Metal bus production and processing equipment

Abstract

The invention relates to the technical field of copper wire drawing, in particular to metal bus production and processing equipment which comprises a positioning groove, a half die device, a copper wire, a temporary eye die and a liquid feeding device, the two half eye dies are spliced to form a main position eye die, and the copper wire penetrates through a middle hole of the main position eye die to achieve wire drawing. Lubricating cooling liquid is sprayed to a center hole of the main position hole die at a fixed point through the annular spray head, so that new lubricating cooling liquid can be accurately supplemented to a liquid consumption position, meanwhile, old lubricating cooling liquid is squeezed away, the two half hole dies are separated, and the temporary hole die plays a temporary wire drawing function; the brush roll assembly arranged for each half-hole die is used for cleaning, after cleaning is completed, the two half-hole dies are automatically spliced and combined, subsequent copper wire drawing work continues to be carried out, temporary wire drawing is maintained by the temporary hole die, therefore, the problem of chippings is relatively ignored, and the temporary hole die can be cleaned after the whole wire drawing work is completely completed.

Description

Technical Field

[0001] The invention relates to the technical field of copper wire drawing, in particular to metal busbar production and processing equipment. Background Art

[0002] The production and processing of the power distribution busbar used for power transmission involves the drawing process of the internal copper wire, which makes the thick copper wire pass through the funnel hole in the middle of the eye mold, and pulls the copper wire to make the copper wire passing through the eye mold thinner. The inner wall of the funnel hole of the eye mold needs to be attached with lubricating material to avoid wear problems when the copper wire passes through. It also requires cooling treatment. The existing technology is to directly spray auxiliary liquid with lubricating and cooling functions onto the eye mold, but there are shortcomings. The old auxiliary liquid is retained in the funnel hole of the eye mold, blocking the replenishment of new auxiliary liquid. The lubrication and cooling effects provided by the old auxiliary liquid are reduced, affecting the smooth drawing of the copper wire. At the same time, the newly sprayed auxiliary liquid is discharged without being used, which directly causes waste of auxiliary liquid.

[0003] During the copper wire drawing process, there is also the problem of debris being retained in the eyelet of the die. The retained debris will aggravate the wear of the die, causing the die surface to become rough or even damaged, which will not only affect the drawing quality but also increase production costs. The debris will also affect the fluidity and lubricity of the drawing fluid, resulting in wire breakage, scratches and burrs during the drawing process, further resulting in an uneven surface of the produced copper wire.

[0004] Based on the research and development purpose of solving the above problems, the present invention provides a metal busbar production and processing equipment. Summary of the Invention

[0005] The object of the present invention is to provide a metal busbar production and processing equipment to solve the problems raised in the above background technology.

[0006] To achieve the above-mentioned object, the present invention provides the following technical solution: a metal busbar production and processing equipment, comprising:

[0007] A positioning groove, wherein a drainage notch is provided on the side shell of the positioning groove;

[0008] Two symmetrically distributed half-mold devices, the half-mold devices are installed on the positioning groove;

[0009] Copper wire, the copper wire passes through the two half-mold devices, the two half-mold devices are spliced ​​together to draw the conveyed copper wire, and the two half-mold devices are separated to automatically remove chips and clean;

[0010] Temporary eye mold, the temporary eye mold is installed and fixed on the positioning groove;

[0011] A liquid feeding device is provided for spraying lubricating coolant to the joint of the two half mold devices. The liquid feeding device is installed on the positioning groove and is connected to the half mold device. After the two half mold devices are separated, the liquid feeding device stops spraying lubricating coolant.

[0012] The half mold device comprises:

[0013] The half mold device comprises:

[0014] The half mold device comprises:

[0015] The half mold device comprises:

[0016] The half mold device comprises:

[0017] The half mold device comprises:

[0018] The half mold device comprises:

[0019] The half mold device comprises:

[0020] The half mold device comprises:

[0021] The multi-control tool comprises a first shaft and a third worm supported on a stake column, a second rib shaft in transmission connection between the first shaft and the third worm, a lifting frame supporting the second rib shaft, a pressing and releasing disc part in transmission on one side of the third worm, a clamping part in clamping connection with the pressing and releasing disc part, a multi-control frame driven by the pressing and releasing disc part, and an L-shaped slide column sliding through a square hole in the multi-control frame, one end of the L-shaped slide column being fixed on the stake column, the waist of the second rib shaft being movably sleeved in a through hole in the lifting frame through a I-shaped disc, one end of the second rib shaft being slidably inserted into a prism slot in the first shaft, and the other end being slidably inserted into a prism slot in the third worm, the multi-control frame and the L-shaped half frame being fixedly connected.

[0022] The fluid tool comprises a flat tube fixed on a stake column, a fluid box fixed in communication at one end of the flat tube, a turbine fan arranged in the fluid box, and a wheel shaft fixed in the middle of the turbine fan, the wheel shaft being movably sleeved in a through hole in a bottom plate at one end of the fluid box, and the third worm being reversely driven in transmission through a bevel gear arranged at the bottom end of the third worm and an annular bevel gear fixed on the wheel shaft.

[0023] The annular nozzle comprises a concave cross-section ring groove shell, a ring plate cover slidably covering the bottom end of one side of the ring groove shell, and a plurality of V-shaped branch pipes in communication and arranged in a ring on the other side of the bottom end of the ring groove shell, the flat tube being in communication with the ring groove shell through a local shell body penetrating the ring plate cover, and one end of the wheel shaft being in meshing transmission connection with an external gear ring arranged outside the ring groove shell through a gear arranged on the one end of the wheel shaft.

[0024] The clamping part comprises a lifting plate fixed on the lifting frame, a T column fixed on the stake column, and a C-shaped spring piece fixed on the T column, a local segment of the T column sliding through a square hole in the lifting frame, the pressing and releasing disc part comprising a pressing and releasing shaft movably sleeved in a through hole in the T column, a tail disc fixed at one end of the pressing and releasing shaft, a wandering rod fixed on the tail disc, a pressure disc supported at the other end of the pressing and releasing shaft, and a spring fixed on the pressing and releasing shaft, the outer end of the spring being fixed on the pressure disc, an external gear ring being arranged outside the pressure disc to be in meshing transmission connection with the third worm, the pressing and releasing shaft being movably sleeved in a through hole in the middle of the pressure disc, one end of the lifting plate being in clamping connection with a V-shaped groove arranged on the outer edge of the tail disc through a pointed end arranged on the one end of the lifting plate, the other end of the lifting plate being in contact with the C-shaped spring piece, and the wandering rod being inserted into a long plate hole in the multi-control frame.

[0025] Compared with the prior art, the beneficial effects of the present application are as follows:

[0026] 1. The two half eye dies of the present application are spliced into a main position eye die, a copper wire is passed through a middle hole of the main position eye die to realize wire drawing, and the annular nozzle sprays lubricating coolant to the middle hole of the main position eye die, so that new lubricating coolant can be accurately supplemented to the position of liquid consumption, and old lubricating coolant is squeezed away.

[0027] 2. Copper wire drawing process, the debris attached to the hole of the main eye die needs to be cleaned regularly, specifically two half eye dies are separated, a temporary eye die plays a temporary drawing function, after the two half eye dies are separated, the brush roller integrated for each half eye die is integrated for cleaning, after cleaning, the two half eye dies are automatically spliced and combined to continue the subsequent copper wire drawing work, the temporary eye die maintains a short drawing time, so the debris problem is relatively ignored, and the temporary eye die can be cleaned after the entire drawing work is completely finished. BRIEF DESCRIPTION OF DRAWINGS

[0028] Figure 1 It is a structural schematic diagram of the present application.

[0029] Figure 2 It is a copper wire position schematic diagram.

[0030] Figure 3 It is a half die device structural schematic diagram.

[0031] Figure 4 It is a liquid feeding device structural schematic diagram.

[0032] Figure 5 It is a half die device structural schematic diagram.

[0033] Figure 6 It is a range increasing piece structural schematic diagram.

[0034] Figure 7 It is an L-shaped half frame structural schematic diagram.

[0035] Figure 8 It is a brush roller integrated structural schematic diagram.

[0036] Figure 9 It is a multi-control device structural schematic diagram.

[0037] Figure 10 It is a fluid device structural schematic diagram.

[0038] Figure 11 It is a ring-shaped nozzle structural schematic diagram.

[0039] Figure 12 It is a multi-control frame position schematic diagram.

[0040] Figure 13 It is a clamping piece structural schematic diagram.

[0041] Figure 14 It is a pressure disc structural schematic diagram.

[0042] Figure 15 It is a multi-control frame structural schematic diagram.

[0043] In the figure: positioning groove 1, half mold device 2, copper wire 3, temporary eye mold 4, liquid feeding device 5, half eye mold 6, half tool 7, L-shaped half frame 8, brush roller integration 9, annular spray head 10, fluid tool 11, pile column 12, multi-control tool 13, double-spring element 14, range-increasing element 15, split frame 16, half seat 17, control position worm 18, control position cross column 19, cross long plate 20, split disc gear 21, split shaft 22, direction lever 23, spring 24, cutoff block 25, brush roller 26, roller shaft 27, sub-frame 28, short shaft 29, first rack 30, first shaft 31, clamping element 32, second rib shaft 33, lifting frame 34, pressure-releasing disc element 35, third worm 36, L-shaped slide column 37, multi-control frame 38, turbine fan 39, fluid box 40, wheel shaft 41, flat tube 42, V-shaped branch pipe 43, ring groove shell 44, ring plate cover 45, C-shaped spring piece 47, lifting plate 48, T column 49, wandering rod 50, tail disc 51, pressure-releasing shaft 52, spring 53, pressure disc 54. DETAILED DESCRIPTION

[0044] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the technical solutions in the present application, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the scope of the present application.

[0045] Please refer to Figures 1 to 15 The present application provides a technical solution: a metal busbar production and processing equipment, comprising:

[0046] The positioning groove 1 has a liquid discharge gap on the side shell.

[0047] Two symmetrical half mold devices 2 are installed on the positioning groove 1.

[0048] The copper wire 3 passes between the two half mold devices 2, and the two half mold devices 2 draw wire after splicing to convey the copper wire 3, and the two half mold devices 2 are separated to clean independently.

[0049] The temporary eye mold 4 is installed and fixed on the positioning groove 1.

[0050] The liquid feeding device 5 sprays lubricating coolant to the splicing part of the two half mold devices 2, the liquid feeding device 5 is installed on the positioning groove 1, and the liquid feeding device 5 is connected with the half mold device 2, and the liquid feeding device 5 stops spraying lubricating coolant after the two half mold devices 2 are separated.

[0051] Reference Figure 3 It is understood that the half mold device 2 comprises:

[0052] Half eye mold 6, half tool 7 for driving half eye mold 6 translation, and L-shaped half frame 8 for establishing transmission between half tool 7 and liquid feeding device 5, two half eye molds 6 are spliced into complete main eye mold;

[0053] The brush rod set 9 is used for removing chips from the half eye mold 6.

[0054] Reference Figure 4 It is understood that the liquid feeding device 5 comprises:

[0055] The annular nozzle 10, the copper wire 3 passes through the middle part of the annular nozzle 10, and the annular nozzle 10 sprays lubricating coolant towards the middle hole on the main eye mold;

[0056] The fluid tool 11 for supplying fluid to the annular nozzle 10, the pile 12 for supporting the fluid tool 11, and the multi-control tool 13 for driving the fluid tool 11, the multi-control tool 13 and the L-shaped half frame 8 are in transmission connection, and one end of the pile 12 is fixed on the positioning groove 1.

[0057] Reference Figure 5 It is understood that the half tool 7 comprises a half seat 17 fixed on the positioning groove 1, a control position cross column 19 slidingly passing through the T-shaped groove on the half seat 17, a control position worm 18 in transmission connection with a row of teeth arranged on the control position cross column 19, a sub-frame 16 for limiting and supporting the control position worm 18, a double-spring piece 14 connected with the L-shaped half frame 8, and a range-increasing piece 15 in transmission connection between the control position worm 18 and the double-spring piece 14, one end of the sub-frame 16 is fixed on the positioning groove 1, the control position cross column 19 is fixedly connected with the half eye mold 6, a limiting block is further arranged on the control position cross column 19, and the control position worm 18 is movably sleeved in the through hole of the sub-frame 16.

[0058] Reference Figure 6 It is understood that the range-increasing piece 15 comprises a horizontal long plate 20 slidingly passing through the square hole of the sub-frame 16, a sub-shaft 22 movably sleeved in the column hole of the sub-frame 16, and a sub-disc gear 21 fixed at one end of the sub-shaft 22, the other end of the sub-shaft 22 is in transmission connection with a row of teeth arranged on the horizontal long plate 20 through the arrangement of a shaft gear, the end of the control position worm 18 is in transmission connection with the sub-disc gear 21 through the arrangement of a bevel gear, the double-spring piece 14 comprises two cut-off blocks 25 fixed on the horizontal long plate 20, a direction rod 23 fixed between the two cut-off blocks 25, two springs 24 sleeved on the direction rod 23, the direction rod 23 slidingly passes through the through hole of the L-shaped half frame 8, and the two springs 24 cooperate to clamp the end of the L-shaped half frame 8.

[0059] Reference Figure 8It is understood that the brush roller set 9 includes a sub-frame 28 fixed on the L-shaped half-frame 8, a roller shaft 27 supported on the sub-frame 28 and a short shaft 29, a brush roller 26 fixed at one end of the roller shaft 27, and a first rack 30 fixed on the positioning groove 1. The other end of the roller shaft 27 is connected to the short shaft 29 through a bevel gear, and the other end of the short shaft 29 is connected to the first rack 30 through a shaft gear. The rotating brush roller 26 is inserted into the inner hole of the half-eye mold 6 to remove the debris attached to the half-eye mold 6.

[0060] The multi-control tool 13 includes a first shaft 31 and a third worm 36 supported on the pile 12, a second rib shaft 33 connected in transmission between the first shaft 31 and the third worm 36, a lifting frame 34 supporting the second rib shaft 33, a pressing and releasing disc part 35 driven by the third worm 36 on one side, a clamping part 32 clamped with the pressing and releasing disc part 35, a multi-control frame 38 driven by the pressing and releasing disc part 35, and an L-shaped slide column 37 sliding through the square hole of the multi-control frame 38. One end of the L-shaped slide column 37 is fixed on the pile 12. The waist of the second rib shaft 33 is movably sleeved in the through hole of the lifting frame 34 through the setting of an I-shaped disc. One end of the second rib shaft 33 is slidably inserted into the prism slot of the first shaft 31, and the other end is slidably inserted into the prism slot of the third worm 36. The multi-control frame 38 is fixedly connected with the L-shaped half-frame 8. A plurality of support plates are arranged on the pile 12. The first shaft 31 and the third worm 36 are movably sleeved in the through holes of different support plates.

[0061] The fluid tool 11 includes a flat tube 42 fixed on the pile 12, a fluid box 40 fixedly connected at one end of the flat tube 42, a turbine fan 39 arranged in the fluid box 40, and a wheel shaft 41 fixedly arranged in the middle of the turbine fan 39. The wheel shaft 41 is movably sleeved in the through hole of the bottom plate at one end of the fluid box 40. The bottom end of the third worm 36 is connected in transmission with the annular bevel gear fixed on the wheel shaft 41 through the setting of a bevel gear.

[0062] The annular nozzle 10 includes a ring groove shell 44 with a concave cross section, a ring plate cover 45 slidably covering the bottom end on one side of the ring groove shell 44, and a plurality of V-shaped branch pipes 43 annularly arranged in communication on the other side of the bottom end of the ring groove shell 44. The flat tube 42 is in communication with the ring groove shell 44 through the local shell penetrating the ring plate cover 45. One end of the wheel shaft 41 is connected in transmission with the outer gear ring arranged outside the ring groove shell 44 through the setting of a gear. Referring to Figure 11 , the ring plate cover 45 and the ring groove shell 44 can rotate relative to each other. The edge of the ring plate cover 45 supports the ring groove shell 44 by clamping into the ring groove arranged on the ring groove shell 44.

[0063] The card piece 32 comprises a lifting plate 48 fixed on the lifting frame 34, a T column 49 fixed on the pile 12, and a C-shaped spring 47 fixed on the T column 49, and a local segment of the T column 49 slides through a square hole formed on the lifting frame 34. The pressing and releasing disc piece 35 comprises a pressing shaft 52 movably sleeved in a through hole formed on the T column 49, a tail disc 51 fixed at one end of the pressing shaft 52, a wandering rod 50 fixed on the tail disc 51, a pressure disc 54 supported at the other end of the pressing shaft 52, and a spring 53 fixed on the pressing shaft 52, and the outer end of the spring 53 is fixed on the pressure disc 54. The outer part of the pressure disc 54 is provided with an external gear ring to be in meshing transmission connection with the third worm 36. The pressing shaft 52 is movably sleeved in a through hole formed in the middle of the pressure disc 54. One end of the lifting plate 48 is clamped with a V-shaped groove formed on the outer edge of the tail disc 51 by being provided with a sharp end. The other end of the lifting plate 48 is in contact with the C-shaped spring 47. The wandering rod 50 is inserted into a long plate hole formed on the multi-control frame 38.

[0064] The two half eye dies 6 are spliced to form a main eye die. The copper wire 3 is pulled from the eye die to realize wire drawing. In the process, the ring groove shell 44 continuously rotates to drive the V-shaped branch pipe 43 to rotate around, and the V-shaped branch pipe 43 sprays lubricating coolant. In this way, the lubricating coolant is evenly diffused into the funnel hole of the main eye die to lubricate and cool the wire drawing point. The inner wall of the main eye die will gradually attach debris. The two half eye dies 6 are separated to quickly remove the debris.

[0065] The first shaft 31 is externally connected to the driving mechanism in the prior art. The first shaft 31 continuously rotates to drive the second rib shaft 33, and then drives the wheel shaft 41 through the third worm 36 transmission. The wheel shaft 41 drives the ring groove shell 44 to rotate, and the ring groove shell 44 drives the V-shaped branch pipe 43 to rotate around. The wheel shaft 41 also drives the turbine fan 39 to rotate, so that the fluid box 40 conveys fluid. One end of the fluid box 40 is externally connected to the lubricating coolant storage mechanism in the prior art. The rotation of the turbine fan 39 provides power for the conveying of the lubricating coolant. In this way, the lubricating coolant is conveyed into the flat tube 42 through the fluid box 40, and then diffused into the V-shaped branch pipe 43 through the ring groove shell 44. The V-shaped branch pipe 43 sprays lubricating coolant. When the two half eye dies 6 are separated, the lubricating coolant automatically stops spraying because the transmission between the second rib shaft 33 and the third worm 36 is interrupted. At this time Figure 9 The second rib shaft 33 moves axially upward, and the bottom end of the second rib shaft 33 is extracted from the top end of the third worm 36.

[0066] The third worm 36 continues to rotate, which also drives the pressure plate 54 to rotate slowly. The rotation of the pressure plate 54 causes the spring 53 to contract and store energy. The pressure-releasing shaft 52 and the tail plate 51 have a tendency to rotate. The tip of the lifting plate 48 is clamped into the V-shaped groove at the edge of the tail plate 51. When the energy stored in the spring 53 is sufficient, the clamping state of the lifting plate 48 is broken, and the tail plate 51 rotates one circle. Then the tail plate 51 is clamped by the lifting plate 48 again, and the spring 53 starts a new round of energy storage. During the rotation of the tail plate 51, the two half-eye molds 6 are separated and cleaned, and then reassembled. In addition, the two half-eye molds 6 are separated, and the injection of lubricating coolant is stopped. Because the lifting plate 48 is lifted out of the V-shaped groove, the lifting plate 48 moves the lifting frame 34, which drives the second shaft 33. The second shaft 33 moves axially and separates from the third worm 36, the transmission path is interrupted, and the driving force of the lubricating coolant injection disappears.

[0067] The specific principle of the tail plate 51 rotating one circle to separate and clean the two half-eye molds 6, and then close them: the rotation of the tail plate 51 causes the wandering rod 50 to move one circle, which drives the multi-control frame 38 to complete one round trip. The multi-control frame 38 drives the L-shaped half-frame 8, which then moves the horizontal plate 20 through the double-spring element 14. Next, the split shaft 22 drives the split plate gear 21 to rotate, which in turn drives the control worm 18 to rotate and causes the control horizontal column 19 to translate. The control horizontal column 19 drives the half-eye mold 6, so that the two half-eye molds 6 are first separated and cleaned, and then closed after cleaning. There is a detail in the process of separating the two half-eye molds 6: the two half-eye molds 6 are first separated and cleaned, and then closed after cleaning. There is a detail in the process of separating the two half-eye molds 6: the two half-eye molds 6 are first separated and cleaned, and then closed after cleaning. Figure 5 and Figure 8 The limit block on the control horizontal column 19 plays a role, and the control horizontal column 19 cannot drive the half-eye mold 6 to continue to move. At this time, the middle hole of the half-eye mold 6 is opposite the brush roller 26, the L-shaped half-frame 8 continues to translate, and the horizontal plate 20 cannot move. Therefore Figure 6 the L-shaped half-frame 8 in Figure 8 continues to move to the left, which causes the left spring 24 to be compressed, and the L-shaped half-frame 8 continues to move, the sub-frame 28 continues to drive the roller shaft 27, which moves axially to drive the brush roller 26. At the same time, the short shaft 29 continues to rotate to drive the roller shaft 27 to rotate, and the continuously rotating brush roller 26 cleans the inner wall of the middle hole of the half-eye mold 6.

[0068] The time ratio of the temporary eye mold can be realized by changing the size and proportion of the route transmission structure. The separation and closure of the eye mold actually occurs only a few times during the entire wire drawing process. The accumulation of debris on the temporary eye mold requires a long time, so from the beginning of the wire drawing process to the end, the separation and closure of the main eye mold can be performed at a low frequency.

[0069] While embodiments of the application have been shown and described, it is to be understood that the embodiments described are merely exemplary of the principles and application of the present application. Numerous modifications and adaptions can be effected without departing from the spirit and scope of the present application, which is not limited to the exact construction and arrangement described. It is intended, therefore, to cover all modifications and adaptions that fall within the scope of the claims and their equivalents.

Claims

1. A metal busbar production and processing equipment, characterized in that: Includes: A positioning groove, wherein a drainage notch is provided on the side shell of the positioning groove; Two symmetrically distributed half-mold devices, the half-mold devices are installed on the positioning groove; Copper wire, the copper wire passes through the two half-mold devices, the two half-mold devices are spliced ​​together to draw the conveyed copper wire, and the two half-mold devices are separated to automatically remove chips and clean; Temporary eye mold, the temporary eye mold is installed and fixed on the positioning groove; A liquid feeding device is provided for spraying lubricating coolant to the joint of the two half mold devices. The liquid feeding device is installed on the positioning groove and is connected to the half mold device. After the two half mold devices are separated, the liquid feeding device stops spraying lubricating coolant.

2. The metal busbar production and processing equipment according to claim 1, characterized in that: The half-mold device includes: A half eye mold, a half movable tool for driving the half eye mold to move horizontally, and an L-shaped half frame for establishing transmission between the half movable tool and the liquid feeding device. The two half eye molds are spliced ​​into a complete main eye mold; Integrated brush stick for removing debris from half eye molds.

3. The metal busbar production and processing equipment according to claim 2, characterized in that: The liquid feeding device comprises: Annular nozzle, the copper wire passes through the middle of the annular nozzle, and the annular nozzle sprays lubricating coolant toward the middle hole on the main eye mold; A fluid tool for conveying fluid to the annular nozzle, a pile column for supporting the fluid tool, and a multi-control tool for driving the fluid tool are provided. The multi-control tool is transmission-connected to the L-shaped half frame, and one end of the pile column is fixed on the positioning groove.

4. The metal busbar production and processing equipment according to claim 2, characterized in that: The semi-moving tool includes a half seat fixed on the positioning groove, a positioning cross column sliding through a T-shaped groove provided on the half seat, a positioning worm gear meshing and transmission connected with a row of teeth provided on the positioning cross column, a sub-frame that limits the support of the positioning worm gear, a double spring member connected to the L-shaped half frame, and a range extender member transmission-connected between the positioning worm gear and the double spring member, one end of the sub-frame is fixed on the positioning groove, the positioning cross column is fixedly connected to the half eye mold, and a limiting block is also provided on the positioning cross column.

5. The metal busbar production and processing equipment according to claim 4, characterized in that: The range extender includes a horizontal long plate that slides through a square hole opened on the branch frame, a branch shaft movably sleeved in a column hole opened on the branch frame, and a branch disk gear fixed at one end of the branch shaft. The other end of the branch shaft is meshed and connected to a row of teeth set on the horizontal long plate by setting an axis gear. The end of the position-control worm is meshed and connected to the branch disk gear by setting a bevel gear. The double spring component includes two cut-off blocks fixed on the horizontal long plate, a direction rod fixed between the two cut-off blocks, and two springs sleeved on the direction rod. The direction rod slides through the through hole opened on the L-shaped half frame, and the two springs cooperate to clamp the end of the L-shaped half frame.

6. The metal busbar production and processing equipment according to claim 2, characterized in that: The brush roller assembly includes a sub-frame fixed on the L-shaped half frame, a roller shaft and a short shaft supported on the sub-frame, a brush roller fixed at one end of the roller shaft, and a first rack fixed on the positioning groove. The other end of the roller shaft is provided with a bevel gear to change the direction of the bevel gear provided at one end of the short shaft. The other end of the short shaft is provided with a shaft gear to engage with the first rack for transmission. The rotating brush roller is inserted into the inner hole of the half eye mold to remove debris attached to the half eye mold.

7. The metal busbar production and processing equipment according to claim 3, characterized in that: The multi-control tool includes a first shaft and a third worm supported on a pile column, a second prism shaft transmission-connected between the first shaft and the third worm, a lifting frame supporting the second prism shaft, a pressure disk driven by one side of the third worm, a clamping member engaged with the pressure disk, a multi-control frame driven by the pressure disk, and an L-shaped sliding column sliding through a square hole opened in the multi-control frame, one end of the L-shaped sliding column is fixed on the pile column, the waist of the second prism shaft is movably sleeved in the through hole opened in the lifting frame by providing an I-plate, one end of the second prism shaft is slidably inserted into the prism groove opened on the first shaft, and the other end is slidably inserted into the prism groove opened on the third worm, and the multi-control frame and the L-shaped half frame are fixedly connected.

8. The metal busbar production and processing equipment according to claim 7, characterized in that: The fluid tool includes a flat tube fixed on the pile, a fluid box fixedly connected to one end of the flat tube, a turbine fan arranged in the fluid box, and a wheel axle fixed in the middle of the turbine fan. The wheel axle is movably connected to a through hole opened in the bottom plate of one end of the fluid box. The bottom end of the third worm is provided with a bevel gear to change direction of transmission with the annular bevel gear fixed on the wheel axle.

9. The metal busbar production and processing equipment according to claim 8, characterized in that: The annular nozzle includes an annular groove shell with a concave cross-section, an annular plate cover with a sliding cover on the bottom end of one side of the annular groove shell, and a plurality of V-shaped branch pipes connected to each other in an annular ring at the bottom end of the other side of the annular groove shell. The flat tube is connected to the annular groove shell by passing through a partial shell of the annular plate cover, and one end of the wheel shaft is meshed with an external gear ring provided on the outside of the annular groove shell through a gear.

10. The metal busbar production and processing equipment according to claim 7, characterized in that: The clamping component includes a lifting plate fixed on the lifting frame, a T-post fixed on the pile column, and a C-shaped spring clip fixed on the T-post. The local section on the T-post slides through the square hole opened on the lifting frame. The pressure disc component includes a pressure shaft movably sleeved in the through hole opened on the T-post, a tail disc fixed at one end of the pressure shaft, a traveling rod fixed on the tail disc, a pressure plate supported by the other end of the pressure shaft, and a mainspring fixed on the pressure shaft. The outer end of the mainspring is fixed on the pressure plate, an external gear ring is provided on the outside of the pressure plate to engage with the third worm for transmission connection, the pressure shaft is movably sleeved in the through hole opened in the middle of the pressure plate, one end of the lifting plate is clamped with the V-shaped groove opened on the outer edge of the tail disc by providing a tip, the other end of the lifting plate contacts the C-shaped spring, and the traveling rod is inserted into the long plate hole opened on the multi-control frame.

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