Smelting temperature control method based on special-shaped copper strip

Abstract

The invention relates to the field of metal processing, and discloses a smelting temperature control method based on a special-shaped copper strip. The device comprises an operation main body table, a smelting main body shell is arranged on the upper surface of the operation main body table, a passage strip is fixedly connected to the upper surface, corresponding to the smelting main body shell, of the operation main body table, and a heating frame is fixedly connected to the upper surface, corresponding to the passage strip, of the operation main body table; the outer surface of the adjusting frame is movably connected with an infrared thermometer, the inner surface of the smelting main body shell corresponding to the heating frame is fixedly connected with a camera, the smelting main body shell is the main operation position of special-shaped copper strip smelting, the equipment drives the adjusting frame through a telescopic motor, and then the heating space between the heating frame and the adjusting frame is changed; the overall heating efficiency can be rapidly adjusted, the energy consumption and saving efficiency of the equipment is enhanced, the equipment collects the surface and internal temperature data of the copper strip in real time through the infrared thermometer, and the camera facilitates image observation of the real-time state of the special-shaped copper strip.

Description

Technical Field

[0001] This invention belongs to the field of metal processing technology, specifically a method for controlling the melting temperature of irregularly shaped copper strips. Background Technology

[0002] Shaped copper strips are copper strips processed into various shapes to meet specific needs, and are commonly used in the electrical, electronics, automotive, and communications industries. Compared to standard copper strips, shaped copper strips offer greater design flexibility, satisfying application scenarios with special requirements in terms of size, thickness, and shape. Through precise stamping and extrusion processes, shaped copper strips provide better electrical conductivity, corrosion resistance, and thermal conductivity, making them widely used in battery electrodes, wires, connectors, and various precision electrical equipment. Due to their special processing methods, shaped copper strips not only improve performance but also effectively save space, enhancing the overall functionality and reliability of the equipment.

[0003] The smelting process of irregularly shaped copper strips is not merely a physical transformation, but also the result of precise coordination of technology and processes. Each step requires meticulous planning and precise control to ensure that the final performance of the copper strip meets the needs of various applications. Raw material preparation before smelting must not only ensure the purity of the copper but also adjust the alloy composition according to the application requirements, giving the copper strip different properties. The stability of the temperature control system and the precise adjustment of the furnace temperature are the most critical technical requirements in the smelting process, as temperature fluctuations can lead to copper oxidation and even affect subsequent processing. The deoxidation and impurity removal processes are also indispensable, as this step directly affects the electrical conductivity and ductility of copper. Especially in high-end electronic and power equipment applications, the purity of copper is paramount. Every meticulous operation is aimed at ensuring that the final copper strip possesses excellent mechanical and electrical properties, meeting the industry's high requirements for materials.

[0004] Copper strip has wide applications in electronics, power, and communications, and its performance is closely related to temperature control during the smelting process. Irregularly shaped copper strips, due to their complex cross-sectional shapes, require even higher uniformity in smelting temperature. Existing smelting equipment mostly uses fixed heating elements and a single temperature control system, making it difficult to achieve uniform heating of irregularly shaped copper strips. This can easily lead to localized overheating or insufficient temperature, affecting material properties. Summary of the Invention

[0005] The purpose of this invention is to provide a method for controlling the melting temperature of irregularly shaped copper strips in order to solve the problems mentioned above.

[0006] The technical solution adopted in this invention is as follows: A method for controlling the melting temperature of irregularly shaped copper strips, comprising a main operating platform, a melting main shell disposed on the upper surface of the main operating platform, a telescopic motor fixedly connected to the inner surface of the melting main shell, a passage strip fixedly connected to the main operating platform corresponding to the upper surface of the melting main shell, a heating frame fixedly connected to the main operating platform corresponding to the upper surface of the passage strip, an adjusting frame movably sleeved on the inner surface of the heating frame, an infrared thermometer movably connected to the outer surface of the output end of the telescopic motor, a control circuit disposed on the inner surface of the melting main shell away from the heating frame, and a camera fixedly connected to the inner surface of the melting main shell corresponding to the heating frame.

[0007] By adopting the above technical solution, the main operating platform facilitates the installation of each component of the equipment. The outer shell of the smelting main body is the main operating position for smelting irregular copper strips. The equipment is driven by a telescopic motor to adjust the frame, thereby changing the heating space between the heating frame and the adjustment frame. This allows for rapid adjustment of the overall heating efficiency and enhances the energy efficiency of the equipment. The equipment uses an infrared thermometer to collect real-time temperature data of the copper strip surface and interior, and a camera facilitates real-time image observation of the irregular copper strip status.

[0008] In a preferred embodiment, a motor is fixedly connected to the upper surface of the main operating platform, and an active tooth is welded to the outer surface of the motor output end. A displacement chain is meshed with the outer surface of the active tooth.

[0009] By adopting the above technical solution, the rotation of the motor causes the active gear to rotate, which in turn meshes and drives the displacement chain to move. The protrusion of the displacement chain is stuck in the groove of the force block to complete the movement, thereby moving the support platform.

[0010] In a preferred embodiment, a driven tooth is rotatably connected to the inner surface of the running main platform, a displacement chain is movably connected to the outer surface of the driven tooth, and a pressure bar is provided on the inner surface of the running main platform away from the displacement chain.

[0011] By adopting the above technical solution, the driven tooth ensures the overall stable operation of the displacement chain, and the pressure bar abuts against the force block on the other side to ensure the movement effect of the bearing platform.

[0012] In a preferred embodiment, a force-bearing block is movably connected to the outer surface of the displacement chain, a heat insulation plate is fixedly connected to the upper surface of the force-bearing block, and a support platform is fixedly connected to the upper surface of the heat insulation plate.

[0013] By adopting the above technical solution, the groove corresponding to the force-bearing block is locked in the protrusion of the displacement chain to facilitate force application, thereby displacing the support platform. When the support platform is heated, the heat insulation plate insulates the force-bearing block, thus avoiding negative effects caused by heat energy.

[0014] In a preferred embodiment, a heating wire is fixedly connected to the upper surface of the support platform, an adjustment frame is movably connected to the side surface of the support platform, a contact piece is fixedly connected to the outer surface of the adjustment frame, and a contact piece is also fixedly connected to the corresponding position on the outer surface of the support platform.

[0015] By adopting the above technical solution, the irregular copper strip is placed on the support platform. There is a relatively equal length adjustment range between the support platform and the adjustment frame, which facilitates the relevant adjustment of irregular copper strips of different widths. After the passage is completed, the heating wire contacts the irregular copper strip and then heats it in this area.

[0016] In a preferred embodiment, a cooling shell is welded to the outer surface of the main operating platform corresponding to the outer surface of the smelting main shell, and a side baffle is movably connected to the outer surface of the main operating platform corresponding to the outer surface of the cooling shell.

[0017] By adopting the above technical solution, the cooling shell is cooled after the irregular copper strip is melted, and the side baffle is pulled open to facilitate the removal of the material.

[0018] In a preferred embodiment, a motor housing is welded to the outer surface of the operating main platform corresponding to the motor, a blower is fixedly connected to the outer surface of the operating main platform, the outer surface of the blower output end is connected to the cooling housing and the motor housing, and a channel switch is provided on the outer surface of the motor housing corresponding to the outer surface of the cooling housing.

[0019] By adopting the above technical solution, the blower blows external air to the cooling shell for cooling, and the channel switch opens to dissipate heat from the motor. The heat energy at the cooling shell is returned to the main smelting shell, which is convenient and energy-saving.

[0020] In a preferred embodiment, a feeding platform is welded to the outer surface of the main operating platform away from the cooling shell, a feeding cover plate is movably connected to the upper surface of the feeding platform, and a sealing block is movably connected to the side surface of the feeding platform.

[0021] By adopting the above technical solution, in the assembly line operation, heat energy is blown to the feeding platform to preheat the irregular copper strip. In single manual operation, the feeding cover is flipped over and the carrier platform is placed in the corresponding chute of the main operating platform and the feeding platform. When assembly line operation is required, the sealing block is removed and the relevant conveying mechanism is set up externally, and the corresponding carrier platform achieves full mechanical displacement.

[0022] In a preferred embodiment, a contact switch is provided on the upper surface of the feed platform corresponding to the feed cover plate, a control console is fixedly connected to the side surface of the feed platform, a display screen is fixedly connected to the upper surface of the control console, and buttons are provided on the upper surface of the control console.

[0023] By adopting the above technical solution, the control console electrically connects the various mechanical components of the equipment for corresponding control. The display screen outputs the images captured by the camera and displays various monitoring parameters such as the infrared thermometer. The equipment can be set by pressing the button. When operating manually, the contact switch indicates whether the feed cover is open or closed, which facilitates providing relevant warnings during cooling and heat dissipation.

[0024] A method for controlling the melting temperature of irregularly shaped copper strips includes the following steps: Step 1: Place the irregularly shaped copper strip on the support platform. There is a relatively fixed length adjustment range between the support platform and the adjustment frame, which facilitates the adjustment of irregularly shaped copper strips of different widths. Step 2: Adjust the equipment according to the actual situation. When operating manually, flip the feed cover plate and place the support platform in the corresponding chute of the main operating platform and the feed platform. The force block is pressed against the displacement chain. When assembly line operation is required, remove the sealing block and set up the relevant conveying mechanism on the outside. Step 3: The motor rotates and drives the displacement chain to move the force block, which in turn moves the support platform to the passage strip. The passage is completed by the contact plates on both sides contacting the passage strip, while the heating wire contacts the irregular copper strip to heat the area. The equipment is driven by the telescopic motor to adjust the frame, which changes the heating space between the heating frame and the adjustment frame. This allows for quick adjustment of the overall heating efficiency and enhances the energy efficiency of the equipment. Step 4: The equipment uses an infrared thermometer to collect real-time temperature data of the copper strip surface and interior, and a camera to facilitate real-time image observation of the irregular copper strip status. Step 5: The rotating motor carries the support platform out to the cooling shell for cooling. The blower blows outside air to the cooling shell for cooling. The channel switch is opened to dissipate heat from the motor. The heat energy at the cooling shell flows back to the main melting shell, which is convenient for energy saving. In the assembly line operation, the heat energy is blown to the feeding platform to preheat the shaped copper strip. This ensures slow heating and avoids the brittleness of the shaped copper strip caused by rapid heating, which can lead to uneven heat distribution, causing some areas to overheat while others are underheated. Poor internal stress will affect the mechanical properties of the finished copper strip.

[0025] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are: The main operating platform facilitates the installation of various equipment components. The outer shell of the smelting main body is the main operating position for smelting irregular copper strips. The equipment is driven by a telescopic motor to adjust the frame, thereby changing the heating space between the heating frame and the adjustment frame. This allows for rapid adjustment of the overall heating efficiency and enhances the energy efficiency of the equipment. The equipment uses an infrared thermometer to collect real-time temperature data of the copper strip surface and interior, and a camera facilitates real-time image observation of the irregular copper strip status. The rotating motor drives the displacement chain to engage and move the force block, thereby moving the support platform to the passage strip. The passage is completed by the contact plates on both sides contacting the passage strip, while the heating wire contacts the irregular copper strip to heat the area. The equipment is driven by a telescopic motor to adjust the frame, thereby changing the heating space between the heating frame and the adjustment frame. This allows for quick adjustment of the overall heating efficiency and enhances the energy efficiency of the equipment. The rotating motor pulls the support platform out to the cooling shell for cooling. A blower blows outside air onto the cooling shell for further cooling. The opening of the channel switch also dissipates heat from the motor, allowing the heat energy from the cooling shell to flow back to the main melting shell, facilitating energy saving. In assembly line operations, the heat energy is blown to the feeding platform to preheat the shaped copper strip, ensuring a slow heating rate and avoiding rapid heating that could damage the brittleness of the shaped copper strip, leading to uneven heat distribution, causing some areas to overheat while others remain too cold. Poor internal stress can affect the mechanical properties of the finished copper strip. Attached Figure Description

[0026] Figure 1 This is a front view of the device of the present invention; Figure 2 This is a reverse side view of the device in this invention; Figure 3 This is a side view of the device in this invention; Figure 4 This is a schematic diagram of the internal structure of the device in this invention; Figure 5 This is a schematic diagram of the internal structure of the main operating body in this invention; Figure 6 This is a schematic diagram of the external shape of the support platform in this invention; Figure 7 This is a diagram illustrating the equipment operation steps in this invention; Figure 8 This is a process flow diagram of the equipment in this invention.

[0027] The diagram shows the following components: 1. Main operating unit; 2. Melting main body shell; 3. Telescopic motor; 4. Heating frame; 5. Adjusting frame; 6. Infrared thermometer; 7. Passage bar; 8. Camera; 9. Motor; 10. Driving gear; 11. Driven gear; 12. Displacement chain; 13. Pressure bar; 14. Force block; 15. Heat insulation plate; 16. Support platform; 17. Adjusting frame; 18. Contact plate; 19. Heating wire; 20. Cooling shell; 21. Side baffle; 22. Motor shell; 23. Blower; 24. Channel switch; 25. Feeding platform; 26. Feeding cover plate; 27. Sealing block; 28. Control console; 29. ​​Display screen; 30. Button; 31. Contact switch. Detailed Implementation

[0028] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below in conjunction with the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0029] Example

[0030] Reference Figure 1-6 A method for controlling the melting temperature of irregularly shaped copper strips includes a main operating platform 1, a melting main shell 2 on the upper surface of the main operating platform 1, a telescopic motor 3 fixedly connected to the inner surface of the melting main shell 2, a passage strip 7 fixedly connected to the main operating platform 1 corresponding to the upper surface of the melting main shell 2, a heating frame 4 fixedly connected to the upper surface of the main operating platform 1 corresponding to the upper surface of the passage strip 7, an adjusting frame 5 movably sleeved on the inner surface of the heating frame 4, an infrared thermometer 6 movably connected to the outer surface of the output end of the telescopic motor 3, a control circuit installed on the inner surface of the melting main shell 2 away from the heating frame 4, and a camera 8 fixedly connected to the inner surface of the melting main shell 2 corresponding to the heating frame 4.

[0031] The main operating platform 1 facilitates the installation of various equipment components. The outer shell 2 of the smelting main body is the main operating position for smelting irregularly shaped copper strips. The equipment is driven by the telescopic motor 3 to adjust the frame 5, thereby changing the heating space between the heating frame 4 and the adjusting frame 5. This allows for rapid adjustment of the overall heating efficiency and enhances the energy efficiency of the equipment. The equipment uses an infrared thermometer 6 to collect real-time temperature data of the copper strip surface and interior. The camera 8 facilitates real-time image observation of the irregularly shaped copper strip status.

[0032] Reference Figure 1-6 A motor 9 is fixedly connected to the upper surface of the main operating platform 1. An active gear 10 is welded to the outer surface of the output end of the motor 9. A displacement chain 12 is meshed with the outer surface of the active gear 10.

[0033] The rotation of motor 9 causes the drive gear 10 to rotate, which in turn meshes and drives the displacement chain 12 to move. The protrusion of the displacement chain 12 is engaged in the groove of the force block 14 to complete the movement, thereby moving the support platform 16.

[0034] Reference Figure 1-6 The inner surface of the main running platform 1 is rotatably connected to a driven tooth 11, and the outer surface of the driven tooth 11 is movably connected to a displacement chain 12. A pressure bar 13 is provided on the inner surface of the main running platform 1 away from the displacement chain 12.

[0035] Driven tooth 11 ensures the overall stable operation of displacement chain 12, while pressure bar 13 abuts against force block 14 on the other side to ensure the movement effect of bearing platform 16.

[0036] Reference Figure 1-6 A force-bearing block 14 is movably connected to the outer surface of the displacement chain 12, a heat insulation plate 15 is fixedly connected to the upper surface of the force-bearing block 14, and a support platform 16 is fixedly connected to the upper surface of the heat insulation plate 15.

[0037] The groove corresponding to the force-bearing block 14 is engaged in the protrusion of the displacement chain 12 to facilitate force application, thereby displacing the support platform 16. The heat insulation plate 15 insulates against the force-bearing block 14 when the support platform 16 is heated, thereby avoiding negative effects caused by heat.

[0038] Reference Figure 1-6 A heating wire 19 is fixedly connected to the upper surface of the support platform 16, and an adjustment frame 17 is movably connected to the side surface of the support platform 16. A contact piece 18 is fixedly connected to the outer surface of the adjustment frame 17, and a contact piece 18 is also fixedly connected to the corresponding position on the outer surface of the support platform 16.

[0039] The irregular copper strip is placed on the support platform 16. There is a relatively long adjustment range between the support platform 16 and the adjustment frame 17, which facilitates the adjustment of irregular copper strips of different widths. After the passage is completed, the heating wire 19 contacts the irregular copper strip and heats it in this area.

[0040] Reference Figure 1-6 A cooling shell 20 is welded to one side of the outer surface of the main operating platform 1 corresponding to the outer surface of the main smelting shell 2, and a side baffle 21 is movably connected to the outer surface of the main operating platform 1 corresponding to the outer surface of the cooling shell 20.

[0041] The cooling shell 20 is used to cool the irregular copper strip after it has been melted. The side baffle 21 can be pulled open to facilitate the removal of the material.

[0042] Reference Figure 1-6 The main operating platform 1 has a motor housing 22 welded to the outer surface of the motor 9. A blower 23 is fixedly connected to the outer surface of the main operating platform 1. The outer surface of the output end of the blower 23 is connected to the cooling housing 20 and the motor housing 22. A channel switch 24 is provided on the outer surface of the motor housing 22 corresponding to the outer surface of the cooling housing 20.

[0043] The blower 23 blows air to the cooling shell 20 for cooling. The channel switch 24 is opened to dissipate heat from the motor 9. The heat energy at the cooling shell 20 is returned to the melting body shell 2, which is convenient and energy-saving.

[0044] Reference Figure 1-6The main operating platform 1 has a feeding platform 25 welded to the outer surface of the side away from the cooling shell 20. The upper surface of the feeding platform 25 is movably connected to the feeding cover plate 26, and the side surface of the feeding platform 25 is movably connected to the sealing block 27.

[0045] In assembly line operation, heat energy is blown to the feed platform 25 to preheat the irregular copper strip. In single manual operation, the feed cover 26 is flipped over and the support platform 16 is placed in the corresponding chute of the main operating platform 1 and the feed platform 25. When assembly line operation is required, the sealing block 27 is removed and the relevant conveying mechanism is set up externally, and the corresponding support platform 16 achieves full mechanical displacement.

[0046] Reference Figure 1-6 A contact switch 31 is provided on the upper surface of the feed platform 25 corresponding to the feed cover plate 26. A control console 28 is fixedly connected to the side surface of the feed platform 25. A display screen 29 is fixedly connected to the upper surface of the control console 28. A button 30 is provided on the upper surface of the control console 28.

[0047] The control console 28 electrically connects the various mechanical components of the equipment for corresponding control. The display screen 29 displays the image output after being captured by the camera 8, as well as various monitoring parameters such as the infrared thermometer 6. The equipment can be set by pressing the button 30. When operating manually, the contact switch 31 indicates whether the feed cover 26 is open or closed, so as to provide relevant warnings during cooling and heat dissipation.

[0048] A method for controlling the melting temperature of irregularly shaped copper strips includes the following steps: Step 1: Place the irregular copper strip on the support platform 16. There is a relatively long adjustment range between the support platform 16 and the adjustment frame 17, which facilitates the relevant adjustment of irregular copper strips of different widths. Step 2: Adjust the equipment according to the actual situation. When operating manually, flip the feed cover 26 and place the support platform 16 in the corresponding chute of the main running platform 1 and the feed platform 25. The force block 14 is pressed against the displacement chain 12. When assembly line operation is required, remove the sealing block 27 and set up the relevant conveying mechanism on the outside. Step 3: The rotation of motor 9 drives displacement chain 12 to engage and move force block 14, thereby moving bearing platform 16 to passage bar 7. The passage is completed by contacting passage bar 7 through contact plates 18 on both sides. Heating wire 19 contacts irregular copper strip to heat the area. The equipment is driven by telescopic motor 3 to adjust frame 5, thereby changing the heating space between heating frame 4 and adjusting frame 5. The overall heating efficiency can be quickly adjusted to enhance the energy efficiency of the equipment. Step 4: The equipment uses an infrared thermometer 6 to collect real-time temperature data of the copper strip surface and interior, and a camera 8 to facilitate real-time image observation of the irregular copper strip status. Step 5: The rotating motor 9 carries the support platform 16 out to the cooling shell 20 for cooling. The blower 23 blows air to the cooling shell 20 for cooling. The channel switch 24 is opened to dissipate heat from the motor 9. The heat energy at the cooling shell 20 is returned to the melting body shell 2, which is convenient for energy saving. In the assembly line operation, the heat energy is blown to the feeding platform 25 to preheat the shaped copper strip. This ensures slow heating and avoids the brittleness of the shaped copper strip caused by rapid heating, which can lead to uneven heat distribution, causing some areas to overheat while other areas are underheated. Poor internal stress will affect the mechanical properties of the finished copper strip.

[0049] The implementation principle of the smelting temperature control method based on irregularly shaped copper strips of the present invention is as follows: The main operating platform 1 facilitates the installation of all equipment components. The outer shell 2 of the smelting main body is the main operating position for smelting irregularly shaped copper strips. The equipment is driven by a telescopic motor 3 to adjust the frame 5, thereby changing the heating space between the heating frame 4 and the adjusting frame 5. This allows for rapid adjustment of the overall heating efficiency and enhances the energy efficiency of the equipment. The equipment uses an infrared thermometer 6 to collect real-time temperature data of the copper strip surface and interior. A camera 8 facilitates real-time image observation of the irregularly shaped copper strip's status. The rotating motor 9 drives the displacement chain 12 to engage and move the force block 14, thereby moving the bearing platform 16 to the passage bar 7. The passage is completed by the contact plates 18 on both sides contacting the passage bar 7. The heating wire 19 contacts the irregularly shaped copper strip to heat it in this area. The equipment is driven by the telescopic motor 3. Adjusting the frame 5, and thus the heating space between the heating frame 4 and the adjusting frame 5, allows for rapid adjustment of the overall heating efficiency. The rotating motor 9 carries the support platform 16 out to the cooling shell 20 for cooling. The blower 23 blows air to the cooling shell 20 for cooling. The channel switch 24 opens, which also dissipates heat from the motor 9. The heat energy at the cooling shell 20 flows back to the melting body shell 2, which is convenient for energy saving. In the assembly line operation, the heat energy is blown to the feeding platform 25 to preheat the shaped copper strip, ensuring a slow heating speed and avoiding rapid heating that could damage the brittleness of the shaped copper strip, causing uneven heat distribution, resulting in some areas being overheated while other areas are underheated. Poor internal stress will affect the mechanical properties of the finished copper strip.

[0050] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit it. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A method for controlling the melting temperature of irregularly shaped copper strips, comprising a main operating platform (1), characterized in that: The upper surface of the main operating platform (1) is provided with a smelting main shell (2). A telescopic motor (3) is fixedly connected to the inner surface of the smelting main shell (2). A passage strip (7) is fixedly connected to the upper surface of the main operating platform (1) corresponding to the smelting main shell (2). A heating frame (4) is fixedly connected to the upper surface of the main operating platform (1) corresponding to the passage strip (7). An adjustment frame (5) is movably sleeved on the inner surface of the heating frame (4). The outer surface of the output end of the telescopic motor (3) is fixedly connected to the adjustment frame (5). An infrared thermometer (6) is movably connected to the outer surface of the adjustment frame (5). A control circuit is installed on the inner surface of the smelting main shell (2) away from the heating frame (4). A camera (8) is fixedly connected to the inner surface of the smelting main shell (2) corresponding to the heating frame (4).

2. The smelting temperature control method based on irregularly shaped copper strip as described in claim 1, characterized in that: A motor (9) is fixedly connected to the upper surface of the main operating platform (1). An active tooth (10) is welded to the outer surface of the output end of the motor (9). A displacement chain (12) is meshed with the outer surface of the active tooth (10).

3. The smelting temperature control method based on irregularly shaped copper strip as described in claim 1, characterized in that: The inner surface of the main operating platform (1) is rotatably connected to a driven tooth (11), and the outer surface of the driven tooth (11) is movably connected to a displacement chain (12). A pressure bar (13) is provided on the inner surface of the main operating platform (1) away from the displacement chain (12).

4. The smelting temperature control method based on irregularly shaped copper strip as described in claim 3, characterized in that: The displacement chain (12) is movably connected to a force-bearing block (14), and a heat insulation plate (15) is fixedly connected to the upper surface of the force-bearing block (14). A bearing platform (16) is fixedly connected to the upper surface of the heat insulation plate (15).

5. The smelting temperature control method based on irregularly shaped copper strip as described in claim 4, characterized in that: A heating wire (19) is fixedly connected to the upper surface of the support platform (16), and an adjustment frame (17) is movably connected to the side surface of the support platform (16). A contact piece (18) is fixedly connected to the outer surface of the adjustment frame (17), and a contact piece (18) is also fixedly connected to the corresponding position on the outer surface of the support platform (16).

6. The smelting temperature control method based on irregularly shaped copper strip as described in claim 1, characterized in that: The operating main platform (1) has a cooling shell (20) welded to the outer surface of the side corresponding to the melting main shell (2), and a side baffle (21) is movably connected to the outer surface of the side corresponding to the cooling shell (20).

7. The smelting temperature control method based on irregularly shaped copper strip as described in claim 1, characterized in that: The operating main platform (1) has a motor housing (22) welded to the outer surface of the motor (9). A blower (23) is fixedly connected to the outer surface of the operating main platform (1). The outer surface of the output end of the blower (23) is connected to the cooling housing (20) and the motor housing (22). A channel switch (24) is provided on the outer surface of the motor housing (22) corresponding to the outer surface of the cooling housing (20).

8. The smelting temperature control method based on irregularly shaped copper strip as described in claim 1, characterized in that: The main operating platform (1) has a feeding platform (25) welded to the outer surface of the side away from the cooling shell (20). The upper surface of the feeding platform (25) is movably connected to a feeding cover plate (26), and the side surface of the feeding platform (25) is movably connected to a sealing block (27).

9. The smelting temperature control method based on irregularly shaped copper strip as described in claim 8, characterized in that: The feeding platform (25) is provided with a contact switch (31) on the upper surface of the feeding cover plate (26). The side surface of the feeding platform (25) is fixedly connected to a control console (28). The upper surface of the control console (28) is fixedly connected to a display screen (29). The upper surface of the control console (28) is provided with a button (30).

10. A method for controlling the melting temperature of irregularly shaped copper strips according to any one of claims 1-9, characterized in that, Includes the following steps: Step 1: Place the irregular copper strip on the support platform (16). There is a relatively long adjustment range between the support platform (16) and the adjustment frame (17), which facilitates the relevant adjustment of irregular copper strips of different widths. Step 2: Adjust the equipment according to the actual situation. When operating manually, flip the feed cover (26) and place the support platform (16) in the corresponding chute of the main running platform (1) and the feed platform (25). The force block (14) is pressed against the displacement chain (12). When assembly line operation is required, remove the sealing block (27) and set up the relevant conveying mechanism on the outside. Step 3: The motor (9) rotates and drives the displacement chain (12) to engage and move the force block (14), thereby moving the support platform (16) to the passage bar (7). The passage is completed by the contact plates (18) on both sides contacting the passage bar (7), while the heating wire (19) contacts the irregular copper strip and heats the area. The equipment is driven by the telescopic motor (3) to adjust the frame (5), thereby changing the heating space between the heating frame (4) and the adjustment frame (5), which can quickly adjust the overall heating efficiency and enhance the energy efficiency of the equipment. Step 4: The equipment collects the surface and internal temperature data of the copper strip in real time through an infrared thermometer (6), and the camera (8) facilitates the real-time image observation of the irregular copper strip. Step 5: The motor (9) rotates and brings the support platform (16) out to the cooling shell (20) for cooling. The blower (23) blows air to the cooling shell (20) for cooling. The channel switch (24) is opened to dissipate heat from the motor (9) and return the heat energy from the cooling shell (20) to the melting body shell (2), which is convenient for energy saving. In the assembly line operation, the heat energy is blown to the feeding platform (25) to preheat the shaped copper strip, ensuring slow heating and avoiding rapid heating that could damage the brittleness of the shaped copper strip. This would result in uneven heat distribution, causing some areas to overheat while other areas are underheated. Poor internal stress would affect the mechanical properties of the finished copper strip.

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