Coil bar processing mold production equipment and use method thereof

Abstract

The invention relates to the technical field of engines, in particular to bar machining mold production equipment and a using method thereof.The bar machining mold production equipment comprises a three-axis milling machine and a milling cutter, the milling cutter is installed on a spindle of the three-axis milling machine, and a spindle supporting frame on the three-axis milling machine is provided with a milling cutter supporting frame comprising an upper connecting part and a lower connecting part; the upper connecting part is fixedly connected with a support frame of an upper main shaft of the three-shaft milling machine; the hot pressing die is divided into the side supporting plate, the lower die body and the upper die body, holes are formed in the plate-shaped lower die body and the plate-shaped upper die body through the milling cutter, the die cavity is machined through the side edge, penetrating through the holes, of the end milling cutter, and the milling cutter is controlled by the three-axis milling machine to move on the horizontal plane; and the clamping device drives the plates of the lower die and the upper die to rotate along the horizontal line to process the curved surface of the die cavity, so that the production cost of the high-precision die is reduced, the coil bars with different specifications can be produced by replacing the lower die and the upper die, and the production cost is reduced.

Description

Technical Field

[0001] This invention relates to the field of engine technology, specifically to a wire rod processing mold production equipment and its usage method. Background Technology

[0002] The engine stator is the stationary component of the engine. It consists of a frame, iron core, windings, copper rings, and a base screw. The frame is the structural component that fixes the iron core. The iron core and windings are the essential electromagnetic parts of the stator for generating a rotating magnetic field and ensuring the path of magnetic flux and current. The windings are composed of many wire bars arranged in a certain pattern. The wire bars are usually embedded in slots in the iron core in two layers and connected to form a circuit in a certain wiring method. After the current is collected through the copper ring leads, the electrical power is output. Due to electrical and thermal reasons, the wire rod needs to be attached to the slot of the iron core along its entire length with minimal gaps. Since the engine rotor needs to rotate, the cavity accommodating the rotor is also cylindrical. To reduce the heat generated by eddy currents on the wire rod during installation, it is spirally extended along the inner wall of the cavity to the other side and connected to the power source. The general processing method is to open a slot of appropriate shape on the inner wall of the cavity and then insert the wire rod into the slot to complete the installation. However, since the wire rod and the slot spirally extend to the other side on the inner wall of the cavity, and there needs to be an angle difference between the two openings of the wire rod, the spiral processing angle of the wire rod is required to be high. Generally, hot pressing is used to shape the straight wire rod. This method requires high precision of the hot pressing mold, especially when preparing wire rods with different rotation angles and sizes, which requires the use of different high-precision hot pressing molds.

[0003] Therefore, a new technical solution is needed to address the above problems. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the purpose of this invention is to provide a wire rod processing mold production equipment and its usage method.

[0005] The above-mentioned technical objective of the present invention is achieved through the following technical solution: a wire rod processing mold production equipment and its method of use, comprising a three-axis milling machine and a milling cutter, wherein the milling cutter is mounted on the spindle of the three-axis milling machine, and a milling cutter support frame including an upper connecting part and a lower connecting part is provided on the spindle support frame of the three-axis milling machine, wherein the upper connecting part is fixedly connected to the support frame of the spindle of the three-axis milling machine, and the lower connecting part is connected to the secondary cutting edge position at the end of the milling cutter, and the upper connecting part and the lower connecting part slide relative to each other along the extension direction of the milling cutter and are fixed by bolts, wherein two clamping devices are detachably connected to the processing table of the three-axis milling machine, wherein the clamping devices include clamping elements, and the clamping elements on the two clamping devices face each other and rotate along the same horizontal line.

[0006] By adopting the above technical solution, a three-axis milling machine is first used to drive the milling cutter to move on a horizontal plane, then the end of the milling cutter is supported by a milling cutter support frame, and then the clamping device is used to drive the workpiece to rotate along a horizontal line as an axis, thereby machining a spiral curved surface on the side wall where the workpiece intersects with the horizontal plane and increasing the machining accuracy.

[0007] The invention is further configured such that: the clamping device includes a servo motor, a fixed frame, and a gearbox; the servo motor is fixedly connected to the fixed frame and powered by the gearbox on the fixed frame; a rotating shaft powered by the gearbox is rotatably connected to the fixed frame; the clamping member includes a support plate fixedly connected to the other end of the rotating shaft; a plurality of vertically extending pressing grooves are provided at the end away from the rotating shaft; a plurality of pressure plates are slidably connected to the pressing grooves; and the upper and lower pressure plates are connected by locking bolts.

[0008] By adopting the above technical solution, two plates to be processed into a mold are joined together and placed on the two lower pressure plates. The locking bolts are rotated and the upper pressure plate is driven to press against the upper surface of the plates, thereby clamping the plates using the pressure plate components. The fixing frame is fixed on the worktable of the three-axis milling machine. Then, the servo motor is started, and the servo motor drives the rotating shaft to rotate through the gearbox. The rotating shaft drives the support plate to rotate, and the support plate drives the two plates to rotate through the pressure plate. The servo motor is electrically connected to the three-axis milling machine and is controlled by the program of the three-axis milling machine.

[0009] The invention is further configured such that: the upper connecting part includes a "7"-shaped upper connecting block, one end of which points horizontally towards the support frame of the main shaft, and the other end points vertically downward; a downwardly extending sliding groove is provided on the side wall of a lower section of the upper connecting block, and an upper through groove passes through the inner wall of the sliding groove; the lower connecting part includes a "7"-shaped lower connecting block, one end of which points horizontally towards the milling cutter on the main shaft, and the other end points vertically upward; the vertical section of the lower connecting block is slidably connected to the inner wall of the sliding groove; and a lower through groove communicating with the upper through groove passes through the side wall of the vertical section of the lower connecting block; the upper connecting block and the lower connecting block are detachably connected and controlled by bolts passing through the through groove and the lower through groove; and a connecting sleeve that engages with the secondary cutting edge at the end of the milling cutter is rotatably connected to the upper end of the lower section of the lower connecting block.

[0010] By adopting the above technical solution, the structure of the upper section of the lower connecting block slidingly connected to the inner wall of the sliding groove is utilized. The lower connecting block is manually pushed up and down to control the height of the lower section of the connecting sleeve, and the connecting sleeve is placed on the lower end surface of the milling cutter to complete the engagement between the lower end of the milling cutter and the inner wall of the connecting sleeve. Then, bolts are passed through the lower through groove and the upper through groove and tightened to complete the fixed connection between the lower connecting block and the upper connecting block. The connecting sleeve is rotatably connected to the surface of the lower connecting block, so that when the milling cutter rotates, it not only provides support at the lower end of the milling cutter but also does not hinder the rotation of the milling cutter, thereby increasing the cutting effect.

[0011] The invention is further configured as follows: Step 1, loosen the bolts connecting the upper and lower connecting blocks and slide the lower connecting block downwards to the lowest point; Step 2, place the assembled lower and upper molds on the clamping device, rotate the locking bolts to clamp the lower and upper molds, start the servo motor and control the rotation shaft, support plate and pressure plate to rotate around the rotation shaft axis through the gearbox, thereby controlling the upper ends of the lower and upper molds to be parallel to the horizontal plane; Step 3, install a normal-sized milling cutter on the spindle of a three-axis milling machine, start the three-axis milling machine and drive the normal-sized milling cutter to rotate, and then drive the milling cutter to move linearly downwards through the three-axis milling machine to mill through holes in the lower and upper molds; Step 4, stop the rotation of the spindle of the three-axis milling machine and move it to a position above the lower and upper molds, then replace the milling cutter with a vertical cutting milling cutter, adjust the height of the spindle and the milling cutter and make the vertical cutting milling cutter penetrate into the holes in the lower and upper molds and protrude from the other side, then move the lower connecting block and make the connecting sleeve on the lower connecting block... Step 5: Engage the end mill with the lower end of the end mill, and then tighten the bolts connecting the lower and upper connecting blocks; Step 6: While keeping the end mill from contacting the lower and upper dies, start the spindle of the three-axis milling machine and drive the end mill to rotate. Use the main cutting edge of the end mill to cut the lower and upper dies. The servo motor is electrically connected to the three-axis milling machine, and the program on the three-axis milling machine controls the rotation angle of the lower and upper dies to machine the mold cavity; Step 7: Loosen the bolts connecting the lower and upper connecting blocks, separate the engagement between the connecting sleeve and the lower end of the end mill, start the three-axis milling machine and drive the end mill to move out of the mold cavity, and then machine the space on the lower and upper dies that accommodates the second and first wires; Step 8: Fix the lower die on the two side support plates and align the positions of the second and third wires. Use bolts to fix the side support plates and the lower die, connect the upper die to the upper connecting piece, and open a threaded hole at the upper end of the side support plate.

[0012] By adopting the above technical solution, a through hole is first made in the assembled plate using a normal-sized milling cutter. Then, the end mill is replaced and passed through the through hole in the plate. The milling cutter support is adjusted so that the connecting sleeve is fitted onto the lower end of the end mill from below the plate. The three-axis milling machine is started and the plate is cut using the side wall of the end mill. At the same time, the servo motor is also controlled by the program on the three-axis milling machine. By combining the rotation of the plate and the movement of the end mill on the horizontal plane, a curved surface is formed on the inner wall of the plate. The one-time processing method not only meets the curvature requirements of adapting to the inclination of the wire rod, but also increases the fit between the two molds, further increasing the mold accuracy and reducing production costs.

[0013] The present invention is further configured such that: the mold includes an upper mold, a lower mold, and two side support plates, the upper mold and the lower mold are located between the two side support plates, and the lower mold is connected to the side support plates and forms a mold cavity with the upper mold, and the mold cavity extends and is inclined along the line connecting the two side support plates; a heating tube is provided between the two side support plates, the heating tube includes a plurality of resistance heaters and eddy current heaters, the plurality of resistance heaters are evenly arranged on the upper mold and the lower mold near the mold cavity, the eddy current heater surrounds the mold cavity and the resistance heaters on the outer ring, and the eddy current heater includes a second wire located on the lower mold and a first wire located on the upper mold.

[0014] By adopting the above technical solution and utilizing the separate structure of the side support plate, lower mold, and upper mold, during processing, the inner wall of the mold cavity between the upper and lower molds, which have curved surfaces, is processed first. Then, the side support plate and lower mold, which are difficult to process, are connected as one unit, and the upper connecting piece is connected as one unit. This not only reduces the processing difficulty but also ensures the surface accuracy of the mold and increases product quality. The mold is then heated by heat transfer using a resistance heater on the mold. Furthermore, the detachable connection between the side support plate and lower mold, and the detachable connection between the upper mold and upper connecting piece, allows for the replacement of the lower and upper molds, further reducing production costs.

[0015] The present invention is further configured such that the cutting edge length of the end mill is greater than the depth of the holes in the lower die and the upper die.

[0016] By adopting the above technical solution, the side edge of the end mill is used to process the sheet metal, thereby forming the upper and lower molds.

[0017] The present invention is further configured such that step five involves gradually reducing the feed rate while repeating the cycle multiple times.

[0018] By adopting the above technical solution and utilizing the principles of machining, the machining accuracy of the upper and lower mold surfaces is further increased through rough machining followed by fine machining, while also enhancing the surface finish of the curved surfaces.

[0019] In summary, the present invention has the following beneficial effects: The hot pressing mold is disassembled into a side support plate, a lower mold, and an upper mold. A milling cutter is then used to cut holes in the sheet-like lower and upper molds. The mold cavity is then machined using the side edge of an end mill that passes through the holes. A three-axis milling machine is used to control the movement of the milling cutter on the horizontal plane, and a clamping device is used to rotate the sheet metal of the lower and upper molds along the horizontal line to machine the curved surface of the mold cavity. This not only reduces the production cost of high-precision molds, but also allows for the production of wire rods of different specifications by changing the lower and upper molds, further reducing production costs.

[0020] Heating is achieved by using a resistance heater for heat conduction, and then by using an eddy current heater to directly heat the wire rod inside the mold cavity, thereby further increasing the heating effect of the wire rod.

[0021] By utilizing the detachable connection between the lower mold and the side support plate, and the detachable connection between the upper connector and the upper mold, the production cost of the mold can be further reduced according to the different specifications of the wire rod. Attached Figure Description

[0022] Figure 1 A schematic diagram of the production equipment for wire rod processing molds; Figure 2 This is a schematic diagram of the milling cutter support frame in this invention; Figure 3 This is a schematic diagram of the upper connecting block in this invention; Figure 4 This is a schematic diagram of the clamping device in the present invention; Figure 5 This is a schematic diagram of the support plate in this invention; Figure 6 This is a schematic diagram of the wire rod processing mold in this invention; Figure 7 This is a cross-sectional schematic diagram of the wire rod processing mold in this invention; Figure 8 This is a schematic diagram of the upper mold in this invention; Figure 9 This is a schematic diagram of the lower mold structure in this invention; Figure 10 This is a schematic diagram of the side support plate in this invention.

[0023] In the picture: 11. Side support plate; 12. Lower mold; 13. Upper connector; 14. Locking screw; 15. Mold cavity; 16. Second guide wire; 17. First guide wire; 18. Third guide wire; 19. Upper mold; 20. Through hole; 21. Threaded hole; 22. Three-axis milling machine; 23. Clamping device; 24. Milling cutter support frame; 25. Support plate; 26. Pressure plate; 27. Locking bolt; 28. Pressing groove; 29. ​​Upper connecting block; 30. Lower connecting block; 31. Connecting sleeve; 32. Lower through groove; 33. Sliding groove; 34. Upper through groove; 35. Servo motor; 36. Fixing frame; 37. Rotary shaft. Detailed Implementation

[0024] The present invention will now be described in detail with reference to the accompanying drawings of the embodiments thereof. Example

[0025] This describes a type of wire rod processing die production equipment and its usage method, such as... Figures 1 to 5As shown, the machine includes a three-axis milling machine 22 and a milling cutter. The milling cutter is mounted on the spindle of the three-axis milling machine 22. A milling cutter support frame 24, including an upper connecting part and a lower connecting part, is provided on the spindle support frame of the three-axis milling machine 22. The upper connecting part is fixedly connected to the support frame of the spindle of the three-axis milling machine 22, and the lower connecting part is connected to the secondary cutting edge position of the end of the milling cutter. The upper connecting part and the lower connecting part slide relative to each other along the extension direction of the milling cutter and are fixed by bolts. Two clamping devices are detachably connected to the machining table of the three-axis milling machine 22. 23, the clamping device 23 includes clamping members, the clamping members on the two clamping devices 23 face each other and rotate along the same horizontal line, the clamping device 23 also includes a servo motor 35, a fixing frame 36 and a gearbox, the servo motor 35 is fixedly connected to the fixing frame 36 and is powered by the gearbox on the fixing frame 36, the fixing frame 36 is also rotatably connected to a rotating shaft 37 powered by the gearbox, the clamping member includes a support plate 25 fixedly connected to the other end of the rotating shaft 37, the one away from the rotating shaft 37 The upper part has several vertically extending clamping grooves 28, and several pressure plates 26 are slidably connected to the clamping grooves 28. The upper and lower pressure plates 26 are connected by locking bolts 27. The upper connecting part includes a "7"-shaped upper connecting block 29. One end of the upper connecting block 29 points horizontally to the support frame of the main shaft, and the other end points vertically downward. A downwardly extending sliding groove 33 is provided on the side wall of the lower section of the upper connecting block 29. An upper through groove 34 passes through the inner wall of the sliding groove 33. The lower connecting part includes a "7"-shaped lower connecting part. Block 30, one end of the lower connecting block 30 points horizontally to the milling cutter on the main shaft, and the other end points vertically upward. The vertical section of the lower connecting block 30 is slidably connected to the inner wall of the sliding groove 33, and the side wall of the vertical section of the lower connecting block 30 has a lower through groove 32 that communicates with the upper through groove 34. The upper connecting block 29 and the lower connecting block 30 are detachably connected and controlled by bolts that pass through the through groove 34 and the lower through groove 32. The upper end of the lower section of the lower connecting block 30 is rotatably connected to a connecting sleeve 31 that engages with the secondary cutting edge at the end of the milling cutter.

[0026] like Figures 1 to 10As shown, in step one, loosen the bolts connecting the upper connecting block 29 and the lower connecting block 30 and slide the lower connecting block 30 downwards to the lowest point; in step two, place the assembled lower mold 12 and upper mold 19 on the clamping device 23, and rotate the locking bolt 27 to clamp the lower mold 12 and upper mold 19, start the servo motor 35 and control the rotating shaft 37, support plate 25 and pressure plate 26 to rotate around the axis of the rotating shaft 37 through the gearbox, thereby controlling the upper ends of the lower mold 12 and upper mold 19 to be parallel to the horizontal plane; in step three, install a normal-sized milling cutter on the spindle of the three-axis milling machine 22, start the three-axis milling machine 22 and drive the normal-sized milling cutter to rotate, and then drive the milling cutter to move linearly downwards through the three-axis milling machine 22 to mill through the lower mold 12 and upper mold 19. Step 4: Stop the rotation of the spindle of the three-axis milling machine 22 and move it to a position above the lower die 12 and the upper die 19. Then change the milling cutter to a vertical cutting milling cutter, adjust the height of the spindle and the milling cutter and make the vertical cutting milling cutter penetrate into the holes of the lower die 12 and the upper die 19 and protrude from the other side. Then move the lower connecting block 30 and make the connecting sleeve 31 on the lower connecting block 30 engage with the lower end of the vertical cutting cutter. Then tighten the bolts connecting the lower connecting block 30 and the upper connecting block 29. Step 5: Start the spindle of the three-axis milling machine 22 and drive the vertical cutting cutter to rotate while keeping the vertical cutting cutter out of contact with the lower die 12 and the upper die 19. Use the main cutting edge of the vertical cutting cutter to cut the lower die 12 and the upper die 19. The servo motor 35 is electrically connected to the three-axis milling machine 22 and is connected through the three-axis milling machine 22. The program-controlled servo motor 35 on the three-axis milling machine 22 drives the lower mold 12 and the upper mold 19 to rotate and machine the mold cavity 15; Step six, loosen the bolts connecting the lower connecting block 30 and the upper connecting block 29, and separate the connecting sleeve 31 from the lower end of the milling cutter. Then start the three-axis milling machine 22 and drive the end mill to move out of the mold cavity 15. Then machine the space on the lower mold 12 and the upper mold 19 that accommodates the second wire 16 and the first wire 17; Step seven, fix the lower mold 12 on the two side support plates 11 and align the positions of the second wire 16 and the third wire 18. Use bolts to fix the side support plates 11 and the lower mold 12. Connect the upper mold 19 to the upper connecting piece 13 and open a threaded hole at the upper end of the side support plate 11. 21; The mold includes an upper mold 19, a lower mold 12, and two side support plates 11. The upper mold 19 and the lower mold 12 are located between the two side support plates 11, and the lower mold 12 is connected to the side support plates 11 and forms a mold cavity 15 with the upper mold 19. The mold cavity 15 extends and is inclined along the line connecting the two side support plates 11. A heating tube is provided between the two side support plates 11. The heating tube includes a plurality of resistance heaters and eddy current heaters. The plurality of resistance heaters are evenly arranged on the upper mold 19 and the lower mold 12 near the mold cavity 15. The eddy current heaters surround the mold cavity 15 and the outer ring of the resistance heaters. The eddy current heaters include a second wire 16 located on the lower mold 12 and a first wire 17 located on the upper mold 19.The cutting edge length of the end mill is greater than the depth of the holes in the lower die 12 and the upper die 19; step five involves repeatedly cycling while gradually reducing the feed rate.

[0027] The lower mold 12 and upper mold 19, which are in the shape of sheet metal to be processed, are assembled together and placed on the lower pressure plate 26. Then, the locking bolt 27 is rotated, which moves the upper pressure plate 26 downward and presses the assembled sheet metal together. The thickness of the sheet metal is the same as the width of the wire rod. Then, a milling cutter is installed on the spindle of the three-axis milling machine 22, and a through hole is made in the assembled sheet metal using the milling cutter to increase the flatness of the hole sidewall. At the same time, the diameter of the hole is made larger than the diameter of the milling cutter. Then, the spindle rotation is stopped, and the upper end mill is replaced. The bolts connecting the lower connecting block 30 and the upper connecting block 29 are loosened. The lower connecting block 30 is manually pushed upward and the connecting sleeve 31 is placed on the outer side of the lower end of the end mill. Then, the bolts are tightened to fix the lower connecting block 30 and the upper connecting block 29. The connecting sleeve 31 is rotatably connected to the lower connecting block 30. The connecting sleeve 31 has a shape that mates with the lower end of the end mill, ensuring support at the end of the end mill and preventing breakage during machining due to excessive length. The three-axis milling machine 22 is then started, and the spindle drives the end mill to rotate. The rotating end mill moves horizontally using the three-axis milling machine 22. The clamping device 23 then rotates the sheet metal along a horizontal axis, machining a curved mold cavity 15. This further increases the fit between the lower mold 12 and the upper mold 19. The spindle rotation is then stopped, and the bolts connecting the lower connecting block 30 and the upper connecting block 29 are loosened. The lower connecting block 30 is pushed downwards, separating the connecting sleeve 31 from the lower end of the end mill. The end mill is then removed and replaced with a milling cutter. A space to accommodate the second wire 16 and the first wire 17 is machined using a milling cutter. The milling cutter is then raised, the locking bolt 27 is loosened, and the machined lower mold 12 and upper mold 19 are removed. The lower mold 12 is then placed between the two side support plates 11 and fixed using bolts. The upper connector 13 and the upper mold 19 are also fixed using bolts. A third wire 18 is then installed on the side support plates 11, and the second wire 16 and the first wire 17 are installed on the lower mold 12 and the upper mold 19. Connectors are installed at the ends of the second wire 16, the first wire 17, and the third wire 18. The metal conductive wire in the middle of the third wire 18 protrudes, and the protrusion near the upper mold 19 is made of insulating material and fixedly connected to the upper mold 19. The second wire 16 and the first wire 17... The technical conductive wires on conductor 17 are recessed inward and electrically connected to the protrusions, thereby forming an eddy current heater. The heat resistance temperature of the insulating material is greater than the maximum temperature during mold heating. Several resistance heaters are provided along the direction of the mold cavity 15 in the lower mold 12 and the upper mold 19. These resistance heaters are metal objects with high resistance, and their exposed positions do not contact the lower mold 12 and the upper mold 19. The wire rod to be shaped is placed in the space between the lower mold 12 and the side support plate 11. Then, the upper connector 13 and the upper mold 19 are placed downward from the side support plate 11, with the upper mold 19 positioned directly above and corresponding to the lower mold 12. At the same time, the wire rod is clamped, causing the wire rod to undergo elastic deformation and adapt to the shape of the mold cavity 15. Finally, the locking screw 14 is screwed into the threaded hole 21 from the through hole 20 at the upper end of the upper connector 13.The upper mold 19, side support plate 11, and lower mold 12 are then connected. The eddy current heater and resistance heater are then energized and heated, and the shape of the wire rod is changed using thermoforming.

[0028] The above description is merely a preferred embodiment of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions falling within the scope of the present invention's concept are within the scope of protection of the present invention. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principles of the present invention should also be considered within the scope of protection of the present invention.

Claims

1. A wire rod processing mold production equipment, comprising a three-axis milling machine (22) and a milling cutter, characterized in that: The milling cutter is mounted on the spindle of a three-axis milling machine (22). The spindle support frame of the three-axis milling machine (22) is provided with a milling cutter support frame (24) including an upper connecting part and a lower connecting part. The upper connecting part is fixedly connected to the support frame of the spindle of the three-axis milling machine (22). The lower connecting part is connected to the secondary cutting edge position at the end of the milling cutter. The upper connecting part and the lower connecting part slide against each other along the extension direction of the milling cutter and are fixed by bolts. Two clamping devices (23) are detachably connected to the machining table of the three-axis milling machine (22). The clamping devices (23) include clamping elements, and the clamping elements on the two clamping devices (23) face each other and rotate along the same horizontal line.

2. The wire rod processing mold production equipment according to claim 1, characterized in that: The clamping device (23) also includes a servo motor (35), a fixed frame (36) and a gearbox. The servo motor (35) is fixedly connected to the fixed frame (36) and powered by the gearbox on the fixed frame (36). The fixed frame (36) is also rotatably connected to a rotating shaft (37) powered by the gearbox. The clamping member includes a support plate (25) fixedly connected to the other end of the rotating shaft (37). The end away from the rotating shaft (37) is provided with several vertically extending pressing grooves (28). Several pressure plates (26) are slidably connected to the pressing grooves (28), and the upper and lower pressure plates (26) are connected by locking bolts (27).

3. The wire rod processing mold production equipment according to claim 2, characterized in that: The upper connecting part includes a "7"-shaped upper connecting block (29), one end of which points horizontally towards the support frame of the main spindle, and the other end points vertically downward. A downwardly extending sliding groove (33) is provided on the side wall of the lower section of the upper connecting block (29), and an upper through groove (34) passes through the inner wall of the sliding groove (33). The lower connecting part includes a "7"-shaped lower connecting block (30), one end of which points horizontally towards the milling cutter on the main spindle, and the other end points vertically towards the support frame of the main spindle. Above, the vertical section of the lower connecting block (30) is slidably connected to the inner wall of the sliding groove (33), and the side wall of the vertical section of the lower connecting block (30) is connected to the lower through groove (32) which communicates with the upper through groove (34). The upper connecting block (29) and the lower connecting block (30) are detachably connected and controlled by bolts that pass through the through groove (34) and the lower through groove (32). The upper end of the lower section of the lower connecting block (30) is rotatably connected to a connecting sleeve (31) that engages with the secondary cutting edge at the end of the milling cutter.

4. A method of using a wire rod processing mold production equipment, comprising the following steps: Step 1: Loosen the bolts connecting the upper connecting block (29) and the lower connecting block (30) and slide the lower connecting block (30) down to the lowest point; Step 2: Place the assembled lower mold (12) and upper mold (19) on the clamping device (23), and rotate the locking bolt (27) to clamp the lower mold (12) and upper mold (19). Start the servo motor (35) and control the rotating shaft (37), support plate (25) and pressure plate (26) to rotate around the axis of the rotating shaft (37) through the gearbox, thereby controlling the upper ends of the lower mold (12) and upper mold (19) to be parallel to the horizontal plane; Step 3: Install a normal-sized milling cutter on the spindle of the three-axis milling machine (22), start the three-axis milling machine (22) and drive the normal-sized milling cutter to rotate, and then drive the milling cutter to move straight down through the three-axis milling machine (22) and mill through holes on the lower die (12) and upper die (19); Step 4: Stop the spindle rotation of the three-axis milling machine (22) and move it to a position above the lower die (12) and upper die (19). Then replace the milling cutter with a vertical cutting milling cutter, adjust the height of the spindle and the milling cutter and make the vertical cutting milling cutter penetrate into the holes of the lower die (12) and upper die (19) and protrude from the other side. Then move the lower connecting block (30) and make the connecting sleeve (31) on the lower connecting block (30) engage with the lower end of the vertical cutting cutter. Then tighten the bolts connecting the lower connecting block (30) and the upper connecting block (29). Step 5: While keeping the end mill from contacting the lower die (12) and upper die (19), start the spindle of the three-axis milling machine (22) and drive the end mill to rotate. Use the main cutting edge of the end mill to cut the lower die (12) and upper die (19). The servo motor (35) is electrically connected to the three-axis milling machine (22) and the program on the three-axis milling machine (22) controls the angle of rotation of the servo motor (35) to drive the lower die (12) and upper die (19) and to process the mold cavity (15). Step 6: Loosen the bolts connecting the lower connecting block (30) and the upper connecting block (29), and separate the connecting sleeve (31) from the snap-fit ​​state of the lower end of the milling cutter. Then start the three-axis milling machine (22) and drive the end mill to move out of the mold cavity (15) of the mold. Then process the space on the lower mold (12) and the upper mold (19) that accommodates the second wire (16) and the first wire (17). Step 7: Fix the lower mold (12) on the two side support plates (11) and align the positions of the second guide wire (16) and the third guide wire (18). Use bolts to fix the side support plate (11) and the lower mold (12) together. Connect the upper mold (19) to the upper connector (13) and make a threaded hole at the upper end of the side support plate (11).

5. The method of using the wire rod processing mold production equipment according to claim 4, characterized in that: The mold includes an upper mold (19), a lower mold (12), and two side support plates (11). The upper mold (19) and the lower mold (12) are located between the two side support plates (11), and the lower mold (12) is connected to the side support plates (11) and forms a mold cavity (15) between the upper mold (19). The mold cavity (15) extends and is inclined along the line connecting the two side support plates (11). A heating tube is provided between the two side support plates (11). The heating tube includes several resistance heaters and eddy current heaters. Several resistance heaters are evenly arranged on the upper mold (19) and the lower mold (12) near the mold cavity (15). The eddy current heater surrounds the mold cavity (15) and the outer ring of the resistance heater. The eddy current heater includes a second wire (16) located on the lower mold (12) and a first wire (17) located on the upper mold (19).

6. The method of using the wire rod processing mold production equipment according to claim 5, characterized in that: The cutting edge of the end mill is longer than the depth of the holes in the lower die (12) and the upper die (19).

7. The method of using the wire rod processing mold production equipment according to claim 5, characterized in that: Step 5 involves gradually reducing the feed rate while repeating the process multiple times.

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