying, rinsing, scrubbing, secondary spraying, drying and the like required by core wire processing are integrated in the same equipment, so that compared with the existing split processing equipment, the occupied area is reduced, the transfer distance and time of core wires among different processing equipment are remarkably shortened, and the production efficiency is improved. Secondary pollution and damage possibly generated in the transferring process are avoided, and the uniformity and consistency of core wire surface treatment are guaranteed.

Description

Technical Field

[0001] This utility model relates to a continuous processing device, and more particularly to a continuous surface processing device for cable cores. Background Technology

[0002] As a crucial component of cables, the surface quality of the core wire directly affects the cable's conductivity, insulation performance, and overall service life. Therefore, during cable manufacturing, processes such as spraying, rinsing, brushing, secondary spraying, and drying of the core wire surface to remove impurities, oxides, and lubricant residues are critical steps in ensuring cable performance. Current technologies often employ split-type equipment to complete these processes, using multiple independent devices to perform spraying, rinsing, brushing, secondary spraying, and drying. The core wire must be sequentially transferred between these devices for processing. This structural design, to a certain extent, meets basic processing requirements and facilitates independent maintenance and control of the equipment.

[0003] However, existing split-type processing equipment has many shortcomings in practical applications: First, the core wire needs to be repeatedly transferred between multiple machines, resulting in a cumbersome and time-consuming processing flow. Furthermore, it is susceptible to secondary contamination or mechanical damage during transfer, affecting the uniformity and consistency of the surface treatment effect. Second, due to the lack of close coordination between processes, continuous operation is difficult to achieve, leading to low production efficiency. Frequent operator intervention increases labor intensity and the risk of human error. Third, the split-type structure occupies a large space, resulting in high equipment investment and maintenance costs. These shortcomings not only limit further improvement in the surface treatment quality of the core wire but may also adversely affect the overall performance and market competitiveness of cable products. Utility Model Content

[0004] In order to overcome the shortcomings of the existing technology, the objective is to provide a continuous surface treatment device for cable cores.

[0005] The technical implementation scheme of this utility model is as follows: A continuous surface treatment device for cable cores includes a tank, a protective cover, a control console, a drain pipe, a transparent protective plate, a wire feeding roller 1, a wire feeding roller 2, a wire transfer roller, a cleaning tank, a wire feeding roller 3, a liquid transfer pipe, an ultrasonic module, a mounting plate, a wire transfer wheel, a mounting base, a cleaning roller, and a gear set. The tank is generally L-shaped, with a drain pipe located at its lower right and a protective cover at its top. The protective cover has several viewing windows, and each viewing window is rotatably equipped with a transparent protective plate, which closes the corresponding viewing window. A control console is located on the right side of the tank. A cleaning tank is installed on the right side of the tank. Wire feeding roller 1 is rotatably equipped on the left and right sides of the top of the cleaning tank, as well as on the left front and right sides of the top of the tank. Two wire transfer rollers are rotatably equipped on the left front of the tank, one of which is connected to a drive motor. Several wire feeding rollers 2 are rotatably equipped at intervals on both sides of the wire transfer roller on the left front of the tank. The cleaning tank is cone-shaped, wider at the top and narrower at the bottom. The lower left and right sides of the cleaning tank... The tank is symmetrically and rotatably equipped with at least one wire feeding roller three. Wire feeding roller one, two, and three have the same structure, each consisting of a rotating shaft and multiple rotating wheels arranged on the shaft. An ultrasonic module is installed on the cleaning tank. Two liquid transmission pipes are connected to the front of the cleaning tank, which are used for liquid injection and liquid drainage, respectively. An installation plate is fixed at the corner of the tank. The installation plate is equipped with multiple sets of wire transmission wheels, the same number as those on wire feeding roller one, two, and three. The wire transmission wheels are used to change the transmission direction of the core wire. Two mounting seats are fixed on the side of the tank near the installation plate. Two cleaning brush rollers are arranged vertically and rotatably between the mounting seats. A gear set is installed at one end of each of the two cleaning brush rollers. The gear set consists of two meshing gears. A drive motor is connected to the end of one of the cleaning brush rollers away from the gear set. Sprayers are installed on the right side and the left rear of the tank. Drying components are installed on the two transparent protective plates on the left front of the protective cover.

[0006] As an improvement to the above solution, the spraying components include a guide frame, a guide plate, a guide pipe, an inlet pipe, an arc-shaped support plate, a guide wheel, and a spray pipe. Guide frames are installed in the tank near the right side of the cleaning tank and in the front area near the cleaning roller. Guide plates are mounted on the guide frames. Both the guide plates and the guide frames have hollow interiors. The guide plates are connected to and connected to the inlet pipe. Multiple guide pipes are connected to and connected within the guide frames. Evenly spaced within the guide frames are the guide rollers and the spray pipes. The number of arc-shaped support plates on the two wire rollers and the three wire feeding rollers is the same. The arc-shaped support plates and the guide pipes are arranged in a crisscross pattern. The guide pipes are equipped with multiple spray pipes. The upper part of the spray pipes extends outward through the branch pipes to two liquid outlets. The spray pipes are distributed along the length of the guide pipes, and the arrangement direction of the spray pipes on each guide pipe is consistent with the arrangement direction of the arc-shaped support plates. The liquid outlets on both sides of each spray pipe correspond to two adjacent arc-shaped support plates. Multiple wire guide wheels are spaced apart inside the arc-shaped support plates.

[0007] As an improvement to the above scheme, each guide plate is equipped with two liquid inlet pipes, which are used to connect the spray liquid and the cleaning agent, respectively.

[0008] As an improvement to the above solution, the drying component includes a heat flow guide frame, an air inlet pipe, a flow valve, and a connecting hose. Two heat flow guide frames are provided on the two transparent protective plates at the front left side of the cover. The heat flow guide frames have cavities inside and air outlets are opened at their bottoms. Air inlet pipes are connected to and communicate with the heat flow guide frames. Flow regulating valves are provided on the air inlet pipes. A connecting hose is connected between the ends of the two air inlet pipes on the same side for connecting external heat flow. The heat flow enters from the connecting hose and is diverted into the two air inlet pipes.

[0009] As an improvement to the above solution, it also includes baffles and diverter plates. Baffles are provided at the air inlets of the air inlets in the guide frame to disperse the airflow entering the guide frame to both sides. Multiple diverter plates are provided at intervals at the air outlets of the guide frame to divide the air outlets of the guide frame into multiple sections. The top height of the diverter plates gradually increases towards the side away from the air inlet.

[0010] As an improvement to the above scheme, several drainage troughs are provided on the front left side of the tank, and the bottom of the tank is set as an inclined surface extending towards the drainage pipe to guide the liquid falling into the tank to flow towards the drainage pipe.

[0011] The beneficial effects of this utility model are: 1. This utility model integrates the processing steps such as spraying, rinsing, brushing, secondary spraying and drying required for core wire processing into the same equipment. Compared with the existing split processing equipment, it reduces the floor space and significantly shortens the transfer distance and time of core wire between different processing equipment, avoids secondary pollution and damage that may occur during the transfer process, and ensures the uniformity and consistency of the core wire surface treatment.

[0012] This invention disperses the airflow entering the airflow to both sides by setting a baffle in the airflow guide frame of the drying component, and optimizes the blowing direction and distribution of the heat flow by setting a flow divider at the air outlet, so that the heat flow acts evenly and reasonably on the area through which the core wire is transmitted.

[0013] This invention features two inlet pipes on a guide plate, which are respectively connected to spray liquid and cleaning agent. Under the control of the console, the injection volume and injection time of both can be flexibly adjusted, enhancing the equipment's adaptability and processing efficiency for core wire processing. Attached Figure Description

[0014] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0015] Figure 2 This is a three-dimensional structural diagram of the frame, cleaning tank, and cleaning roller of this utility model.

[0016] Figure 3 This is a three-dimensional structural diagram of the spray component of this utility model.

[0017] Figure 4 This is a three-dimensional structural diagram of the drying component of this utility model.

[0018] Figure 5 This is a planar sectional view of the present invention.

[0019] The components are as follows: 1: Tank body, 2: Protective cover, 21: Control console, 22: Drain pipe, 2200: Drain tank, 3: Transparent protective plate, 4: Wire feeding roller one, 41: Wire feeding roller two, 42: Wire transfer roller, 5: Cleaning tank, 51: Wire feeding roller three, 52: Liquid transfer pipe, 53: Ultrasonic module, 6: Mounting plate, 61: Wire transfer wheel, 7: Guide frame, 71: Guide plate, 711: Guide pipe, 72: Liquid inlet pipe, 73: Arc-shaped support plate, 74: Lead wire wheel, 75: Spray pipe, 8: Mounting base, 81: Cleaning roller, 82: Gear set, 92: Hot flow guide frame, 93: Air inlet pipe, 94: Flow valve, 95: Connecting hose. Detailed Implementation

[0020] The above-described solution will be further illustrated below with reference to specific embodiments. It should be understood that these embodiments are for illustrative purposes only and are not intended to limit the scope of this application. The implementation conditions used in the embodiments may be further adjusted according to the conditions of specific manufacturers, and the implementation conditions not specified are generally those in routine experiments.

[0021] A continuous surface treatment device for cable cores, such as Figure 1-5 As shown, the system includes a tank body 1, a protective cover 2, a control console 21, a drain pipe 22, a transparent protective plate 3, a first wire feeding roller 4, a second wire feeding roller 41, a wire transfer roller 42, a cleaning tank 5, a third wire feeding roller 51, a liquid transfer pipe 52, an ultrasonic module 53, a mounting plate 6, a wire transfer wheel 61, a mounting base 8, a lint roller, and a gear set 8. The tank body 1 is generally L-shaped and has a liquid collection tank. A drain pipe 22 is located on its lower right side. This drain pipe 22 is connected to an external liquid transfer component and is used to drain the liquid in the tank body 1. The tank body 1 is equipped with a protective cover 2 on the top. The front left and right ends of the protective cover 2 are provided with notches to allow the core wire to pass through, so that the core wire can smoothly enter the equipment for processing and pass out of the equipment after processing. The protective cover 2 has several viewing windows, and each viewing window is equipped with a transparent protective plate 3 that can be rotated. The transparent protective plate 3 can close the corresponding viewing window, which can facilitate the operator to observe the core wire processing inside the equipment, while effectively preventing liquid splashing or foreign matter from entering, and ensuring the safe operation of the equipment.

[0022] A control console 21 is located on the right side of the tank 1. The control console 21 mainly contains a controller (such as a programmable logic controller, PLC), a power supply module, input / output interfaces, and other components. The controller, as the core, is responsible for receiving commands input by the operator and signals from various sensors, and for precisely controlling other components within the equipment according to a preset program. The power supply module provides stable power to the control console and the electrical components of the entire equipment. The input / output interfaces are used to realize data transmission and interaction between the control console and external devices (such as motors, sensors, etc.) to enable real-time monitoring and control of the equipment's operating status. A cleaning tank 5 is installed on the right side of the tank body 1. The top left and right sides of the cleaning tank 5 and the top left front and right sides of the tank body 1 are rotatably equipped with wire feeding rollers 4. Two wire conveying rollers 42 are rotatably equipped on the left front of the tank body 1. The two wire conveying rollers 42 are arranged vertically and there is a wire conveying interval between the two wire conveying rollers 42. One of the wire conveying rollers 42 is connected to a drive motor. The drive motor is controlled by the control console 21 to start, stop and adjust the speed. When the drive motor is running, it drives the wire conveying roller 42 connected to it to rotate, and then drives the core wire forward through friction, so as to realize the stable delivery of the core wire in the equipment.

[0023] Several wire feeding rollers 41 are spaced apart and rotated on both sides of the wire feeding roller 42 at the front left of the tank 1. The wire feeding rollers 41, 41, and 51 have the same structure, consisting of a rotating shaft and multiple rotating wheels arranged on the shaft. This structure can be used to synchronously transmit multiple core wires, improving production efficiency. The cleaning tank 5 is cone-shaped with a larger top and a smaller bottom. At least one wire feeding roller 51 is symmetrically arranged and rotated on the left and right sides of the lower part of the cleaning tank 5. The cleaning tank 5 is equipped with an ultrasonic module 53, which is electrically connected to the control console 21 and is controlled by the control console 21 to turn on and off and adjust parameters such as power. When the ultrasonic module 53 is working, it emits high-frequency ultrasonic waves. The ultrasonic waves propagate in the cleaning liquid, causing the cleaning liquid to generate countless tiny bubbles. These bubbles vibrate, grow, and collapse rapidly under the action of ultrasonic waves, generating a powerful impact force, thereby effectively removing dirt and impurities from the surface of the core wires and greatly improving the cleaning effect.

[0024] Two liquid transfer pipes 52 are connected to the front of the cleaning tank 5. The two liquid transfer pipes 52 are used for liquid injection and liquid drainage respectively. The liquid injection pipe is connected to an external cleaning liquid supply source. Under the control of the control console 21, an appropriate amount of cleaning liquid is injected into the cleaning tank 5 in a timely manner according to the cleaning process requirements. The liquid drainage pipe discharges the waste liquid in the cleaning tank 5 to a designated collection point when cleaning is completed or when the cleaning liquid needs to be replaced, ensuring that the cleaning liquid always maintains good cleaning performance. An installation plate 6 is fixedly installed at the corner of the tank body 1. The installation plate 6 is equipped with multiple sets of wire transfer wheels 61 with the same number as those on the wire feeding roller 1 4, wire feeding roller 2 41 and wire feeding roller 3 51. Each set of wire transfer wheels 61 consists of two wire transfer rollers that are close to each other. The wire transfer wheels 61 are used to change the transmission direction of the core wire, so that the core wire transmitted on the right side of the tank body 1 is turned to the left side area and then transmitted, so that the core wire can be transmitted in an orderly manner in the equipment according to the predetermined path to complete each processing process.

[0025] Two mounting seats 8 are fixedly installed on the side of the tank 1 near the mounting plate 6. Two cleaning rollers 81 are arranged vertically and rotatably between the mounting seats 8. A gear set 82 is provided on one end of the two cleaning rollers 81. The gear set 82 consists of two meshing gears. A drive motor is connected to the end of one of the cleaning rollers 81 away from the gear set 82. The drive motor is also controlled by the control console 21. When the drive motor starts, it drives the cleaning roller 81 connected to it to rotate. Through the meshing transmission of the gear set 82, the other cleaning roller 81 also rotates synchronously in the opposite direction. The two cleaning rollers 81 rotate towards each other, brushing the surface of the core wire passing between them, further removing residual impurities on the surface of the core wire, and improving the cleanliness of the core wire surface. Spraying components are provided on the right side and the left rear part of the tank 1. Drying components are provided on the two transparent protective plates 3 on the left front part of the protective cover 2.

[0026] like Figure 2 and Figure 3 As shown, the spraying components include a guide frame 7, a guide plate 71, a guide pipe 711, an inlet pipe 72, an arc-shaped support plate 73, a guide wheel 74, and a spray pipe 75. Guide frames 7 are installed in the tank 1 near the right side of the cleaning tank 5 and in the front area near the cleaning roller 81. The guide frames 7 serve to support and guide the flow of liquid. A guide plate 71 is provided on the guide frame 7. Both the guide plate 71 and the guide frame 7 have hollow structures, allowing liquid to flow within them. An inlet pipe 72 is connected to and communicates with the guide plate 71, and each guide plate 71 has two inlet pipes 72, used to receive the spraying liquid and cleaning agent respectively. The inlet pipes 72 are connected to an external liquid supply device, and the corresponding supply device is connected to the control console 21 via a signal connection. Through the precise control of the control console 21, the injection volume and injection time of the two liquids can be flexibly adjusted to adapt to the treatment needs of different core wire materials and contamination levels.

[0027] Under the control of the console 21, the spray liquid and cleaning agent can be transported to the guide plate 71 through the liquid inlet pipe 72 according to the preset ratio and flow rate, and then flow into the guide frame 7. Multiple guide pipes 711 are connected and communicated in the guide frame 7 to evenly distribute the liquid to each spray position. Arc-shaped support plates 73 are evenly arranged in the guide frame 7 at intervals, with the same number of rollers as the first wire feed roller 4, the second wire feed roller 41 and the third wire feed roller 51. The arc-shaped support plates 73 and the guide pipes 711 are arranged in a cross shape. Multiple lead rollers 74 are evenly arranged in the arc-shaped support plates 73. During the transmission process, the core wires entering and exiting the arc-shaped support plates 73 pass over the top of the lead rollers 74, while the middle section is transmitted from the bottom of the lead rollers 74. This design can ensure the stable transmission of the core wires and make the core wires fully contact the liquid stored in the arc-shaped support plates 73 to achieve soaking and washing. The guide pipe 711 is provided with multiple spray pipes 75. The upper part of the spray pipe 75 extends outward through the branch pipe to two liquid outlets. The spray pipes 75 are distributed along the length of the guide pipe 711, and the arrangement direction of the spray pipes 75 on each guide pipe 711 is consistent with the arrangement direction of the arc-shaped support plate 73. The liquid outlets on both sides of each spray pipe 75 correspond to two adjacent arc-shaped support plates 73. The arc-shaped support plate 73 can store a certain amount of liquid. When the liquid flows into the guide pipe 711, it is sprayed out through the outlet of the spray pipe 75 to spray the core wire on the arc-shaped support plate 73 below. This allows the core wire to be not only soaked and washed in the arc-shaped support plate 73, but also to be sprayed and rinsed, further enhancing the cleaning effect. When the liquid in the arc-shaped support plate 73 accumulates to a certain amount, it will overflow from its top into the liquid collection tank of the tank body. Among them, the wire feeding roller 1 4, wire feeding roller 2 41 and wire feeding roller 3 51 are not connected to power components, and rely on their own rotation to transmit the wire. When the wire feeding roller 1 4 and wire feeding roller 2 41 transmit the wire, it is transmitted from above its upper rotating wheel, while the wire feeding roller 3 51 transmits the wire from below its rotating wheel. This transmission method is compatible with the overall layout of the equipment and the core wire processing flow, ensuring that the core wire can pass smoothly through each component and complete the processing at different stages.

[0028] like Figure 1 , Figure 4 and Figure 5As shown, the drying component includes a heat flow guide frame 92, an air inlet pipe 93, a flow valve 94, and a connecting hose 95. Two heat flow guide frames 92 are installed on the two frontmost transparent protective plates 3 on the left side of the cover 2. Each heat flow guide frame 92 has an internal cavity and an air outlet at its bottom. An air inlet pipe 93 is connected to each heat flow guide frame 92, and a flow regulating valve is installed on each air inlet pipe 93. A connecting hose 95 is connected between the ends of the two air inlet pipes 93 on the same side, used to connect to external heat flow. The heat flow enters through the connecting hose 95 and is distributed into the two air inlet pipes 93. Under the control of the control console 21, the flow rate and velocity of the heat flow entering the heat flow guide frame 92 can be precisely controlled by adjusting the flow regulating valve. The heat flow is blown out through the air outlet at the bottom of the heat flow guide frame 92, drying the core wire passing through this area, removing residual moisture from the core wire surface, ensuring the core wire surface is dry, and providing good conditions for subsequent processes.

[0029] Among them, such as Figure 4 As shown, it also includes baffles and diverter plates. Baffles are provided at the air inlets of the air inlets 93 inside the heat flow guide frame 92. The baffles disperse the airflow entering the heat flow guide frame 92 to both sides, so that the heat flow can be more evenly distributed in the heat flow guide frame 92. This avoids the airflow concentrating at the air outlet at the air inlet, which would cause local overheating or undercooling in the working area of ​​the drying component, thus improving the uniformity of the drying effect. Multiple diverter plates are provided at intervals at the air outlets of the heat flow guide frame 92. The diverter plates divide the air outlets of the heat flow guide frame 92 into multiple sections, and the height of the top of the diverter plates gradually increases towards the side away from the air inlet. This design can further optimize the blowing direction and distribution of the heat flow, so that the heat flow acts on the core wire surface at a more reasonable angle and intensity, accelerates moisture evaporation, and improves the drying efficiency.

[0030] Among them, such as Figure 5 As shown, several drainage troughs 2200 are provided on the front left side of the tank body 1. These drainage troughs 2200 can discharge the liquid accumulated in the drying area on the front left side of the tank body 1 into the collection trough of the tank body 1 in a timely manner, so as to avoid excessive liquid affecting the core wire transmission and processing effect. The bottom of the tank body 1 is set as an inclined surface extending towards the drainage pipe 22, which can guide the liquid falling into the tank body 1 to flow along the inclined surface to the drainage pipe 22, improve the efficiency and thoroughness of liquid discharge, and prevent liquid from remaining in the tank body 1.

[0031] The working principle of this utility model is as follows: When the wire is being transported, the core wire is introduced from the right side, passes through the spray unit on the right side, and enters the cleaning tank 5. Then, it is turned by the wire transfer wheel 61 and transported to the front left of the tank body 1. It first enters the cleaning roller 81 for brushing, then enters the spray unit again, and finally is transported forward into the working area of ​​the drying unit. The two spray units are used to spray the core wire before it enters the cleaning tank 5 and after it enters the roller brush, respectively.

[0032] First, the operator sets the operating parameters of each component of the equipment on the control panel 21 according to the material, specifications, and degree of contamination of the core wire, such as the power of the ultrasonic module 53, the injection volume and time of the cleaning fluid and spraying fluid, and the speed of each motor. The core wire is introduced from the right side of the equipment. Under the action of the wire conveying roller 42 or an external traction device, it first passes through the right-side spray component. At this time, the control panel 21 controls the inlet pipe 72 to inject the spraying liquid and cleaning agent into the guide plate 71 according to the preset ratio, and then distributes them to the spray pipe 75 through the guide pipe 711 to perform preliminary spray cleaning on the core wire, removing some surface impurities. Next, the core wire enters the cleaning tank 5. The wire feeding roller 51 rotates on its own driven by the core wire, so that the core wire is stably transmitted in the cleaning tank 5. At the same time, the control panel 21 starts the ultrasonic module 53. The cavitation effect generated by the ultrasonic waves in the cleaning fluid works together with the cleaning fluid to deeply clean the surface of the core wire. After cleaning, the core wire changes its transmission direction through the wire conveying wheel 61 and is transmitted to the front left of the tank 1. Afterwards, the core wire enters between the cleaning rollers 81. The drive motor starts under the control of the control panel 21, driving the cleaning rollers 81 to rotate and brush the surface of the core wire to further remove residual impurities. After brushing, the core wire re-enters the left spray unit for a second spray cleaning to ensure that the surface cleanliness of the core wire meets the requirements. Finally, the core wire enters the drying unit area. External heat flow enters the heat flow guide frame 92 through the connecting hose 95 and the air inlet pipe 93. Under the action of the baffle and the diverter plate, it is evenly and reasonably blown onto the core wire to dry the residual moisture on the surface of the core wire, completing the continuous treatment process of the entire cable core wire surface. Throughout the process, the drain pipe 22 and the liquid transfer pipe 52 discharge waste liquid and replenish new liquid in a timely manner to maintain the stability and suitability of the internal processing environment of the equipment.

[0033] Although the present invention has been described with reference to exemplary embodiments, it should be understood that the present invention is not limited to the disclosed exemplary embodiments. The scope of the following claims should be given the broadest interpretation in order to cover all variations and equivalent structures and functions.

Claims

1. A continuous surface treatment device for cable cores, comprising a tank (1), a cover (2), a control console (21), a drain pipe (22), and a transparent protective plate (3). The tank (1) is L-shaped in general, with a drain pipe (22) at its lower right and a cover (2) at its top. The cover (2) has several windows, and a transparent protective plate (3) is rotatably provided at each window. The transparent protective plate (3) closes the corresponding window. A control console (21) is provided on the right side of the tank (1). Its features are: It also includes a wire feeding roller 1 (4), a wire feeding roller 2 (41), a wire transfer roller (42), a cleaning tank (5), a wire feeding roller 3 (51), a liquid transfer pipe (52), an ultrasonic module (53), a mounting plate (6), a wire transfer wheel (61), a mounting base (8), a lint roller and a gear set (82). The cleaning tank (5) is installed on the right side of the tank body (1). The top left and right sides of the cleaning tank (5) and the top left front and right sides of the tank body (1) are rotatably equipped with a wire feeding roller 1 (4); the left front of the tank body (1) is rotatably equipped with two The wire conveying roller (42) is connected to a drive motor. Several wire feeding rollers (41) are spaced apart and rotated in the area on both sides of the wire conveying roller (42) in the front left part of the tank (1). The cleaning tank (5) is cone-shaped with a larger top and a smaller bottom. At least one wire feeding roller (51) is symmetrically arranged on the left and right sides of the lower part of the cleaning tank (5). The wire feeding rollers (4), (41), and (51) have the same structure, consisting of a rotating shaft and multiple rotating wheels arranged on the rotating shaft. The cleaning tank (5) is equipped with an ultrasonic module (53). The front of the cleaning tank (5) is connected to two liquid transfer pipes (52), which are used for liquid injection and liquid drainage respectively. An installation plate (6) is fixed at the corner of the tank body (1). The installation plate (6) is equipped with multiple sets of wire transfer wheels (61) of the same number as those on the wire feed roller 1 (4), wire feed roller 2 (41), and wire feed roller 3 (51). The wire transfer wheels (61) are used to change the transmission direction of the core wire. The tank body (1) is located near the installation plate (6). Two mounting seats (8) are fixed on the side. Two cleaning rollers (81) are arranged vertically and rotated between the mounting seats (8). A gear set (82) is provided on one end of the two cleaning rollers (81). The gear set (82) consists of two meshing gears. A drive motor is connected to the end of one of the cleaning rollers (81) away from the gear set (82). Spraying components are provided on the right side and the left rear of the tank (1). Drying components are provided on the two transparent protective plates (3) on the left front of the cover (2).

2. A continuous surface treatment device for cable core wires according to claim 1, wherein the spraying component includes a guide frame (7), a guide plate (71), a guide pipe (711), an inlet pipe (72), an arc-shaped support plate (73), a lead wheel (74), and a spray pipe (75). A guide frame (7) is installed in the tank (1) near the right side of the cleaning tank (5) and in the front part near the cleaning roller (81). A guide plate (71) is provided on the guide frame (7). Both the guide plate (71) and the guide frame (7) are hollow structures. An inlet pipe (72) is connected and communicated on the guide plate (71). Multiple guide pipes (711) are connected and communicated inside the guide frame (7). The guide frame (7) is evenly spaced. There is an arc-shaped support plate (73) with the same number of rollers on the first (4), second (41) and third (51) wire feeding rollers. The arc-shaped support plate (73) and the guide pipe (711) are arranged in a cross shape. The guide pipe (711) is provided with multiple spray pipes (75). The upper part of the spray pipe (75) extends outward through the branch pipe to two liquid outlets. The spray pipes (75) are distributed along the length direction of the guide pipe (711), and the arrangement direction of the spray pipes (75) on each guide pipe (711) is consistent with the arrangement direction of the arc-shaped support plate (73). The liquid outlets on both sides of each spray pipe (75) correspond to two adjacent arc-shaped support plates (73). Multiple lead rollers (74) are provided at intervals in the arc-shaped support plate (73).

3. A continuous surface treatment device for cable cores according to claim 2, characterized in that: Each guide plate (71) is equipped with two liquid inlet pipes (72), which are used to connect the spray liquid and the cleaning agent respectively.

4. A continuous surface treatment device for cable cores according to claim 3, characterized in that: The drying component includes a heat flow guide frame (92), an air inlet pipe (93), a flow valve (94), and a connecting hose (95). The two transparent protective plates (3) on the left front of the cover (2) are each equipped with a heat flow guide frame (92). The heat flow guide frame (92) has a cavity inside and an air outlet at its bottom. The heat flow guide frame (92) is connected to and connected to an air inlet pipe (93). The air inlet pipe (93) is equipped with a flow regulating valve. The ends of the two air inlet pipes (93) on the same side are connected to a connecting hose (95), which is used to connect external heat flow. The heat flow enters from the connecting hose (95) and is diverted to the two air inlet pipes (93).

5. A continuous surface treatment device for cable cores according to claim 4, characterized in that: It also includes baffles and diverter plates. Baffles are provided at the air inlet of the air inlet pipe (93) inside the guide frame (7). The baffles disperse the airflow entering the guide frame (7) to both sides. Multiple diverter plates are provided at the air outlet of the guide frame (7) at intervals. The diverter plates divide the air outlet of the guide frame (7) into multiple parts, and the top height of the diverter plates gradually increases towards the side away from the air inlet.

6. A continuous surface treatment device for cable cores according to claim 5, characterized in that: Several drainage troughs (2200) are provided on the left front of the tank (1). The bottom of the tank (1) is set as an inclined surface extending to the side of the drainage pipe (22) to guide the liquid falling into the tank (1) to flow to the drainage pipe (22).

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