A device capable of simultaneously completing double-end eye milling and boring of new energy automobile plate spring

Abstract

The application discloses a device capable of simultaneously completing double-head eye milling and boring of a new energy automobile plate spring, a sliding base is arranged at the bottom of a machining body, a supporting sliding table is arranged at the upper end of the sliding base, a plate spring fastening base is located at the middle part of the supporting sliding table, a threaded hole arranged at the bottom of the plate spring fastening base is sleeved with the outer side of a lead screw arranged at the middle part of the supporting sliding table, the plate spring fastening base can automatically fix the plate spring when the plate spring is placed on the upper end of the plate spring fastening base, movable sliding tables are arranged at the upper ends of the left and right end parts of the supporting sliding table, a boring machine body is arranged at the upper end of the movable sliding table, milling machine bodies are arranged at the outer sides of the left and right end parts of the boring machine body, and the milling machine bodies are respectively arranged at the upper ends of the front and rear end parts of the movable sliding table and are symmetrically arranged; in general, the application has the advantages of simple structure, simultaneous completion of the boring and milling processes of the double eyes of the plate spring when the plate spring is located above the machining body during use, effective improvement of machining efficiency, reduction of machining processes, and saving of manpower and material resources.

Description

Technical Field

[0001] This invention patent belongs to the field of steel leaf spring manufacturing technology, and in particular relates to a device that can simultaneously complete the milling and boring of double-headed coiled ears of leaf springs for new energy vehicles. Background Technology

[0002] Leaf springs are the most critical damping components in the suspension systems of new energy vehicles. Different vehicle models require leaf springs of different specifications. Currently, in the production process of leaf springs, the leaf springs are fixed above the mold, the double lugs of the leaf springs are bored, and the side walls of the double lugs are milled to meet the dimensional requirements. Currently, most leaf springs require fixing the leaf spring above a mold on the boring machine body and using a boring bar to bore the rolled ears during boring. Afterward, the leaf spring needs to be moved back to the milling machine to mill the sidewalls of the rolled ears. If there are two rolled ears, this requires repeated clamping, which increases the number of steps, raises production costs, reduces production efficiency, and cannot guarantee product dimensional consistency. Therefore, developing a device with a simple structure that allows simultaneous boring and milling of double rolled ears of leaf springs while the leaf spring is positioned above the machining machine body is of significant application value. This device effectively improves processing efficiency, reduces processing steps, and saves manpower and resources.

[0003] The purpose of this invention is to provide a device that can simultaneously perform milling and boring of double-headed coiled ears for leaf springs in new energy vehicles. This addresses the problem that most current leaf springs require fixing the leaf spring above a mold on the boring machine body and using a boring bar to bore the coiled ears. Subsequently, the leaf spring needs to be moved back to the milling machine to mill the side wall of the coiled ears. This adds multiple steps during clamping, increases clamping time, and reduces production efficiency. Therefore, this invention provides a device with a simple structure that allows the leaf spring to be positioned above the machining machine body during use, simultaneously performing boring and milling of double-headed coiled ears for leaf springs. This device effectively improves processing efficiency, reduces processing steps, and saves manpower and resources, and has significant application value.

[0004] To achieve the above objectives, the technical solution provided by this invention patent is as follows: A device capable of simultaneously milling and boring double-headed leaf springs for new energy vehicles includes a machining body. A slide base is located at the bottom of the machining body, and a supporting slide is located at the top of the slide base. A leaf spring fastening seat is located in the middle of the supporting slide, and a threaded hole at the bottom of the leaf spring fastening seat is fitted onto the outside of a lead screw located in the middle of the supporting slide. When the leaf spring is placed on the upper end of the leaf spring fastening seat, the leaf spring fastening seat can automatically fix the leaf spring. Movable slides are located at the upper ends of the left and right ends of the supporting slide, and a boring machine body is located at the upper end of the movable slide. A first milling machine body and a second milling machine body are located outside the boring machine body, and the first and second milling machine bodies are located symmetrically at the upper ends of the front and rear ends of the movable slide.

[0005] Furthermore, drive motors are fixedly installed at both ends of the support slide, and lead screws are connected to the inner side of the drive motors. A support base is installed at the bottom of the leaf spring fastening seat, and a threaded hole is opened at the bottom of the support base and sleeved on the outside of the lead screw.

[0006] Furthermore, a leaf spring support seat is fixedly installed on the upper end of the support platform, a leaf spring support member is installed on the upper end of the leaf spring support seat, and clamping cylinders are respectively installed on the left and right ends of the leaf spring support seat outside the leaf spring support member. Clamping members are connected to the outside of the clamping cylinders. A pressing cylinder support seat is installed on the upper end of the rear end of the support platform, and a pressing cylinder is installed on the upper end of the pressing cylinder support seat.

[0007] Furthermore, the telescopic rod end of the clamping cylinder is connected to the clamping component through a bearing component. The clamping component's connection fulcrum is located on the outer wall of the leaf spring support and is fixedly connected to the leaf spring support. The connection point on the inner wall of the clamping component is connected to the clamping component's connection fulcrum bearing.

[0008] Furthermore, a slide rail is provided at the bottom of the boring machine body, and a support slider is sleeved on the outside of the slide rail and located at the upper end of the slide rail. A support base plate is provided at the upper end of the support slider, and a ball screw connector is provided at the lower middle part of the support base plate. A moving motor is connected to the right side of the ball screw connector. A boring workpiece is provided at the upper end of the support base plate, and a boring tool is provided at the left end of the boring workpiece. A stepper motor is provided at the upper end of the boring workpiece, and a drive gear provided at the right end of the stepper motor is connected to a rotating gear provided at the tail of the boring workpiece through a drive chain.

[0009] Furthermore, the bottom of the first milling machine body is provided with a lower support base plate, and the upper end of the support base plate is provided with a support slide rail. The square slider is sleeved on the outside of the support slide rail and located on the upper end of the support slide rail. The upper end of the square slider is provided with a power base plate, and the upper end of the power base plate is provided with a milling device. The lower end of the middle part of the power base plate is provided with a ball screw connector. The inner side of the ball screw connector is provided with a screw, and the outer end of the screw is connected to a servo motor. The tail of the screw passes through the ball screw connector and is connected to the bearing of the screw fixing component.

[0010] Furthermore, the servo motors are located on the outer sides of the left and right side walls of the support base plate and are fixedly connected to the support base plate.

[0011] Furthermore, a milling cutter is provided inside the milling device, and a milling motor is provided at the upper end of the milling device. The connecting gear at the tail of the milling motor is connected to the milling gear at the tail of the milling device through a drive chain.

[0012] Beneficial effects: 1. By setting a leaf spring fastening seat, the leaf spring is located inside the leaf spring fastening seat and is fixed by the cooperation of the clamping cylinder and the pressing cylinder. The bottom of the leaf spring fastening seat has a threaded hole and is connected to the lead screw. The left and right ends of the lead screw are respectively connected to the drive motor. During operation, the drive motor drives the lead screw to rotate forward or reverse. Since the support base is threadedly connected to the lead screw, the support base can move left and right and drive the leaf spring to move left and right to the side of the boring machine body and the milling machine body to complete the boring or milling process. There is no need to manually clamp the leaf spring. The leaf spring only needs to be fixed once during the boring and milling process. The boring and milling process of the leaf spring can be completed by moving the leaf spring fastening seat left and right. It has the advantages of saving manpower and material resources and improving production efficiency. 2. A boring machine body is installed at the upper ends of both sides of the support slide. A slide rail is installed at the bottom of the boring machine body. The support slider is sleeved on the outside of the slide rail and slidably connected to it. A support base plate is installed at the upper end of the support slider. A ball screw connector is installed at the lower middle part of the support base plate. A moving motor is connected to the right side of the ball screw connector. During the rotation of the moving motor, the support base plate can move left and right. A boring workpiece is installed at the upper end of the support base plate. A boring tool is installed at the left end of the boring workpiece. The upper end of the boring workpiece... Equipped with a stepper motor, which is connected to a rotating gear via a drive chain, the stepper motor rotates when the leaf spring lug is located to the left of the boring tool during operation. This rotation drives the rotating gear via the drive chain, which in turn drives the boring tool to rotate. Simultaneously, the moving motor rotates, causing the ball screw connector to rotate and the support base plate to move to the left. This movement of the boring workpiece and the boring tool completes the leaf spring lug boring process. The lug boring process can be completed without manual intervention, which has the advantages of saving manpower and resources and improving production efficiency. 3. A milling machine body is installed at the upper ends of both sides of the support slide. The milling machine body is divided into a first milling machine body and a second milling machine body. The first and second milling machine bodies are located at the upper ends of the front and rear ends of the support slide, respectively. The first and second milling machine bodies have the same structure. A square slider is located at the upper end of the support slide rail and is slidably connected to the support slide rail. A power base plate is installed at the upper end of the square slider. A ball screw connector is installed at the lower middle part of the power base plate. A servo motor is connected to the right side of the ball screw connector. The rotation of the servo motor can cooperate with the ball screw connector to move the power base plate left and right. A milling device is installed at the upper end of the power base plate. A milling cutter is installed at the left end of the milling device. A milling motor is installed at the upper end of the milling device. The output gear at the right end of the milling motor is connected to the right end of the milling device through a drive chain. The milling gears are connected to the milling motor, which can simultaneously drive the milling cutter to rotate during the milling motor's rotation. During operation, when the leaf spring coil is located between the milling cutters, the servo motor and the milling motor rotate simultaneously. The power base plate moves to the left, driving the milling device and the milling cutter to move to the side wall of the coil. The milling motor drives the milling cutter to rotate and complete the milling process of the coil side wall. The first and second milling machine bodies are located on the outer sides of the left and right side walls of the coil, allowing for simultaneous milling of the left and right side walls of the coil. During the coil milling process, no manual labor is required to complete the milling process of the coil side wall, which has the advantages of saving manpower and material resources and improving production efficiency. In summary, this invention has the advantages of simple structure, and during use, the leaf spring is located above the processing machine body, which can simultaneously complete the boring and milling processes of the double coil of the leaf spring, effectively improving processing efficiency, reducing processing steps, and saving manpower and material resources. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of the present invention. Figure 2 This is a three-dimensional structural diagram of the connection between the leaf spring fastening seat and the support slide of this invention. Figure 3 This is an enlarged structural diagram of section AA in the present invention patent; Figure 4 This is a three-dimensional structural diagram of the boring machine body of this invention patent; Figure 5 This is a three-dimensional structural diagram of the milling machine body of this invention. Figure 6 This is a schematic diagram of the main structure of the milling machine body of this invention.

[0014] Reference numerals: 0. Machining machine body; 1. Slide table base; 2. Support slide table; 20. Lead screw; 21. Slide table wall; 22. Drive motor; 3. Leaf spring fastening seat; 30. Clamping cylinder; 31. Clamping cylinder support seat; 32. Leaf spring support component; 33. Clamping component; 34. Clamping cylinder; 35. Supporting table base; 36. Leaf spring support seat; 37. Clamping component connecting fulcrum; 38. Bearing component; 4. Boring machine body; 40. Moving motor; 41. Slide rail; 42. Support base plate; 43. Support slide... Block 44, boring workpiece 45, boring cutter 46, stepper motor 47, drive chain plate 48, rotating gear 5, first milling machine body 50, milling motor 51, drive chain baffle 52, servo motor 53, ball screw connector 54, milling cutter 55, milling device 56, power base plate 57, square slider 58, lead screw 59, support slide rail 500, lower support base plate 501, milling gear 502, lead screw fixing part 6, second milling machine body. Detailed Implementation

[0015] The embodiments of this invention will be further described below with reference to the accompanying drawings.

[0016] Specific embodiments of this invention patent, such as Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 As shown, this invention patent provides a device that can simultaneously complete the milling and boring of double-headed rolled ears of leaf springs in new energy vehicles. It includes a processing body 0, a slide base 1 at the bottom of the processing body 0, a supporting slide 2 at the upper end of the slide base 1, a leaf spring fastening seat 3 located in the middle of the supporting slide 2, and a threaded hole at the bottom of the leaf spring fastening seat 3 sleeved on the outside of the lead screw located in the middle of the supporting slide 2. When the leaf spring is placed on the upper end of the leaf spring fastening seat 3, the leaf spring fastening seat 3 can automatically fix the leaf spring. The upper ends of the left and right ends of the supporting slide 2 are provided with movable slides 7, and the upper end of the movable slide 7 is provided with a boring machine body 4. The outer side of the boring machine body 4 is provided with a first milling machine body 5 and a second milling machine body 6, which are respectively located at the upper ends of the front and rear ends of the movable slide 7. In this embodiment: the leaf spring is located above the leaf spring fastening seat 3. The clamping cylinder 30 is activated, and the clamping telescopic rod extends to push the middle of the leaf spring downward. Due to the limiting effect of the leaf spring support 32, the leaf spring can be effectively prevented from moving back and forth. At the same time, the outer wall of the spring lug is pressed tightly against the inner wall of the vertical member at the left and right ends of the leaf spring support seat 36. The clamping cylinder 34 is activated, and the clamping telescopic rod extends. Due to the action of the clamping member connection point 37 and the bearing member 38, the end of the clamping member 33 flips down and presses down to fix the leaf spring lug, thus fixing the leaf spring. The drive motor 22 is started, and the drive motor 22 rotates and drives the spring. As rod 20 rotates, a ball screw connector is provided at the bottom of the support base 35 and is connected to the screw 20. During the rotation of the screw 20, the support base 35 moves to the right until the ear is concentric with the boring tool 45. At the same time, the moving motor 40 and the stepper motor 46 are started. The moving motor 40 rotates and drives the screw to rotate. The screw is connected to the ball screw connector provided at the lower middle part of the support base plate 42. When the moving motor 40 rotates, the support base plate 42 moves to the left and drives the boring workpiece 44 and the boring tool 45 to move to the left to the inside of the ear to complete the ear boring process. When the machine 40 reverses, it simultaneously drives the lead screw to reverse as well. The support base plate 42 moves to the right, and the boring cutter moves out of the ear. The drive motor 22 restarts, and the lead screw 20 rotates forward while the support platform 35 continues to move to the left until the milling cutter 54 is concentric with the ear. The drive motor 22 stops rotating, and the servo motor 52 rotates forward, simultaneously driving the lead screw 58 to rotate. The lead screw 58 is connected to the power base plate 56 through a lead screw connector. During the rotation of the lead screw 58, it can push the power base plate 56 to the left and simultaneously drive the milling device 55 and the milling cutter 54 to the left to the side wall of the ear. The milling motor 50 rotates, and the milling motor 5... 0 is connected to the milling gear 501 through the drive chain, and drives the milling cutter 54 to rotate to complete the milling process of the ear side wall. During the milling process, the second milling machine body 6 repeats the working instructions of the first milling machine body 5. After the ear side wall milling is completed, the servo motor 52 reverses and the power base plate 56 moves to the right away from the ear side wall. After completing the boring and milling process of one side ear, the drive motor 22 reverses and drives the lead screw 20 to reverse, the support base 35 moves to the right and the leaf spring moves to the right. The leaf spring ear and the right side boring cutter 45 are concentric and repeat the above instructions to complete the boring and milling process of the right side ear of the leaf spring.

[0017] like Figure 2 As shown, drive motors 22 are fixedly installed at the left and right ends of the support slide 2. A lead screw 20 is connected to the inner side of the drive motor 22. A support base 35 is installed at the bottom of the leaf spring fastening seat 3. The bottom of the support base 35 has a threaded hole and is sleeved on the outside of the lead screw 20. During the design process, a ball screw connector is provided at the bottom of the support base 35. The ball screw connector is connected with the screw 20. The forward or reverse rotation of the drive motor 22 can realize the left or right movement of the support base 35.

[0018] like Figure 2 , Figure 3As shown, a leaf spring support seat 36 is fixedly installed on the upper end of the support base 35, a leaf spring support member 32 is installed on the upper end of the leaf spring support seat 36, clamping cylinders 34 are respectively installed on the left and right ends of the leaf spring support seat 36 outside the leaf spring support member 32, and clamping members 33 are connected to the outside of the clamping cylinders 34. A pressing cylinder support seat 31 is installed on the upper end of the rear end of the support base 35, and a pressing cylinder 30 is installed on the upper end of the pressing cylinder support seat 31. In this embodiment, the middle part of the leaf spring is located directly below the clamping cylinder 30, and the left and right ends are located in the U-shaped groove of the leaf spring support 32. At the same time, the rolled ear is located directly below the end of the clamping member 33. When the clamping cylinder 30 is activated, the clamping telescopic rod extends and pushes the middle part of the leaf spring down. At the same time, the clamping cylinder 34 is activated, and the clamping telescopic rod extends. Since the inner side wall of the clamping member 33 is connected to the clamping member connection point 37 through the bearing, the clamping member connection point 37 is fixed to the outer side wall of the leaf spring support 36. The end of the clamping telescopic rod is connected to the bottom bearing member 38 of the clamping member 33. The clamping telescopic rod extends and pushes the upper end of the clamping member 33 to flip down and press down to complete the fixing of the leaf spring rolled ear.

[0019] like Figure 3 As shown, the telescopic rod end of the clamping cylinder 34 is connected to the clamping member 33 through the bearing member 38. The clamping member connection fulcrum 37 is located at the upper end of the outer side wall of the vertical support rod at both ends of the leaf spring support seat 36 and is fixedly connected to the leaf spring support seat 36. The connection point on the inner side wall of the clamping member 33 is connected to the clamping member connection fulcrum 37 by the bearing.

[0020] like Figure 4 As shown, a slide rail 41 is provided at the bottom of the boring machine body 4, and a support slider 43 is sleeved on the outside of the slide rail 41 and located at the upper end of the slide rail 41. A support base plate 42 is provided at the upper end of the support slider 43, and a ball screw connector is provided at the lower end of the middle part of the support base plate 42. A moving motor 40 is connected to the right side of the ball screw connector. A boring workpiece 44 is provided at the upper end of the support base plate 42, and a boring tool 45 is provided at the left end of the boring workpiece 44. A stepper motor 46 is provided at the upper end of the boring workpiece 44, and a drive gear provided at the right end of the stepper motor 46 is connected to a rotating gear 48 provided at the tail of the boring workpiece 44 through a drive chain. In this embodiment: when the ear and the boring bar 45 are concentric, the moving motor 40 and the stepper motor 46 are started. The moving motor 40 rotates forward and drives the lead screw to rotate. The lead screw is connected to the ball screw connector provided at the lower middle part of the support base plate 42. When the moving motor 40 rotates forward, the support base plate 42 moves to the left. The boring workpiece 44 is located at the upper end of the support base plate 42 and is fixedly connected to the support base plate 42. The boring workpiece 44 and the boring bar 45 are moved to the left to the inside of the ear. The stepper motor 46 is provided with an output gear on the right side and is connected to the rotating gear 48 through a drive chain. During the rotation of the stepper motor 46, the boring bar 45 can be driven to rotate at the same time to complete the ear boring process.

[0021] like Figure 5 , Figure 6 As shown, the bottom of the first milling machine body 5 is provided with a lower support base plate 500, and the upper end of the lower support base plate 500 is provided with a support slide rail 59. The square slider 57 is sleeved on the outside of the support slide rail 59 and located on the upper end of the support slide rail 59. The upper end of the square slider 57 is provided with a power base plate 56, and the upper end of the power base plate 56 is provided with a milling device 55. The lower end of the middle part of the power base plate 56 is provided with a ball screw connector 53. The inner side of the ball screw connector 53 is provided with a screw 58. The outer end of the screw 58 is connected to a servo motor 52. The tail of the screw 58 passes through the ball screw connector 53 and is connected to the screw fixing part 502 bearing. In this embodiment: the drive motor 22 starts, the lead screw 20 rotates forward while the support base 35 continues to move to the left until the milling cutter 54 is concentric with the ear. The drive motor 22 stops rotating, the servo motor 52 rotates forward while driving the lead screw 58 to rotate. The lead screw 58 is connected to the power base plate 56 through the lead screw connector. During the rotation of the lead screw 58, it can push the power base plate 56 to the left and simultaneously drive the milling device 55 and the milling cutter 54 to the left to the ear side wall. The milling motor 50 rotates. The milling motor 50 is connected to the milling gear 501 through the drive chain and drives the milling cutter 54 to rotate to complete the ear side wall milling process. During the milling process, the second milling machine body 6 repeats the working instructions of the first milling machine body 5. After the ear side wall milling is completed, the servo motor 52 reverses, and the power base plate 56 moves to the right away from the ear side wall, completing the ear milling process.

[0022] The servo motor 52 is located on the outer side of the left and right side walls of the lower support base plate 500 and is fixedly connected to the lower support base plate 500.

[0023] like Figure 5As shown, a milling cutter 54 is provided inside the milling device 55, and a milling motor 50 is provided at the upper end of the milling device 55. The connecting gear at the tail of the milling motor 50 is connected to the milling gear 501 at the tail of the milling device 55 through a drive chain. During operation, the milling motor 50 rotates and drives the connecting gear to rotate. The connecting gear is connected to the milling gear 501 through a drive chain. The milling gear 501 is located at the rear end of the milling device 55. During the rotation of the milling gear 501, the milling cutter 54 can rotate to complete the milling process of the ear sidewall.

[0024] When using this invention patent: (e.g.) Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6As shown, firstly, according to the size of the leaf spring and the positions of the boring machine body 4, the first milling machine body 5, and the second milling machine body 6, the setting program needs to be input into the intelligent module. The middle of the leaf spring is placed directly below the clamping cylinder 30, with the left and right ends of the leaf spring passing through the U-shaped grooves of the leaf spring support 32 and positioned directly below the end of the clamping member 33. The clamping cylinder 30 and clamping cylinder 34 are activated, the clamping telescopic rod extends and pushes the middle of the leaf spring downwards, and simultaneously the clamping telescopic rod extends and pushes the top of the clamping member 33 downwards to fix the rolled ear. The intelligent control module controls the drive motor 22 to start, the drive motor 22 rotates forward and drives the lead screw 20 to rotate forward, and the support platform 35 moves left until the rolled ear at the left end of the leaf spring is concentric with the boring tool 45. Based on the size of the leaf spring after tightening and the position of the boring tool 45, the setting program is prepared in advance. The intelligent control module sets a program so that drive motor 22 stops running, support base 35 and leaf spring stop moving, and the intelligent control module controls the moving motor 40 to rotate forward. The moving motor 40 simultaneously drives the lead screw to rotate forward, and the boring workpiece 44 and boring cutter 45 move to the left. At the same time, the intelligent control module controls the stepper motor 46 to rotate, and the stepper motor 46 drives the boring cutter 45 to rotate. The end of the boring cutter 45 moves to the left to the inside of the ear to complete the ear boring process. The intelligent control module moves motor 40 in reverse and drives the boring workpiece and boring cutter 45 to move to the right to the initial position. According to the position size of the leaf spring ear and the position of the milling cutter 54, the intelligent control module sets a program in advance. The intelligent control module controls drive motor 22 to rotate forward and the leaf spring fastening seat 3 and leaf spring continue to move to the left to the left end of the leaf spring ear and milling cutter 54. Concentrically located between the first milling machine body 5 and the second milling machine body 6, the drive motor 22 stops operating, and simultaneously the intelligent control module controls the servo motor 52 to rotate forward. The servo motor 52 rotates forward and drives the lead screw 58 to rotate forward. The lead screw 58 is connected to the power base plate 56 through a ball screw connector. The power base plate 56 moves inward, and the milling device 55 is located on the upper end of the power base plate 56 and is fixedly connected to the power base plate 56. The milling device 55 and the milling cutter 54 move to be close to the side wall of the rolled ear. The milling motor 50 starts, and the connecting gear at the right end of the milling motor 50 is connected to the milling gear 501 through a drive chain. The milling motor 50 drives the milling cutter 54 to rotate to complete the milling process of the side wall of the rolled ear. During the milling process, due to the two sides of the rolled ear respectively set The intelligent control module simultaneously controls the first milling machine body 5 and the second milling machine body 6 to start and complete the milling process of the double side wall of the rolled ear. The intelligent control module controls the servo motor 52 to reverse the power base plate 56 and the milling device 55 and milling cutter 54 located on the upper end of the power base plate 56 away from the rolled ear to the initial position. At the same time, it controls the milling motor 50 to stop rotating. According to the position dimensions of the rolled ear at the right end of the leaf spring, the position dimensions of the boring machine body 4 at the right end, and the position dimensions of the first milling machine body 5 and the second milling machine body 6 at the right end, the intelligent control module sets the program, starts the running program, and repeats the above work instructions to complete the boring and milling process of the rolled ear at the right end of the leaf spring. During the operation, the leaf spring only needs to be fixed below the leaf spring fastening seat 3.By moving the leaf spring fastening seat 3 and the leaf spring to the positions of the boring bar 45 and the milling cutter 54, and by moving the boring bar 45 and the milling cutter 54, the ear-rolling boring and milling processes are completed. This eliminates the need to move the leaf spring to different machine bodies to complete different processes. Furthermore, during the milling process, the first milling machine body 5 and the second milling machine body 6 operate simultaneously to complete the milling process, resulting in higher efficiency. In summary, this invention patent has the advantages of simple structure, and during use, the leaf spring is located above the processing machine body, allowing for simultaneous completion of leaf spring double-ear boring and milling processes, effectively improving processing efficiency, reducing processing steps, and saving manpower and resources.

[0025] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this invention and not to limit it. Although the invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of this invention without departing from the spirit and scope of the invention, and all such modifications and substitutions should be covered within the scope of the claims of this invention.

Claims

1. A device capable of simultaneously milling and boring the double-headed coiled ear of a leaf spring in a new energy vehicle, comprising a machining body (0), characterized in that: The machining body (0) is provided with a slide base (1) at the bottom and a support slide (2) at the top of the slide base (1). The leaf spring fastening seat (3) is located in the middle of the support slide (2) and the threaded hole at the bottom of the leaf spring fastening seat (3) is sleeved on the outside of the lead screw provided in the middle of the support slide (2). When the leaf spring is placed on the upper end of the leaf spring fastening seat (3), the leaf spring fastening seat (3) can automatically fix the leaf spring. The upper ends of the left and right ends of the support slide (2) are provided with a movable slide (7). The upper end of the movable slide (7) is provided with a boring machine body (4). The outer sides of the left and right ends of the boring machine body (4) are provided with a first milling machine body (5) and a second milling machine body (6). The first milling machine body (5) and the second milling machine body (6) are located at the upper ends of the front and rear ends of the movable slide (7) and are symmetrically arranged.

2. The device according to claim 1, capable of simultaneously milling and boring the double-headed coiled ear of a new energy vehicle leaf spring, is characterized in that: The support slide (2) is fixedly equipped with a drive motor (22) at both ends. A lead screw (20) is connected to the inside of the drive motor (22). A support base (35) is provided at the bottom of the leaf spring fastening seat (3). A threaded hole is opened at the bottom of the support base (35) and it is sleeved on the outside of the lead screw (20).

3. The device according to claim 2, capable of simultaneously milling and boring the double-headed coiled ear of a new energy vehicle leaf spring, is characterized in that: The upper end of the support base (35) is fixedly provided with a leaf spring support base (36), the upper end of the leaf spring support base (36) is provided with a leaf spring support member (32), the left and right ends of the leaf spring support base (36) outside the leaf spring support member (32) are respectively provided with clamping cylinders (34), the outside of the clamping cylinders (34) is connected with clamping members (33), the upper end of the rear end of the support base (35) is provided with a pressing cylinder support base (31), and the upper end of the pressing cylinder support base (31) is provided with a pressing cylinder (30).

4. The device according to claim 3, capable of simultaneously milling and boring the double-headed coiled ear of a new energy vehicle leaf spring, characterized in that: The telescopic rod end of the clamping cylinder (34) is connected to the clamping member (33) through the bearing member (38). The clamping member connection fulcrum (37) is located on the outer wall of the leaf spring support (36) and is fixedly connected to the leaf spring support (36). The connection point on the inner wall of the clamping member (33) is connected to the clamping member connection fulcrum (37) by the bearing.

5. The device according to claim 1, capable of simultaneously milling and boring the double-headed coiled ear of a new energy vehicle leaf spring, characterized in that: The boring machine body (4) is provided with a slide rail (41) at the bottom. The support slider (43) is sleeved on the outside of the slide rail (41) and located at the upper end of the slide rail (41). The upper end of the support slider (43) is provided with a support base plate (42). The lower end of the middle part of the support base plate (42) is provided with a ball screw connector. The right side of the ball screw connector is connected to a moving motor (40). The upper end of the support base plate (42) is provided with a boring workpiece (44). The left end of the boring workpiece (44) is provided with a boring tool (45). The upper end of the boring workpiece (44) is provided with a stepper motor (46). The drive gear provided at the right end of the stepper motor (46) is connected to the rotating gear (48) provided at the tail of the boring workpiece (44) through a drive chain.

6. The device according to claim 1, capable of simultaneously milling and boring the double-headed coiled ear of a new energy vehicle leaf spring, characterized in that: The first milling machine body (5) is provided with a lower support base plate (500) at the bottom. A support slide rail (59) is provided at the upper end of the lower support base plate (500). A square slider (57) is sleeved on the outside of the support slide rail (59) and located at the upper end of the support slide rail (59). A power base plate (56) is provided at the upper end of the square slider (57). A milling device (55) is provided at the upper end of the power base plate (56). A ball screw connector (53) is provided at the lower end of the middle part of the power base plate (56). A screw (58) is provided inside the ball screw connector (53). A servo motor (52) is connected to the outer end of the screw (58). The tail of the screw (58) passes through the ball screw connector (53) and is connected to the screw fixing part (502) bearing.

7. The device according to claim 1, capable of simultaneously milling and boring the double-headed coiled ear of a new energy vehicle leaf spring, characterized in that: The servo motor (52) is located on the outer side of the left and right side walls of the lower support base plate (500) and is fixedly connected to the lower support base plate (500).

8. The device according to claim 6, capable of simultaneously milling and boring the double-headed leaf spring of a new energy vehicle, is characterized in that, The milling device (55) is provided with a milling cutter (54) on its inner side, and a milling motor (50) is provided at the upper end of the milling device (55). The connecting gear at the tail of the milling motor (50) is connected to the milling gear (501) at the tail of the milling device (55) through a drive chain.

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