A copper bar processing device for power accessory production

Abstract

This invention belongs to the field of copper rod cutting technology, specifically a copper rod processing device for power component production. It includes a machine tool, a multi-axis moving table, and a conveyor chuck device. A copper rod is placed inside the conveyor chuck device. A turning device is movably mounted above the multi-axis moving table. The machine tool also has auxiliary anti-vibration devices movably mounted on the upper and lower sides of the conveyor chuck device. By setting two auxiliary anti-vibration devices above and below the conveyor chuck device, the diameter of the copper rod to be processed is determined by the simultaneous reverse movement of two contact test pieces inside the two auxiliary anti-vibration devices. Based on this diameter, the component bar, displacement bar, spring guide post, and two rollers can move a fixed distance toward the copper rod until at least one roller contacts the outside of the copper rod. At this point, the spring of the spring guide post is in optimal compression. After anti-vibration operation, the copper rod is turned.

Description

Technical Field

[0001] This invention belongs to the field of copper rod cutting, specifically a copper rod processing device for the production of power accessories. Background Technology

[0002] Copper is a commonly used material in the production of electrical components. It has good electrical conductivity. When manufacturing pins or rod-shaped connectors for electrical tools, copper rods need to be machined. The machining method usually involves fixing one end of the copper rod with a claw plate and then using a machining mechanism to machine the rotating copper rod.

[0003] In traditional turning processes, copper bars are held at one end by an automatic chuck and rotated, while the machining mechanism cuts the extended section. However, when machining slender rod-shaped connectors required for special power components, the overhang length increases significantly, and single-end clamping can easily cause workpiece chatter, which seriously affects machining accuracy and surface quality. In addition, since the diameter of copper bars corresponding to different specifications of accessories varies, existing anti-vibration fixtures often lack universality. Frequent changes to fixtures or support devices not only increase auxiliary time but also restrict the improvement of overall machining efficiency.

[0004] Therefore, the present invention provides a copper rod processing apparatus for the production of power accessories to solve the problems in the background art mentioned above. Summary of the Invention

[0005] The technical solution adopted by the present invention to solve its technical problem is as follows: The present invention provides a copper rod processing device for the production of power accessories, including a machine tool and a multi-axis moving table movably mounted on the machine tool. The machine tool is also equipped with a conveyor chuck device, and a copper rod is placed inside the conveyor chuck device. A turning device is movably mounted above the multi-axis moving table. An auxiliary anti-vibration device is movably mounted on the upper and lower sides of the machine tool where the conveyor chuck device is located. The auxiliary shock absorption device includes a protective frame connected by a rod, a component strip 1 and a contact test piece movably installed inside the protective frame, a displacement strip installed on the side of the component strip 1 facing the copper rod, at least one roller rotatably installed inside the displacement strip, a spring guide post installed on the same side of the component strip 1, and one end of the spring guide post connected to the side of the displacement strip.

[0006] Preferably, a jaw clamping mechanism, an inner circle machining module, and an outer circle machining module are sequentially installed above the turning device. The jaw clamping mechanism is used to clamp the copper rod and then drive the copper rod to move inside the conveyor chuck device through the multi-axis movement of the multi-axis moving table. The inner circle machining module and the outer circle machining module perform turning machining on the copper rod through the multi-axis movement of the multi-axis moving table.

[0007] Preferably, the auxiliary shockproof device includes a telescopic rod fixedly installed on the side of the machine tool and a rotating component fixedly installed at the end of the telescopic rod. A connecting rod is fixedly installed on the outer side of the rotating component, and one end of the connecting rod is connected to the protective frame.

[0008] Preferably, a plurality of guide telescopic components are fixedly installed on one side of the component strip facing the displacement strip, and the plurality of guide telescopic components and the spring guide post are on the same vertical plane. A frame-shaped groove is opened inside the displacement strip, and a roller is rotatably installed inside the frame-shaped groove.

[0009] Preferably, the contact test piece includes a strip-shaped groove block fixedly installed inside the protective frame and a guide block movably sleeved on the outside of the strip-shaped groove block. One side of the guide block is movably installed with component strip two through a slider and groove engagement, and the other side of the guide block is connected to component strip one through a slider and groove engagement.

[0010] Preferably, an arc-shaped triangular block is fixedly installed on one side of the second component, and the arc-shaped triangular block is smoothly arranged facing the copper rod.

[0011] Preferably, a locking component is installed below the guide block, the locking component including a telescopic column fixedly installed below the guide block and a locking disc fixedly installed at the lower end of the telescopic column.

[0012] Preferably, two annular springs are fixedly installed on one side of the guide block, the two annular springs are positioned above and below the strip-shaped groove block, and the ends of the two annular springs are connected to the side wall of the protective frame.

[0013] Preferably, a driving component is installed inside the upper part of the guide block, and the driving component is used to drive the second component and the first component to slide on both sides of the guide block.

[0014] Preferably, the driving component includes a drive gear rotatably mounted inside the guide block above and a drive motor connected above the drive gear via a shaft. The drive motor is mounted above the guide block. An L-shaped rack one and an L-shaped rack two are slidably mounted inside the guide block above. The opposing sides of the L-shaped rack one and the L-shaped rack two are meshed with the drive gear. One outer end of the L-shaped rack two is connected to component rack two, and one outer end of the L-shaped rack one is connected to component rack one. Both the L-shaped rack one and the L-shaped rack two are slidably mounted inside the guide block.

[0015] The beneficial effects of this invention are as follows: This invention discloses a copper rod processing device for power component production. Two auxiliary anti-vibration devices are installed above and below a conveyor chuck. Two contact test pieces inside these devices simultaneously move in opposite directions to determine the diameter of the copper rod to be processed. Based on this diameter, the component strip, displacement strip, spring guide post, and two rollers move a fixed distance toward the copper rod until at least one roller contacts the outside of the copper rod. At this point, the spring of the spring guide post is in optimal compression. Under the action of the two auxiliary anti-vibration devices, the longer end of the copper rod extending to the outside of the conveyor chuck is rolled and pressed by two or more rollers. The pressing force is controlled by the compression and rebound force of the spring guide post, achieving anti-vibration operation. While the copper rod rotates, the cutting tool on the turning device processes the outer and inner diameters of the copper rod through multi-axis movement on a multi-axis moving table. The two auxiliary anti-vibration devices are always located outside the copper rod and can be displaced at the outer diameter of the copper rod via a telescopic structure to facilitate the turning process. Attached Figure Description

[0016] The invention will now be further described with reference to the accompanying drawings.

[0017] Figure 1 This is a three-dimensional view of the entire invention; Figure 2 This is a three-dimensional schematic diagram of the turning device in this invention; Figure 3 This is a three-dimensional schematic diagram of the first state of the auxiliary shock absorption device in this invention; Figure 4 This is a three-dimensional schematic diagram of the second state of the auxiliary shock absorption device in this invention; Figure 5 This is a three-dimensional schematic diagram of the roller and the contact test piece in this invention; Figure 6 This is a three-dimensional schematic diagram of the contact test piece in this invention; Figure 7 This is a three-dimensional schematic diagram of the driving component in this invention.

[0018] In the diagram: 1. Machine tool; 2. Multi-axis moving table; 3. Turning device; 31. Claw mechanism; 32. Inner circle machining module; 33. Outer circle machining module; 4. Conveyor chuck device; 5. Auxiliary anti-vibration device; 51. Telescopic rod; 52. Rotating component; 53. Connecting rod; 54. Protective frame; 55. Component strip one; 551. Guide telescopic component; 56. Displacement strip; 561. Roller; 562. Frame-shaped groove; 57. Spring guide post; 6. Copper rod body; 7. Contact test piece; 71. Component strip two; 711. Arc-shaped triangular block; 72. Guide block; 721. Ring spring; 73. Strip-shaped groove block; 74. Locking component; 741. Telescopic post; 742. Locking disc; 75. Driving component; 751. Active motor; 752. Active gear; 753. L-shaped rack one; 754. L-shaped rack two. Detailed Implementation

[0019] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0020] Example 1: As Figures 1-5 As shown, an embodiment of the present invention provides a copper rod processing device for the production of power accessories, including a machine tool 1 and a multi-axis moving table 2 movably mounted on the machine tool 1. A conveyor chuck device 4 is also installed inside the machine tool 1. A copper rod body 6 is placed inside the conveyor chuck device 4. A turning device 3 is movably mounted above the multi-axis moving table 2. An auxiliary anti-vibration device 5 is movably mounted on the upper and lower sides of the conveyor chuck device 4 on the machine tool 1. The auxiliary shock absorption device 5 includes a protective frame 54 connected by a rod, a component strip 55 and a contact test piece 7 movably installed inside the protective frame 54. A displacement strip 56 is displaced on the side of the component strip 55 facing the copper rod 6. At least one roller 561 is rotatably installed inside the displacement strip 56. A spring guide post 57 is installed on the same side of the component strip 55, and one end of the spring guide post 57 is connected to the side of the displacement strip 56.

[0021] Specifically, the copper rod 6 is placed inside the conveyor chuck device 4 and fixed by the automatic chuck mechanism. When processing slender rod-shaped connectors required for special electrical accessories, the copper rod extends a considerable distance to one side of the conveyor chuck device 4. When the copper rod, held at one end, rotates to cooperate with the turning tool on the turning device 3, workpiece chatter occurs, severely affecting processing accuracy and surface quality. Therefore, in this device, two auxiliary anti-vibration devices 5 are installed above and below the conveyor chuck device 4, so that the two protective frames 54 are positioned above and below the outer side of the extended end of the copper rod 6. When the copper rod 6 is conveyed and moves towards the multi-axis moving stage 2, it will contact the contact test piece 7 set inside the auxiliary anti-vibration device 5. The continued conveying of the copper rod 6 causes the contact test piece 7 to be squeezed and moved towards the inside of the protective frame 54. The diameter of the copper rod to be processed is determined by the distance that the two contact test pieces 7 inside the two auxiliary anti-vibration devices 5 move in opposite directions at the same time. Then, based on this diameter, the component bar 55, displacement bar 56, spring guide post 57 and two rollers 561 can be moved a fixed distance towards the copper rod 6 until at least one roller 561 contacts the outside of the copper rod 6, and at this time the spring of the spring guide post 57 is activated. Under optimal compression, i.e., with the action of two auxiliary anti-vibration devices 5, the longer end of the copper rod extending to the outside of the conveyor chuck device 4 is rolled and pressed by two or more rollers 561. The pressing force is controlled by the compression and rebound force of the spring guide post 57. When the distance the two contact test pieces 7 move is large, it is determined that the diameter of the copper rod body 6 is large, and the spring of the spring guide post 57 is compressed more. At this time, the pressing force of the rollers 561 will be greater, which can better play the anti-vibration role. Moreover, the spring compression force of the spring guide post 57 is adjusted according to the different diameters of the copper rod body 6. Under normal settings, one set of auxiliary anti-vibration devices 5 The internal part of the copper rod 6 is equipped with a roller 561, while the internal part of the other set of auxiliary anti-vibration devices 5 is equipped with two rollers 561. A total of three rollers 561 on the outer side of the copper rod 6 provide pressure. The rollers 561 rotate with the end of the copper rod 6 to achieve anti-vibration work. When the copper rod 6 rotates, the cutting tool on the turning device 3 moves through the multi-axis moving table 2 to process the outer and inner circles of the copper rod 6. The two auxiliary anti-vibration devices 5 are always located on the outer side of the copper rod 6, and the two auxiliary anti-vibration devices 5 can be moved to the outer circle position of the copper rod 6 through the setting of the telescopic structure to cooperate with the turning of the copper rod 6.

[0022] like Figures 2-6 As shown, a jaw clamping mechanism 31, an inner circle machining module 32, and an outer circle machining module 33 are sequentially installed above the turning device 3. The jaw clamping mechanism 31 is used to clamp the copper rod 6 and then drive the copper rod 6 to move inside the conveyor chuck device 4 through the multi-axis movement of the multi-axis moving table 2. The inner circle machining module 32 and the outer circle machining module 33 perform turning machining on the copper rod 6 through the multi-axis movement of the multi-axis moving table 2.

[0023] The auxiliary shock absorption device 5 includes a telescopic rod 51 fixedly installed on the side of the machine tool 1 and a rotating part 52 fixedly installed on the end of the telescopic rod 51. A connecting rod 53 is fixedly installed on the outside of the rotating part 52, and one end of the connecting rod 53 is connected to the protective frame 54.

[0024] Multiple guide telescopic components 551 are fixedly installed on the side of component strip 55 facing displacement strip 56. The multiple guide telescopic components 551 and spring guide post 57 are on the same vertical plane. A frame-shaped groove 562 is opened inside displacement strip 56, and a roller 561 is rotatably installed inside the frame-shaped groove 562.

[0025] The contact test piece 7 includes a strip-shaped groove block 73 fixedly installed inside the protective frame 54 and a guide block 72 movably sleeved on the outside of the strip-shaped groove block 73. One side of the guide block 72 is movably installed with component strip 2 71 by means of slider and groove cooperation, and the other side of the guide block 72 is connected to component strip 1 55 by means of slider and groove cooperation.

[0026] An arc-shaped triangular block 711 is fixedly installed on one side of component strip 2 71, and the arc-shaped triangular block 711 is smoothly positioned facing the copper rod body 6.

[0027] A locking element 74 is installed below the guide block 72. The locking element 74 includes a telescopic column 741 fixedly installed below the guide block 72 and a locking disc 742 fixedly installed at the lower end of the telescopic column 741.

[0028] Two annular springs 721 are fixedly installed on one side of the guide block 72. The two annular springs 721 are located above and below the strip-shaped groove block 73, and the ends of the two annular springs 721 are connected to the side wall of the protective frame 54.

[0029] Specifically, the rotating component 52 drives the connecting rod 53 and the protective frame 54 to rotate, so that the two protective frames 54 are in a relative state. At this time, the extension and retraction of the two telescopic rods 51 can drive the protective frame 54 to move. After the copper rod 6 has been processed once, the part extending to one side of the conveyor chuck device 4 is relatively short. The multi-axis moving table 2 drives the turning device 3 to move in multiple axes, so that the claw mechanism 31 grips the end of the copper rod 6, thereby driving the copper rod 6 to move until the copper rod 6 extends to one side of the conveyor chuck device 4 and is at the set length position. During the conveying process of the copper rod 6, it will push and squeeze the two arc-shaped triangular blocks 711. At this point, the arc-shaped triangular block 711, which contacts the copper rod 6, is smoothly positioned to avoid damaging the surface of the copper rod. Based on the diameter of the copper rod, the arc-shaped triangular block 711 and component strip 71 will be moved a short distance inside the protective frame 54. This movement of component strip 71 will cause the guide block 72, component strip 55, displacement strip 56, and spring guide post 57 to move. In this state, the roller 561 will not contact the outer side of the copper rod 6. The diameter of the processed copper rod 6 is determined by the movement distance of the arc-shaped triangular block 711. Subsequently, the extension of the telescopic post 741 causes the locking disc 742 to abut against the inner wall of the protective frame 54, thus fixing component strip 71, guide block 72, and... Component strip 55, based on the diameter of the copper rod 6, calculates the required movement distance. Driven by the drive component 75, it simultaneously moves component strip 71 and the arc-shaped triangular block 711 away from the copper rod 6. Meanwhile, component strip 55 drives roller 561 and spring guide post 57 closer to the copper rod 6 until at least one roller 561 contacts the outer side of the copper rod 6. At this point, the spring of spring guide post 57 is compressed, undergoing a certain elastic deformation. By testing the movement of component strip 71, the required deformation degree of spring guide post 57 is determined, thus providing better shock absorption for different copper rod diameters. The two auxiliary shock absorption devices 5 are used for shock absorption. During this process, the automatic claw of the conveying chuck device 4 will drive the copper rod 6 to rotate. With the cooperation of the multi-axis moving table 2, the inner circle machining module 32 and the outer circle machining module 33 will turn the copper rod 6 in sequence. After the machining is completed, the locking part 74 will no longer perform the locking function, that is, return to the initial state. At this time, the two compressed ring springs 721 will push the guide block 72, component strip 2 71 and component strip 1 55 to move towards the copper rod 6. During this process, driven by the drive part 75, component strip 2 71 moves towards the copper rod 6, while component strip 1 55 drives the displacement strip 56 and the spring guide post 57 to move away from the copper rod 6, in preparation for the next construction.

[0030] Example 2: Figures 6-7 As shown in the first embodiment, another embodiment of the present invention is as follows: a driving member 75 is installed inside the upper part of the guide block 72, and the driving member 75 is used to drive the second component strip 71 and the first component strip 55 to slide on both sides of the guide block 72.

[0031] The drive unit 75 includes a drive gear 752 rotatably mounted inside the guide block 72 and a drive motor 751 connected above the drive gear 752 via a shaft. The drive motor 751 is mounted above the guide block 72. An L-shaped rack 1 753 and an L-shaped rack 2 754 are slidably mounted inside the guide block 72. The opposing sides of the L-shaped rack 1 753 and the L-shaped rack 2 754 are both meshed with the drive gear 752. One outer end of the L-shaped rack 2 754 is connected to component strip 2 71, and one outer end of the L-shaped rack 1 753 is connected to component strip 1 55. Both the L-shaped rack 1 753 and the L-shaped rack 2 754 are slidably mounted inside the guide block 72.

[0032] Specifically, after the arc-shaped triangular block 711 moves to measure the diameter of the copper rod 6 to be processed, the drive motor 751 drives the drive gear 752 to rotate, which in turn drives the L-shaped rack 2 754 and L-shaped rack 1 753 to move in the direction inside the guide block 72. This causes the component rack 2 71 and component rack 1 55 to move in opposite directions at the same time. At this time, the arc-shaped triangular block 711 moves away from the outside of the copper rod 6, while at least one roller 561 moves towards the copper rod 6 until the spring of the spring guide post 57 is compressed. This compression force causes at least one roller 561 to press against the outside of the copper rod 6 to perform shock absorption. The simultaneous movement of the arc-shaped triangular block 711 and the roller 561 can effectively increase the processing speed.

[0033] Working principle: The copper rod 6 is placed inside the conveyor chuck device 4 and fixed by the automatic chuck mechanism. When processing slender rod-shaped connectors required for special electrical accessories, the copper rod extends a long distance to one side of the conveyor chuck device 4. At this time, when the copper rod, which is clamped at one end, rotates to cooperate with the turning tool on the turning device 3, workpiece chatter will occur, which seriously affects the processing accuracy and surface quality. Therefore, in this device, two auxiliary anti-vibration devices 5 are set above and below the conveyor chuck device 4, so that the two protective frames 54 are located above and below the outer side of the extended end of the copper rod 6. When the copper rod 6 is conveyed and moves towards the multi-axis moving table 2, it will contact the contact test set inside the auxiliary anti-vibration device 5. The continued conveying of the copper rod 6 causes the contact test piece 7 to be squeezed and moved towards the interior of the protective frame 54. The diameter of the copper rod to be processed is determined by the simultaneous reverse movement distance of the two contact test pieces 7 inside the two auxiliary anti-vibration devices 5. Subsequently, based on this diameter, the component strip 55, displacement strip 56, spring guide post 57, and two rollers 561 can be moved a fixed distance towards the copper rod 6 until at least one roller 561 contacts the outside of the copper rod 6. At this time, the spring of the spring guide post 57 is in the optimal compression state. That is, under the action of the two auxiliary anti-vibration devices 5, the longer end of the copper rod extending to the outside of the conveying chuck device 4 is rolled and pressed by two or more rollers 561. The pressing force is exerted by the pressure of the spring guide post 57. Controlled by the retraction force, when the distance the two contact test pieces 7 move is large, it is determined that the diameter of the copper rod 6 is large, and the spring of the spring guide post 57 is compressed more. At this time, the resistance force of the roller 561 will be greater, which can better play the role of shock absorption. The spring compression force of the spring guide post 57 is adjusted according to the different diameters of the copper rod 6. Under normal settings, one set of auxiliary shock absorption devices 5 has one roller 561 inside, and the other set of auxiliary shock absorption devices 5 has two rollers 561 inside. The three rollers 561 on the upper and lower sides of the copper rod 6 provide resistance. The rollers 561 rotate with the end of the copper rod 6 to achieve shock absorption. When the copper rod 6 rotates, the cutting tool on the turning device 3 moves through the multi-axis moving table 2. The axis movement processes the outer and inner diameters of the copper rod 6. Two auxiliary anti-vibration devices 5 are always positioned outside the copper rod 6, and their displacement via a telescopic structure on the outer diameter of the copper rod 6 facilitates the turning process. The rotating component 52 drives the connecting rod 53 and the protective frame 54 to rotate, placing the two protective frames 54 in a relative position. The extension and retraction of the two telescopic rods 51 then displaces the protective frames 54. After one machining operation, the portion of the copper rod 6 extending to the side of the conveyor chuck device 4 is shorter. The multi-axis moving table 2 drives the turning device 3 to perform multi-axis movement, causing the jaw clamping mechanism 31 to grip the end of the copper rod 6, thereby moving the copper rod 6.Until the copper rod 6 extends to one side of the conveying chuck device 4 and is at a set length, during the conveying process of the copper rod 6, it will push and press against the two arc-shaped triangular blocks 711. At this time, the arc-shaped triangular blocks 711 in contact with the copper rod 6 are smoothly set and will not damage the surface of the copper rod. According to the diameter of the copper rod, the arc-shaped triangular blocks 711 and component strip 2 71 will be pushed against the inside of the protective frame 54 and move a distance. At this time, the movement of component strip 2 71 will drive the movement of guide block 72, component strip 1 55, displacement strip 56 and spring guide post 57. In this state, roller 561 will not contact the outer side of copper rod 6. The diameter of the copper rod 6 to be processed is determined by the movement distance of the arc-shaped triangular block 711. Then, the extension of the telescopic column 741 drives the locking plate 742 to abut against the inner wall of the protective frame 54 to fix component strip 2 71, guide block 72 and component strip 1 55. The required movement distance of component strip 1 55 is calculated according to the diameter of copper rod 6. Driven by the drive component 75, component strip 2 71 and arc-shaped triangular block 711 are moved away from copper rod 6, while component strip 1 55 drives the roller 561 to move away from copper rod 6. Roller 561 and spring guide post 57 approach the copper rod body 6 until at least one roller 561 contacts the outer side of the copper rod body 6. At this time, the spring of the spring guide post 57 is compressed and subjected to a certain elastic deformation. By testing the movement of component strip 2 71, the required deformation degree of the spring guide post 57 is determined, thereby providing better shock absorption for different copper rod diameters. When the two auxiliary shock absorption devices 5 are performing shock absorption, the automatic claw of the conveyor chuck device 4 will drive the copper rod body 6 to rotate. With the cooperation of the multi-axis moving table 2, the inner circle is increased. The machining module 32 and the outer diameter machining module 33 sequentially perform turning machining on the copper rod 6. After machining is completed, the locking component 74 ceases its locking function, returning to its initial state. At this time, the two compressed annular springs 721 push the guide block 72, component strip 2 71, and component strip 1 55 towards the copper rod 6. During this process, driven by the drive component 75, component strip 2 71 moves towards the copper rod 6, while component strip 1 55 drives the displacement strip 56 and the spring guide post 57 to move away from the copper rod 6, ready for the next machining operation.

[0034] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A copper rod processing device for the production of power accessories, comprising a machine tool (1) and a multi-axis moving table (2) movably mounted on the machine tool (1), wherein a conveyor chuck device (4) is also installed inside the machine tool (1), a copper rod body (6) is placed inside the conveyor chuck device (4), and a turning device (3) is movably mounted above the multi-axis moving table (2), characterized in that: The machine tool (1) is equipped with a conveyor chuck device (4), and an auxiliary anti-vibration device (5) is movably installed on the upper and lower sides of the side. The auxiliary shock absorption device (5) includes a protective frame (54) connected by a rod, and a component strip (55) and a contact test piece (7) movably installed inside the protective frame (54). The component strip (55) has a displacement strip (56) installed on one side facing the copper rod (6). At least one roller (561) is rotatably installed inside the displacement strip (56). A spring guide post (57) is installed on the same side of the component strip (55), and one end of the spring guide post (57) is connected to the side of the displacement strip (56).

2. The copper rod processing device for power component production according to claim 1, characterized in that: The turning device (3) is equipped with a jaw clamping mechanism (31), an inner circle machining module (32), and an outer circle machining module (33) in sequence. The jaw clamping mechanism (31) is used to clamp the copper rod (6) and then drive the copper rod (6) to move inside the conveyor chuck device (4) through the multi-axis movement of the multi-axis moving table (2). The inner circle machining module (32) and the outer circle machining module (33) perform turning machining on the copper rod (6) through the multi-axis movement of the multi-axis moving table (2).

3. The copper rod processing device for power component production according to claim 1, characterized in that: The auxiliary shockproof device (5) includes a telescopic rod (51) fixedly installed on the side of the machine tool (1) and a rotating part (52) fixedly installed at the end of the telescopic rod (51). A connecting rod (53) is fixedly installed on the outside of the rotating part (52), and one end of the connecting rod (53) is connected to the protective frame (54).

4. The copper rod processing device for power component production according to claim 1, characterized in that: Multiple guide telescopic components (551) are fixedly installed on the side of the component strip (55) facing the displacement strip (56). The multiple guide telescopic components (551) and the spring guide post (57) are on the same vertical plane. A frame-shaped groove (562) is opened inside the displacement strip (56), and a roller (561) is rotatably installed inside the frame-shaped groove (562).

5. The copper rod processing device for power component production according to claim 1, characterized in that: The contact test piece (7) includes a strip-shaped groove block (73) fixedly installed inside the protective frame (54) and a guide block (72) movably sleeved on the outside of the strip-shaped groove block (73). One side of the guide block (72) is movably installed with component strip two (71) by means of slider and groove cooperation, and the other side of the guide block (72) is connected to component strip one (55) by means of slider and groove cooperation.

6. The copper rod processing device for power component production according to claim 5, characterized in that: An arc-shaped triangular block (711) is fixedly installed on one side of the component strip (71), and the arc-shaped triangular block (711) is smoothly arranged facing the copper rod body (6).

7. The copper rod processing device for power component production according to claim 5, characterized in that: A locking element (74) is installed below the guide block (72). The locking element (74) includes a telescopic column (741) fixedly installed below the guide block (72) and a locking disc (742) fixedly installed at the lower end of the telescopic column (741).

8. The copper rod processing device for power component production according to claim 5, characterized in that: Two annular springs (721) are fixedly installed on one side of the guide block (72). The two annular springs (721) are located above and below the strip-shaped groove block (73). The ends of the two annular springs (721) are connected to the side wall of the protective frame (54).

9. A copper rod processing device for the production of power accessories according to claim 5, characterized in that: A drive component (75) is installed inside the upper part of the guide block (72), and the drive component (75) is used to drive the second component (71) and the first component (55) to slide on both sides of the guide block (72).

10. A copper rod processing device for power component production according to claim 9, characterized in that: The drive unit (75) includes a drive gear (752) rotatably mounted inside the guide block (72) and a drive motor (751) connected above the drive gear (752) via a shaft. The drive motor (751) is mounted above the guide block (72). An L-shaped rack one (753) and an L-shaped rack two (754) are slidably mounted inside the guide block (72). The opposing sides of the L-shaped rack one (753) and the L-shaped rack two (754) are both meshed with the drive gear (752). One end of the L-shaped rack two (754) is connected to the outer side of component strip two (71). One end of the L-shaped rack one (753) is connected to the outer side of component strip one (55). Both the L-shaped rack one (753) and the L-shaped rack two (754) are slidably mounted inside the guide block (72).

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