Electrode processing device

Abstract

The utility model provides an electrode machining device which comprises a rack with the top being a working face. The discharging mechanism is arranged at one end, in the first direction, of the working face and used for discharging and initially shaping the electrode; the limiting mechanism is arranged on the working surface, is adjacent to the discharging mechanism and is used for receiving the electrode discharged by the discharging mechanism and fixing the electrode; the cutting mechanism is arranged on the working face, stretches across the limiting mechanism, can move on the side, away from the working face, of the limiting mechanism in the first direction and is used for punching and cutting the electrode in the limiting mechanism at a set position; the traction mechanism is arranged on the working face, located on the side, away from the discharging mechanism in the first direction, of the limiting mechanism and used for pulling the electrode so that the electrode can penetrate through the limiting mechanism in the first direction.

Description

Technical Field

[0001] The present disclosure relates to the technical field of workpiece processing, and particularly to an electrode processing device. Background Art

[0002] In a flow battery, by electrolyzing zinc ions in an electrode composition loop, the zinc ions migrate from the positive electrode to the negative electrode, or from the negative electrode to the positive electrode, forming a chemical reaction, thereby realizing the charge and discharge of the flow battery.

[0003] The existing punching and cutting of electrode strips are often processed separately. During this period, the multiple material receiving and step transfer of the material usually require manual operation, which will consume a certain amount of labor and time, and the degree of automation is poor. Summary of the Utility Model

[0004] In view of this, the present disclosure proposes an electrode processing device to solve or partially solve the above problems.

[0005] Based on the above purpose, the present disclosure provides an electrode processing device, including:

[0006] A frame with a working surface at the top;

[0007] A feeding mechanism arranged at one end of the working surface along a first direction, for feeding and initially shaping the electrode;

[0008] A limiting mechanism arranged on the working surface, adjacent to the feeding mechanism, for receiving the electrode released by the feeding mechanism and fixing the electrode;

[0009] A cutting mechanism arranged on the working surface and spanning across the limiting mechanism, capable of moving along the first direction on the side of the limiting mechanism away from the working surface, for performing punching and cutting operations on the electrode in the limiting mechanism at a set position;

[0010] A traction mechanism arranged on the working surface, on the side of the limiting mechanism along the first direction away from the feeding mechanism, for pulling the electrode so that the electrode can pass through the limiting mechanism along the first direction.

[0011] In some exemplary embodiments, the feeding mechanism includes:

[0012] A first bracket fixed to one end of the working surface along the first direction;

[0013] A feeding tray arranged at the end of the first bracket away from the frame, for carrying and releasing the electrode;

[0014] The first power unit is disposed at one end of the first bracket away from the frame and is connected to the material feeding tray for driving the material feeding tray.

[0015] The first guide wheel is disposed on the first bracket on the side of the material feeding tray close to the frame for guiding the electrode.

[0016] The sliding bracket is disposed on the first bracket on the side of the first guide wheel close to the frame and extends along the second direction, where the second direction is perpendicular to the working surface.

[0017] The induction sheet is slidably disposed on the sliding bracket and can slide on the sliding bracket along the second direction.

[0018] The second guide wheel is fixedly disposed on the induction sheet for guiding the electrode and determining the length of the electrode.

[0019] The first inductor and the second inductor are disposed at both ends of the sliding bracket in the second direction for determining the position of the induction sheet.

[0020] The third guide wheel is disposed on the first bracket on the side of the sliding bracket close to the frame for guiding the electrode passing through the second guide wheel.

[0021] In some exemplary embodiments, the limiting mechanism includes:

[0022] The guide rail is fixed to the working surface along the first direction and is adjacent to the material feeding mechanism for receiving the electrode released from the material feeding mechanism.

[0023] The limiting plate is disposed on the side of the guide rail away from the working surface for restricting the movement of the electrode and capable of pressing the electrode.

[0024] The second power unit is connected to the limiting plate for providing power for the limiting plate to press the electrode.

[0025] At least one pressing strip is disposed on the side of the limiting plate facing the working surface corresponding to the guide rail.

[0026] At least one pressing groove is disposed on the guide rail corresponding to the at least one pressing strip for accommodating the at least one pressing strip when the limiting plate presses.

[0027] The first limiting component and the second limiting component are disposed at the end of the guide rail away from the material feeding mechanism for clamping the electrode extending from the guide rail through mutual cooperation.

[0028] The third power unit and the fourth power unit are respectively connected to the first limiting component and the second limiting component, and are used to provide power for the first limiting component and the second limiting component;

[0029] A blanking hole is provided on the guide rail for collecting waste during the electrode processing.

[0030] In some exemplary embodiments, the limiting mechanism further includes:

[0031] A third inductor is provided at one end of the guide rail close to the feeding mechanism for detecting the electrode.

[0032] In some exemplary embodiments, the cutting mechanism includes:

[0033] A second bracket is provided on the working surface;

[0034] A first moving component is provided on the side of the second bracket away from the working surface;

[0035] A first support plate is slidably provided on the side of the first moving component away from the working surface and is used to slide along the first direction on the first moving component under the control of the first moving component;

[0036] A second moving component is fixedly provided on the first support plate and extends along a second direction; wherein the second direction is perpendicular to the working surface;

[0037] A cutting component is movably provided at one end of the second moving component facing the working surface and can move along the second direction under the control of the second moving component for punching and cutting operations on the electrode restricted by the limiting mechanism.

[0038] In some exemplary embodiments, the traction mechanism includes:

[0039] A guiding component is provided on the side of the limiting mechanism away from the feeding mechanism along the first direction;

[0040] A supporting component is slidably provided on the guiding component and can slide along the first direction on the guiding component;

[0041] A traction claw and a fifth power unit, the traction claw is fixedly connected to the supporting component through the fifth power unit, and the traction claw is used to grab and fix the electrode extending from the limiting mechanism under the drive of the fifth power unit.

[0042] In some exemplary embodiments, the electrode processing device further includes:

[0043] The discharging mechanism is arranged on the working surface, on one side of the limiting mechanism away from the feeding mechanism along the first direction, and on one side of the traction mechanism along the third direction. It is used to carry the electrode pulled out by the traction mechanism from the limiting mechanism and collect the electrode after the cutting mechanism finishes cutting the electrode; wherein the third direction is perpendicular to the first direction on the working surface.

[0044] In some exemplary embodiments, the discharging mechanism includes:

[0045] The second support plate is movably arranged on the working surface along the second direction and is connected to the limiting mechanism, and is used to drive the cut electrode to move along the second direction; wherein the second direction is perpendicular to the working surface.

[0046] The adsorption assembly and the sixth power unit. The adsorption assembly is fixedly arranged on the working surface through the sixth power unit, and is used to drive the adsorption assembly to adsorb the electrode on the second support plate and adsorb the electrode to move through the sixth power unit.

[0047] The third support is fixedly arranged on the working surface, on one side of the traction mechanism along the third direction.

[0048] The material receiving structure is fixedly arranged at one end of the third support away from the traction mechanism, and is used to receive the electrode adsorbed by the adsorption assembly.

[0049] The seventh power unit is fixedly connected to the frame and the material receiving structure, and is used to perform a pushing operation on the material receiving structure.

[0050] In some exemplary embodiments, the electrode processing device further includes:

[0051] The collection mechanism is arranged on one side of the working surface away from the limiting mechanism and corresponds to the limiting mechanism, and is used to collect the waste generated when the cutting mechanism operates on the electrode when the electrode is fixed by the limiting mechanism.

[0052] In some exemplary embodiments, the electrode processing device further includes:

[0053] The purification mechanism is connected to the collection mechanism and is used to purify and process the waste.

[0054] As can be seen from the above, an electrode processing device provided by the present disclosure includes: a frame with a working surface at the top; a feeding mechanism arranged at one end of the working surface along a first direction for feeding and initially shaping an electrode; a limiting mechanism arranged on the working surface adjacent to the feeding mechanism for receiving the electrode released by the feeding mechanism and fixing the electrode; a cutting mechanism arranged on the working surface and spanning across the limiting mechanism, capable of moving along the first direction on the side of the limiting mechanism away from the working surface for performing drilling and cutting operations on the electrode within the limiting mechanism at a set position; a traction mechanism arranged on the working surface on the side of the limiting mechanism away from the feeding mechanism along the first direction for pulling the electrode so that the electrode can pass through the limiting mechanism along the first direction. The present disclosure performs automatic feeding of the electrode through the feeding mechanism, then uses the traction mechanism to pull the electrode so that the unprocessed part enters the limiting mechanism, and then uses the limiting mechanism to fix the electrode to facilitate automatic drilling and cutting operations. Finally, the cutting mechanism performs automatic drilling and cutting on the fixed electrode, and so on in a cycle, thereby realizing the integrated processing of drilling and cutting of the electrode, which is more efficient and labor-saving and has a relatively high degree of automation. BRIEF DESCRIPTION OF THE DRAWINGS

[0055] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the following drawings are only some embodiments of the present invention, and those of ordinary skill in the art can also obtain other drawings without creative efforts based on these drawings.

[0056] Figure 1 FIG. shows a three-dimensional structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure.

[0057] Figure 2 FIG. shows another three-dimensional structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure.

[0058] Figure 3 FIG. shows a partial structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure.

[0059] Figure 4 FIG. shows another partial structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure.

[0060] Figure 5 FIG. shows another partial structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure.

[0061] Figure 6Another partial structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure is shown.

[0062] Figure 7 Another partial structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure is shown.

[0063] Figure 8 Another partial structural schematic diagram of the electrode processing device according to an embodiment of the present disclosure is shown.

[0064] Illustration: 1. Frame; 2. Loading mechanism; 3. Limiting mechanism; 4. Cutting mechanism; 5. Traction mechanism; 6. Discharging mechanism; 7. Purifying mechanism; 8. Collecting mechanism; 11. Working surface; 21. First bracket; 22. First power unit; 23. Loading tray; 24. First guide wheel; 25. Sliding bracket; 26. Inductive sheet; 27. First inductor; 28. Second inductor; 29. Third guide wheel; 210. Second guide wheel; 31. Guide rail; 32. Second power unit; 33. Limiting plate; 34. Pressure strip; 35. Pressure groove; 36. Third power unit; 37. Fourth power unit; 38. First limiting component; 39. Second limiting component; 310. Blanking hole; 311. Third inductor; 41. First moving component; 42. Second bracket; 43. First support plate; 44. First support member; 45. Second moving component; 46. Cutting component; 51. Guide component; 52. Support component; 53. Fifth power unit; 54. Traction claw; 61. Third bracket; 62. Second support plate; 63. Seventh power unit; 64. Material receiving structure; 65. Eighth power unit; 66. Ninth power unit; 67. Adsorption component; 68. Control button. Detailed implementation manners

[0065] In order to make the objectives, technical solutions and advantages of the present utility model clearer and more understandable, the present utility model will be further described in detail below with reference to specific embodiments and the accompanying drawings.

[0066] It should be noted that, unless otherwise defined, the technical terms or scientific terms used in the embodiments of this specification should have the ordinary meanings understood by those of ordinary skill in the field to which this disclosure pertains. The "first", "second" and similar terms used in this disclosure do not denote any order, quantity or importance, but are only used to distinguish different components. Words such as "including" or "comprising" mean that the elements or objects appearing before this word cover the elements, objects and their equivalents listed after this word, without excluding other elements or objects. Words such as "connected" or "coupled" are not limited to physical or mechanical connections, but may include electrical connections, whether direct or indirect. "Upper", "lower", "left", "right", etc. are only used to represent relative positional relationships, and when the absolute position of the object being described changes, the relative positional relationship may also change accordingly.

[0067] The following disclosure provides many different embodiments or examples for implementing different structures of the embodiments of the present utility model. To simplify the disclosure of the embodiments of the present utility model, the components and settings of specific examples are described below. Of course, the purpose of the examples is not to limit the embodiments of the present utility model. In addition, the embodiments of the present utility model may repeat reference numerals and / or reference letters in different examples. Such repetition is for the purpose of simplification and clarity, and does not itself indicate the relationship between the various embodiments and / or settings discussed.

[0068] To better understand the purpose, structure and function of this disclosure, the following Figures 1 to 8 will further describe in detail an electrode processing device of this disclosure in conjunction with the Figure 1 accompanying drawings. Among them, the Figure 2 accompanying drawings show the overall structural schematic diagram of the electrode processing device of the embodiments of this disclosure, and the

[0069] accompanying drawings show the overall structural schematic diagram of the electrode processing device of the embodiments of this disclosure after adding some detailed structures.

[0069] Refer to Figures 1 to 8As shown in the figure, the electrode processing device of the present disclosure may include: a frame 1, with a working surface 11 at the top; a feeding mechanism 2, arranged at one end of the working surface 11 along the first direction, for feeding and initially shaping the electrode; a limiting mechanism 3, arranged on the working surface 11, adjacent to the feeding mechanism 2, for receiving the electrode released by the feeding mechanism 2 and fixing the electrode; a cutting mechanism 4, arranged on the working surface 11 and spanning across the limiting mechanism 3, capable of moving along the first direction on the side of the limiting mechanism 3 away from the working surface 11, for performing drilling and cutting operations on the electrode within the limiting mechanism 3 at a set position; a traction mechanism 5, arranged on the working surface 11, on the side of the limiting mechanism 3 along the first direction away from the feeding mechanism 2, for pulling the electrode so that the electrode can pass through the limiting mechanism 3 along the first direction.

[0070] Among them, the working surface 11 is the main working plane for electrode processing. In a specific scenario, it is generally the upper surface of the frame 1. Subsequently, in a specific scenario, the electrode processing device can process only one electrode or multiple electrodes. For example, Figures 1 to 8 The figure shows an example of processing two electrodes simultaneously. Subsequently, in this embodiment, the first direction and the third direction are two mutually perpendicular directions on the working surface 11, such as the length direction and the width direction of the frame 1. In this embodiment and subsequent embodiments, only the first direction is taken as the length direction of the frame 1 and the third direction is taken as the width direction of the frame 1 for description. In addition, the height direction of the frame 1 can be regarded as the second direction, that is, the direction perpendicular to the working surface 11.

[0071] In some embodiments, the feeding mechanism 2 is mainly used to store unprocessed electrode strips and release the electrode strips. For storing the electrode strips, it can store the electrode strips by coiling them up. Of course, other more convenient storage methods can also be used. Subsequently, the release of the electrode strips can directly convey the electrode strips to the subsequent limiting mechanism 3, or the electrode strips can be initially shaped (for example, after coiling and storing and then releasing, the electrode strips may be bent to a certain extent when released). At the same time, in order to further facilitate processing, when the feeding mechanism 2 releases the electrode strips, a certain structure can be used to perform a tensioning operation on the electrode strips to facilitate subsequent fixing and cutting and drilling operations.

[0072] Subsequently, the limiting mechanism 3 is mainly used to fix the unprocessed electrode strips to facilitate the cutting by the cutting mechanism 4. The way it fixes can be by using clamping plates, etc., to clamp and fix the electrode strips; or clamping the two ends of the electrode strips for fixing; or placing the electrode strips into a suitable groove and using the groove structure to fix them, as well as combinations of the above methods.

[0073] The cutting mechanism 4 is mainly used for cutting and drilling operations. Its working mode can be to be set at a fixed position. After the limiting mechanism 3 carries the electrode strip into the predetermined position, drilling or cutting operations can be directly carried out; or the cutting mechanism 4 is a movable structure. For example, it can move in three directions: the first direction, the second direction, and the third direction, or move in two or one of these directions, etc. After the limiting mechanism 3 fixes the electrode strip, the cutting mechanism 4 moves itself to one or several positions where operations are required, and then performs operations in sequence. For the cutting method of the cutting mechanism 4, it can be laser cutting and drilling, or drilling with a drill, cutting with a cutting disc, or water jet cutting and drilling, etc. In a more specific scenario, the limiting mechanism 3 can obtain an electrode strip of a specified length each time, and then fix it. At the same time, for the part of the limiting mechanism 3 corresponding to the position where the electrode strip needs to be processed, if it is between the cutting mechanism 4 and the electrode strip, through a hollow design, etc., it is convenient for the operation of the cutting mechanism 4. If it is on the side of the electrode strip far from the cutting mechanism 4, a collecting structure for collecting waste generated during the processing operation (being cut or drilled), such as a blanking hole 310 and other structures, can be designed.

[0074] The traction mechanism 5 is mainly responsible for the traction operation of the electrode strip, pulling out the unprocessed electrode strip and feeding it into the limiting mechanism 3, and / or pulling out the electrode strip that has completed drilling from the limiting mechanism 3 to facilitate cutting and collection. In a more specific scenario, for the operation of the electrode strip, it can be drilled first and then cut, that is, the drilling operation is mainly completed in the limiting mechanism 3, and then the traction mechanism 5 pulls it out of the limiting mechanism 3. At this time, since the electrode strip has not been cut yet, the unprocessed electrode strip can be pulled into the limiting mechanism 3 together (the electrode strip can be considered to be set in the form of a complete long strip before cutting). After the traction mechanism 5 pulls out a certain length, the electrode strip section that has completed drilling is pulled out of the limiting mechanism 3, and the inside of the limiting mechanism 3 is all electrode strip sections waiting for drilling. Then the cutting mechanism 4 can first perform cutting operations at the set position, so that the electrode strip pulled by the traction mechanism 5 is completed with cutting and becomes a processed electrode strip. Then these electrode strips can be collected. At the same time, after the cutting mechanism 4 completes cutting, it can then move to the preset drilling position to perform drilling operations on the unprocessed electrode strip in the limiting mechanism 3. After drilling is completed, the traction mechanism 5 pulls again, and this cycle forms an automated integrated operation of electrode drilling and cutting, which is more efficient and labor-saving and has a higher degree of automation.

[0075] After that, the specific structures of each mechanism in the electrode processing device in some embodiments will be further described.

[0076] In some embodiments, such as Figure 3As shown, a partial schematic diagram of the specific structure of a feeding mechanism 2 of the electrode processing device according to an embodiment of the present disclosure is shown. It can be seen that since two processing lines for electrode strips are provided, the corresponding structures are arranged in pairs relatively. Here, only one of the processing lines will be specifically introduced. The feeding mechanism 2 may further include: a first bracket 21 fixed to one end of the working surface 11 along the first direction; a feeding tray 23 arranged at one end of the first bracket 21 away from the frame 1 for carrying and discharging the electrodes; a first power unit 22 arranged at one end of the first bracket 21 away from the frame 1 and connected to the feeding tray 23 for driving the feeding tray 23; a first guiding wheel 24 arranged on the first bracket 21 on the side of the feeding tray 23 close to the frame 1 for guiding the electrodes; a sliding bracket 25 arranged on the first bracket 21 on the side of the first guiding wheel 24 close to the frame 1 and extending along the second direction, where the second direction is perpendicular to the working surface 11; an induction piece 26 slidably arranged on the sliding bracket 25 and capable of sliding on the sliding bracket 25 along the second direction; a second guiding wheel 210 fixedly arranged on the induction piece 26 for guiding the electrodes and determining the length; a first inductor 27 and a second inductor 28 arranged at both ends of the sliding bracket 25 in the second direction for determining the position of the induction piece 26; and a third guiding wheel 29 arranged on the first bracket 21 on the side of the sliding bracket 25 close to the frame 1 for guiding the electrodes passing through the second guiding wheel 210.

[0077] In this embodiment, the first bracket 21 mainly plays a supporting role for other structures in the feeding mechanism 2. The feeding tray 23 mainly stores the unprocessed electrodes, and the electrodes are generally arranged in the form of electrode strips and are in a long strip shape. One electrode strip can be stored in the feeding tray 23 by being wound around the feeding tray 23. The first power unit 22 is mainly used to drive the feeding tray 23, control when the feeding tray 23 discharges materials, when it stops discharging materials, and the discharging speed, etc.

[0078] It should be noted that in this embodiment and subsequent embodiments, the power unit is a component for providing a power source, which may include one or several cylinders, motors, and necessary transmission structures and other power components capable of providing power, and no specific limitation is made here.

[0079] After that, taking Figure 3 as an example, the electrode strip can be discharged from the upper end of the feeding tray 23 or from the lower end. Taking the lower end discharge as an example, first, it passes through the first guiding wheel 24. The electrode strip can pass through the upper side of the first guiding wheel 24, then pass through the second guiding wheel 210 and pass through its lower side, and then pass through the third guiding wheel 29. At Figure 3Among them, there are multiple third guide wheels for shaping the electrode strip so that it can output in a straight line as much as possible. Then, the second guide wheel 210 can be mainly used to estimate the length of the released electrode strip. During the feeding process of the feeding tray 23, under the gravity of the second guide wheel 210 and the corresponding structure, as the length of the electrode strip increases, the second guide wheel 210 will gradually move downward, and the electrode strip bypassing it will also move downward accordingly, so as to increase the length of the released electrode strip and estimate the length of the released electrode strip at the same time. Of course, in order to limit it, two sensors, namely the first sensor 27 and the second sensor 28, can be set at the upper and lower ends of the sliding bracket 25. When the second guide wheel 210 or the sensing piece 26 drops to the position of the second sensor 28, it is considered to reach the lower limit and the feeding of the feeding tray 23 needs to be stopped; when the second guide wheel 210 or the sensing piece 26 moves up to the position of the first sensor 27 (this is generally caused by the traction of the electrode strip by the traction mechanism 5), the feeding is restarted and the second guide wheel 210 or the sensing piece 26 drops to the position of the second sensor 28 again. Finally, there can be multiple third guide wheels 29. Generally, the one closest to the second guide wheel 210 or the sensing piece 26 can be designed larger to carry the electrode coming from the second guide wheel 210. The subsequent multiple third guide wheels 29 are mainly used for shaping. They can be arranged on the first bracket 21 through an elastic structure. For example, each third guide wheel 29 can move up and down on the first bracket 21 along the second direction through a spring or other structures. In some more specific scenarios, the first guide wheel 24 is generally located between the first sensor 27 and the second sensor 28.

[0080] In some embodiments, such as Figure 4As shown, a partial schematic diagram of the specific structure of a limiting mechanism 3 of the electrode processing device according to an embodiment of the present disclosure is shown. Similar to the feeding mechanism 2, two processing lines are used as an example in the figure, and only one of them will be described in terms of its structure here. The limiting mechanism 3 may further include: a guide rail 31, fixed to the working surface 11 along the first direction, adjacent to the feeding mechanism 2, and used to receive the electrode released from the feeding mechanism 2; a limiting plate 33, arranged on the side of the guide rail 31 away from the working surface 11, used to limit the movement of the electrode and capable of pressing the electrode; a second power unit 32, connected to the limiting plate 33, and used to provide power for the limiting plate 33 to press the electrode; at least one pressing strip 34, arranged on the side of the limiting plate 33 facing the working surface 11, corresponding to the guide rail 31; at least one pressing groove 35, arranged on the guide rail 31, corresponding to the at least one pressing strip 34, and used to accommodate the at least one pressing strip 34 when the limiting plate 33 presses; a first limiting component 38 and a second limiting component 39, arranged at one end of the guide rail 31 away from the feeding mechanism 2, and used to clamp the electrode extending from the guide rail 31 through mutual cooperation; a third power unit 36 and a fourth power unit 37, respectively connected to the first limiting component 38 and the second limiting component 39, and used to provide power for the first limiting component 38 and the second limiting component 39; a blanking hole 310, arranged on the guide rail 31, and used to collect the waste during the electrode processing.

[0081] In this embodiment, the guide rail 31 can limit the electrode bar by accommodating it and fix it after the limiting plate 33 is pressed down, as Figure 4 shown. The electrode bar can pass through the through-hole structure along the first direction inside the structure of the guide rail 31. Then the limiting plate 33 is pressed down, driving the pressing strip 34 to be pressed down, so that the pressing strip 34 passes through the corresponding pressing groove 35 on the guide rail 31 and finally presses on the electrode bar, thereby forming the pressing of the electrode bar. Of course, in some other embodiments, the electrode bar can also pass through the guide rail 31 in other forms. For example, a suitable groove can be arranged on the top of the guide rail 31 for the electrode bar to pass through. In some more specific scenarios, the guide rail 31 is generally located on one side of the third guide wheel 29 to receive the electrode coming out of the third guide wheel 29.

[0082] The second power unit 32 provides the power for pressing down the limiting plate 33. It can be arranged on the upper side or the lower side of the limiting plate 33, or can be connected through a transmission structure. Then, the first limiting component 38 and the second limiting component 39 are arranged at one end of the guide rail 31 far from the feeding mechanism 2, so as to clamp and fix the head of the unprocessed electrode strip, and can also provide fixation for the cutting of the electrode strip. During normal operation, the traction mechanism 5 will pull out the electrode strip that has completed punching from the limiting mechanism 3. At this time, cutting has not been carried out yet. Furthermore, the first limiting component 38 and the second limiting component 39 can fix the entire electrode strip and provide positioning and other assistance for the cutting of the electrode strip. Then, the blanking hole 310 can be a hole-shaped structure arranged on the guide rail 31 at the position where the electrode is punched. On the one hand, it can collect the punching waste generated during electrode punching. On the other hand, this hole also facilitates the punching operation, such as facilitating the entry of lasers, water jets, drills, etc.

[0083] Furthermore, in order to monitor the situation of the electrode strip entering the limiting mechanism 3, a third sensor 311 can be arranged at one end of the guide rail 31 close to the feeding mechanism 2 to detect the electrode.

[0084] In some embodiments, as Figure 5 shown, a partial schematic diagram of the specific structure of a cutting mechanism 4 of the electrode processing device according to an embodiment of the present disclosure is shown. It can be seen that in the illustration, an example is given with two processing lines. In specific applications, only one processing line can also be set, etc. Specifically, the cutting mechanism 4 can include: a second bracket 42 arranged on the working surface 11; a first moving component 41 arranged on the side of the second bracket 42 far from the working surface 11; a first support plate 43 slidably arranged on the side of the first moving component 41 far from the working surface 11, and used to slide along the first direction on the first moving component 41 under the control of the first moving component 41; a second moving component 45 fixedly arranged on the first support plate 43 and extending along a second direction; wherein the second direction is perpendicular to the working surface; a cutting component 46 movably arranged at one end of the second moving component 45 facing the working surface 11, and capable of moving along the second direction under the control of the second moving component 45, and used to perform punching and cutting operations on the electrode limited by the limiting mechanism 3.

[0085] In this embodiment, the second bracket 42 mainly supports other structures in the cutting mechanism 4. The first moving component 41 can be seen as a strip-shaped track type component extending in the first direction, which can enable the first support plate 43 to slide above it in the first direction and control its sliding. Then, the first support plate 43 is mainly used to support the second moving component 45 and the cutting component 46 thereon. In a specific scenario, the second moving component 45 can be directly arranged on the first support plate 43, or a first fixing component 44 for support and fixation can be arranged between the second moving component 45 and the first support plate 43 according to the needs of the specific scenario. The first fixing component 44 is fixedly connected to the second moving component 45 and the first support plate 43 respectively. Then, the second moving component 45 extends in the second direction and is used to control the cutting component 46 to move in the second direction on the second moving component 45. In this way, the cutting component 46 realizes movement in the first direction and the second direction under the cooperation of the first moving component 41 and the second moving component 45. Then, the cutting component 46 can specifically be structures such as a laser head, a water jet head, etc., and is connected through corresponding connection structures (such as a connecting plate, etc.).

[0086] In the specific working process, during the movement of the cutting component 46 along with the first moving component 41 and the second moving component 45, it will finally move to a preset working position above the blanking hole 310 and perform the punching operation on the electrode here. After completing the punching of the current electrode, it can move to the side of the limiting mechanism 3 away from the feeding mechanism 2 along with the traction of the electrode by the traction mechanism 5 and complete the cutting operation on the electrode here. Of course, in some embodiments, it may be necessary to punch multiple places on the electrode strip, and thus the punching and cutting sequence can be set according to the specific scenario. For example, first move the cutting component 46 to the end of the first moving component 41 closest to the feeding mechanism 2, and then gradually move away from the feeding mechanism 2 to perform punching in sequence, and finally perform cutting.

[0087] In some embodiments, as Figure 6 shown, a partial schematic diagram of the specific structure of a traction mechanism 5 of the electrode processing device according to an embodiment of the present disclosure is shown. It also takes two processing lines as an example. For example, there are two sets of the traction claw 54 structures, which are arranged on the left and right sides of the guiding component 51. Here, only one of the processing lines is described. Specifically, the traction mechanism 5 may include: a guiding component 51, which is arranged on the side of the limiting mechanism 3 away from the feeding mechanism 2 along the first direction; a supporting component 52, which is slidably arranged on the guiding component 51 and can slide on the guiding component 51 along the first direction; a traction claw 54 and a fifth power unit 53. The traction claw 54 is fixedly connected to the supporting component 52 through the fifth power unit 53, and the traction claw 54 is used to grab and fix the electrode extending from the limiting mechanism 3 under the drive of the fifth power unit 53.

[0088] In this embodiment, the guiding component 51 is similar to the aforementioned first moving component 41 and second moving component 45. It can control the supporting component 52 thereon to slide along the first direction on the guiding component 51. The guiding component 51 provides a sliding track, power, and corresponding control for the supporting component 52. The supporting component 52 is mainly used to support the traction claw 54 and the fifth power unit 53. The traction claw 54 is mainly used to grab the electrode. After grasping one end of the electrode strip, under the movement of the supporting component 52, the electrode strip is pulled out from the limiting mechanism 3 and stops at a set position. At this time, with the cooperation of the first limiting component 38 and the second limiting component 39, the other end of the electrode strip will be clamped, so that the electrode can be kept stable during the subsequent cutting. After that, the fifth power unit 53 is used to provide power for the traction claw 54. In different scenarios, according to the function and flexibility of the traction claw 54, the fifth power unit 53 can be set in the form of a power group, that is, a plurality of power sources (such as cylinders or motors) are combined to provide power for the traction claw 54.

[0089] After that, in some embodiments, in order to facilitate the collection after the electrode is cut and realize the whole process of automation and integration from feeding to discharging. As Figure 1 and Figure 2 shown, further on the basis of the aforementioned electrode processing device, a discharging mechanism 6 can be added to collect the cut electrodes. Specifically, the discharging mechanism 6 can be arranged on the working surface 11, on the side of the limiting mechanism 3 away from the feeding mechanism 2 along the first direction, and on one side of the traction mechanism 5 along the third direction, for carrying the electrode pulled out by the traction mechanism 5 from the limiting mechanism 3 and collecting the electrode after the cutting mechanism 4 finishes cutting the electrode; wherein the third direction is perpendicular to the first direction on the working surface. At the same time, it can be seen that in the figure, two processing lines are used as examples, and discharging mechanisms 6 are arranged on both sides of the traction mechanism 5. Here, only one processing line is described.

[0090] Specifically, as Figure 7 and Figure 8 shown, among them, Figure 7 is a view in the opposite direction of the structure shown in Figure 5 along the first direction (length direction), so as to facilitate the description of the specific structure of the discharging mechanism 6. After that Figure 8 is a schematic structural view showing some structures on the working surface 11 from a top view. Combining Figure 7 and Figure 8, it can be seen that the discharging mechanism 6 may include: a second support plate 62, which is movably arranged on the working surface 11 along the second direction, connected to the limiting mechanism 3, and is used to drive the electrode that has completed cutting to move along the second direction; wherein the second direction is perpendicular to the working surface 11; an adsorption component 67 and a sixth power unit, wherein the adsorption component 67 is fixedly arranged on the working surface 11 by the sixth power unit, and is used to drive the adsorption component 67 to adsorb the electrode on the second support plate 62 and adsorb the electrode to move through the drive of the sixth power unit; a third bracket 61, which is fixedly arranged on the working surface 11, and the traction mechanism 5 is on one side along the third direction; a receiving structure 64, which is fixedly arranged on the end of the third bracket 61 away from the traction mechanism 5, and is used to receive the electrode adsorbed by the adsorption component 67; a seventh power unit 63, which is fixedly connected to the frame 1 and the receiving structure 64, and is used to push out the receiving structure 64.

[0091] In this embodiment, after the cutting mechanism 4 completes the cutting operation of a section of the electrode, the two ends of this section of the motor will still be clamped by the traction claw 54, the first limiting component 38 and the second limiting component 39. At this time, the second support plate 62 can be used to move to hold this section of the electrode, and the traction claw 54, the first limiting component 38 and the second limiting component 39 can release this section of the electrode. Afterwards, the second support plate 62 can move with this section of the electrode in the second direction (vertical direction, height direction), so that it is convenient for the adsorption component 67 to obtain this point of electrode, preventing all operations from being squeezed on one surface, which is prone to accidents and has low fault tolerance. Afterwards, the adsorption component 67 can be a suction cup structure, a magnetic structure or a negative pressure adsorption structure.

[0092] Since the operation of the adsorption assembly 67 is no longer related to the processing of the electrode, its corresponding power structure (the sixth power unit) can be set beside the other main structures of the electrode processing device, and only provides the power for the corresponding movement of the adsorption assembly 67. Of course, in some embodiments, for the sake of overall coordination and integration, such as Figure 7 As shown, the sixth power unit can be further subdivided into an eighth power unit 65 and a ninth power unit 66. The eighth power unit 65 is used for lateral pushing operations in the third direction (width direction), and the ninth power unit 66 is used for longitudinal movement in the second direction (height direction, vertical direction). Afterwards, the adsorption component 67 can be connected to the ninth power unit 66, and the ninth power unit 66 can be connected to the eighth power unit 65. Finally, the eighth power unit 65 can be fixed to the first support plate 43 or the first support member 44.

[0093] After the adsorption component 67 completes the adsorption of the electrode, it will move to the material receiving structure 64 under the action of the sixth power unit, and release the adsorption here, so that the electrode falls into the material receiving structure 64 for collection. The material receiving structure 64 here can be a collection box or a collection bin and other similar structures for carrying the processed electrodes. After the material receiving structure 64 has collected a certain number of electrodes (for example, by using weight detection, detecting whether there is excessive accumulation at the collection port of the material receiving structure 64, etc.), the material receiving structure 64 can be pushed out under the action of the ninth power unit 66 to complete the collection work of one material receiving structure 64. Then, the operator can be notified in some ways to recycle the material receiving structure 64 or the electrodes therein. After the material receiving structure 64 has completed the electrode recycling or replaced the empty material receiving structure 64, the material receiving structure 64 can be retracted to its original working position by pressing the control button 68, or the ninth power unit 66 can be made to work again by pressing the control button 68 to retract the material receiving structure 64 to its original working position.

[0094] After that, in some embodiments, such as Figure 2 shown, the electrode processing device may further include: a collection mechanism 8, disposed on a side of the working surface 11 away from the limiting mechanism 3, corresponding to the limiting mechanism 3, and used for collecting waste generated when the cutting mechanism 4 operates on the electrode while the electrode is fixed by the limiting mechanism 3. And on this basis, as Figure 2 shown, the electrode processing device may further include: a purification mechanism 7, connected to the collection mechanism 8, and used for purifying and processing the waste. In this way, the collection mechanism 8 collects the waste generated by the operation of the cutting mechanism 4, which is environmentally friendly and convenient for centralized treatment of the waste. In a more specific scenario, the collection mechanism 8 may be located below the blanking hole 310 for waste collection. Then, the purification mechanism 7 can further recycle and process the waste, such as reducing it to raw materials, which helps to save a certain amount of materials.

[0095] In a more specific scenario, such as Figures 1 to 8As shown, the electrode processing device includes a frame 1, on which a feeding mechanism 2, a limiting mechanism 3, a cutting mechanism 4, a traction mechanism 5 and a discharging mechanism 6 are respectively arranged. The feeding mechanism 2 includes a first support 21 fixedly installed on the frame 1. On both sides of the first support 21, first power units 22 are provided. On both of the two first power units 22, feeding discs 23 are rotatably arranged. On both sides of the first support 21, first guide wheels 24 are rotatably arranged. On the lower surface of the first support 21, a sliding support 25 is fixedly installed. On both sides of the sliding support 25, induction sheets 26 are slidably arranged. On both of the two induction sheets 26, second guide wheels 210 are rotatably connected. On the sliding support 25, a first inductor 27 and a second inductor 28 are respectively fixedly arranged. On both sides of the first support 21, third guide wheels 29 are provided. The limiting mechanism 3 includes two guide rails 31, both of which are fixedly installed on the frame 1. At one end of each of the two guide rails 31, a third inductor 311 is provided. On the frame 1, a second power unit 32 is fixedly installed. On the second power unit 32, a limiting plate 33 is fixedly installed. On both sides of the lower surface of the limiting plate 33, a plurality of pressing strips 34 are fixedly connected. On each of the two guide rails 31, a plurality of pressing grooves 35 are formed. Each pressing strip 34 corresponds to each pressing groove 35 respectively. On both sides of each guide rail 31, a third power unit 36 and a fourth power unit 37 are respectively fixedly connected. At the bottom end of the third power unit 36, a first limiting component 38 is fixedly installed. On the fourth power unit 37, a second limiting component 39 is fixedly installed. On each of the two guide rails 31, a plurality of blanking holes 310 are formed. The cutting mechanism 4 includes two first moving components 41, which are both fixedly installed on the frame 1 through a second support 42. On the two first moving components 41, a first support member 44 is jointly displaced through a first support plate 43. On the first support member 44, a second moving component 45 is displaced. On the second moving component 45, two cutting components 46 are provided. The traction mechanism 5 includes a guiding component 51 fixedly installed on the frame 1. On the guiding component 51, a supporting component 52 is displaced. On both sides of the supporting component 52, fifth power units 53 are provided. On both of the two fifth power units 53, traction claws 54 are provided. The discharging mechanism 6 includes two third supports 61. On the frame 1, two second support plates 62 are provided. On the third supports 61, two seventh power units 63 are fixedly installed. On the adjacent sides of the two third supports 61, they are respectively fixedly installed at the far ends of the two seventh power units 63. On each of the two third supports 61, a material collecting structure 64 is fixedly installed. On the first support member 44, an eighth power unit 65 is provided. On the eighth power unit 65, two ninth power units 66 are displaced. At the bottom ends of both of the two ninth power units 66, two adsorption components 67 are fixedly installed. On the material collecting structure 64 on one side, a control button 68 is provided. The control button 68 is connected to the seventh power unit 63.

[0096] Finally, the working principle and usage process of the electrode processing device according to the embodiments of the present disclosure are as follows:

[0097] First, under the operation of the first power unit 22, two feeding reels 23 will drive to unwind and feed the electrodes. During this period, the material will be conveyed through the guiding of the first guide wheel 24, the second guide wheel 210, and the shaping guide wheel 29. The electrode will pass through the lower part of the second guide wheel 210, and as the feeding reel 23 gradually feeds the material. Under the gravity of the second guide wheel 210, the second guide wheel 210 will drive the sensing piece 26 to move downward by sliding the sensing piece 26 on the sliding bracket 25 until the sensing piece 26 moves down to the second sensor 28 and is sensed by the second sensor 28. At this time, the first power unit 22 will stop unwinding and rotating.

[0098] After that, when the material is conveyed into the guide rail 31, under the operation of the guiding component 51, the supporting component 52 will drive two fifth power units 53 and the traction claws 54 to move to the end of the guide rail 31 (the end far from the feeding mechanism 2), and then the two traction claws 54 on the two fifth power units 53 will clamp the two electrodes. Then, under the operation of the guiding component 51, the clamped electrodes will be stretched backward by a certain length. At this time, the two electrodes will fall on the second support plate 62. During this period, due to the stretching of the electrodes, it will press and drive the second guide wheel 210 to move upward, and the second guide wheel 210 drives the sensing piece 26 to slide upward. When the sensing piece 26 is sensed by the first sensor 27, the first power unit 22 will start to continue feeding until the second guide wheel 210 is displaced to the second sensor 28 again and stops feeding, so as to achieve the effect of cyclic replenishment of materials.

[0099] Then, the second power unit 32 can be started. Under the operation of the second power unit 32, the pressure bar 34 will be driven by the limiting plate 33 to press into the pressure groove 35, so that the electrodes conveyed on the guide rail 31 can be pressed and fixed. At the same time, under the operation of the third power unit 36 and the fourth power unit 37, the first limiting component 38 and the second limiting component 39 will be driven to move relative to each other and clamp the electrodes located at the end of the guide rail 31, so that the electrodes can be kept stable during the subsequent cutting, thereby ensuring the cutting quality. Then, under the drive of the first moving component 41, the two cutting components 46 on the first support member 44 can be displaced to the blanking hole 310, and under the drive of the second moving component 45, they will move downward to punch the pair of electrodes fixed in the guide rail 31, and displace the two cutting components 46 to the end of the guide rail 31 for cutting processing.

[0100] After cutting is completed, the second support plate 62 will drive the cut electrode to move upward in displacement. At the same time, under the operation of two ninth power units 66, two adsorption components 67 will be driven to move downward onto the second support plate 62, and the electrode on the second support plate 62 will be adsorbed through the adsorption components 67. Then, under the operation of the eighth power unit 65, the two adsorbed electrodes will be driven to move horizontally onto the material receiving structure 64, and the adsorption of the adsorption components 67 will be released to place the electrode into the material receiving structure 64. When a certain number of electrodes are collected in the material receiving structure 64, under the drive of the seventh power unit 63, the material receiving structure 64 will be driven to move outwards, and an audible and visual alarm will be used to notify the staff to collect the materials. After the collection is completed, just press the control button 68 to drive the seventh power unit 63 to retract and reset the material receiving structure 64. By circulating in this way, the integrated processing of punching and cutting of the electrodes and unified automatic material collection are realized, which is more efficient and labor-saving and has a higher degree of automation.

[0101] As can be seen from the above embodiments, an electrode processing device provided by the embodiments of the present disclosure includes: a frame with a working surface at the top; a feeding mechanism arranged at one end of the working surface along the first direction for feeding and initial shaping of the electrode; a limiting mechanism arranged on the working surface adjacent to the feeding mechanism for receiving the electrode released by the feeding mechanism and fixing the electrode; a cutting mechanism arranged on the working surface and straddling the limiting mechanism, capable of moving along the first direction on the side of the limiting mechanism away from the working surface for punching and cutting operations on the electrode in the limiting mechanism at a set position; a traction mechanism arranged on the working surface on the side of the limiting mechanism away from the feeding mechanism along the first direction for pulling the electrode so that the electrode can pass through the limiting mechanism along the first direction. The present disclosure automatically feeds the electrode through the feeding mechanism, then uses the traction mechanism to pull the electrode so that the unprocessed part enters the limiting mechanism, and then uses the limiting mechanism to fix the electrode to facilitate automatic punching and cutting operations. Finally, the cutting mechanism is used to automatically punch and cut the fixed electrode. By circulating in this way, the integrated processing of punching and cutting of the electrode is realized, which is more efficient and labor-saving and has a higher degree of automation.

[0102] Those of ordinary skill in the art should understand that the discussion of any of the above embodiments is merely exemplary and is not intended to imply that the scope of the present disclosure (including the claims) is limited to these examples; under the concept of the present utility model, the technical features in the above embodiments or different embodiments can also be combined, and there are many other variations in different aspects of the present utility model as described above, which are not provided in detail for the sake of brevity. Therefore, any omission, modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present utility model shall be included within the protection scope of the present utility model.

Claims

1. An electrode processing device, characterized in that: include: The frame has a working surface on the top; A discharge mechanism, disposed at one end of the working surface along the first direction, for discharging and initially shaping the electrode; A limiting mechanism, arranged on the working surface, adjacent to the discharging mechanism, and used for receiving the electrode discharged by the discharging mechanism and fixing the electrode; A cutting mechanism, arranged on the working surface and straddling the limiting mechanism, capable of moving along the first direction on a side of the limiting mechanism away from the working surface, for performing drilling and cutting operations on the electrode in the limiting mechanism at a set position; The traction mechanism is arranged on the working surface and is located on a side of the limiting mechanism away from the discharge mechanism along the first direction, and is used to pull the electrode so that the electrode can pass through the limiting mechanism along the first direction.

2. The electrode processing device according to claim 1, characterized in that: The discharging mechanism comprises: A first bracket, fixed to one end of the working surface along the first direction; A discharge tray, arranged at one end of the first bracket away from the frame, for carrying and discharging the electrode; A first power unit is disposed at one end of the first bracket away from the frame, connected to the discharge tray, and used to drive the discharge tray; A first guide wheel is provided on the first bracket, on a side of the discharge tray close to the frame, and is used to guide the electrode; A sliding bracket is arranged on the first bracket, wherein the first guide wheel is close to one side of the frame and extends along a second direction; wherein the second direction is perpendicular to the working surface; A sensing sheet is slidably disposed on the sliding bracket and can slide on the sliding bracket along the second direction; A second guide wheel, fixedly disposed on the induction sheet, for guiding the electrode and determining its length; A first sensor and a second sensor are disposed at two ends of the sliding bracket in the second direction, and are used to determine the position of the sensor sheet; The third guide wheel is arranged on the first bracket, the sliding bracket is close to the side of the frame, and is used for guiding the electrode passing through the second guide wheel.

3. The electrode processing device according to claim 1, characterized in that: The restricting mechanism includes: A guide rail, fixed to the working surface along the first direction, adjacent to the discharge mechanism, and used for receiving the electrode discharged from the discharge mechanism; A limiting plate, arranged on a side of the guide rail away from the working surface, for limiting the movement of the electrode and being able to press the electrode; A second power unit, connected to the limiting plate, for providing power for the limiting plate to press the electrode; At least one pressure strip, arranged on a side of the limiting plate facing the working surface, corresponding to the guide rail; At least one pressing groove is provided on the guide rail, and is provided corresponding to the at least one pressing strip, and is used to accommodate the at least one pressing strip when the limiting plate is pressed; A first limiting assembly and a second limiting assembly are arranged at one end of the guide rail away from the material discharge mechanism, and are used to clamp the electrode extending from the guide rail by cooperating with each other; A third power unit and a fourth power unit are connected to the first limiting component and the second limiting component respectively, and are used to provide power for the first limiting component and the second limiting component; A material drop hole is arranged on the guide rail and is used to collect waste materials during the electrode processing.

4. The electrode processing device according to claim 3, characterized in that: The limiting mechanism further includes: The third sensor is arranged at one end of the guide rail close to the material discharge mechanism and is used for detecting the electrode.

5. The electrode processing device according to claim 1, characterized in that: The cutting mechanism comprises: A second bracket, disposed on the working surface; A first moving assembly is disposed on a side of the second bracket away from the working surface; A first supporting plate, slidably disposed on a side of the first moving assembly away from the working surface, and configured to slide on the first moving assembly along the first direction according to control of the first moving assembly; A second moving assembly, fixedly disposed on the first supporting plate, extending along a second direction; wherein the second direction is perpendicular to the working surface; The cutting assembly is movably arranged at one end of the second movable assembly facing the working surface, and can move along the second direction under the control of the second movable assembly, so as to perform drilling and cutting operations on the electrode restricted by the restriction mechanism.

6. The electrode processing device according to claim 1, characterized in that: The traction mechanism comprises: A guide assembly, arranged along the first direction on a side of the limiting mechanism away from the discharging mechanism; A support assembly, slidably disposed on the guide assembly, and capable of sliding on the guide assembly along the first direction; A traction claw and a fifth power unit, wherein the traction claw is fixedly connected to the support assembly through the fifth power unit, and the traction claw is used to grasp and fix the electrode extending from the limiting mechanism under the drive of the fifth power unit.

7. The electrode processing device according to claim 1, characterized in that: Also includes: A discharging mechanism is arranged on the working surface, located on a side of the limiting mechanism along the first direction away from the discharging mechanism, and on a side of the traction mechanism along the third direction, and is used to carry the electrode pulled out from the limiting mechanism by the traction mechanism, and collect the electrode after the cutting mechanism completes cutting the electrode; wherein the third direction is perpendicular to the first direction on the working surface.

8. The electrode processing device according to claim 7, characterized in that: The discharging mechanism comprises: A second support plate is disposed on the working surface and is movable along a second direction, connected to the limiting mechanism, and is used to drive the electrode that has completed cutting to move along the second direction; wherein the second direction is perpendicular to the working surface; an adsorption assembly and a sixth power unit, wherein the adsorption assembly is fixedly arranged on the working surface by the sixth power unit, and is used for enabling the adsorption assembly to adsorb the electrode on the second supporting plate and adsorb the electrode to move by the driving of the sixth power unit; A third bracket, fixedly disposed on the working surface, and on one side of the traction mechanism along the third direction; A material receiving structure, fixedly arranged at one end of the third bracket away from the traction mechanism, for receiving the electrode adsorbed by the adsorption assembly; The seventh power unit is fixedly connected to the frame and the material receiving structure, and is used for performing a pushing operation on the material receiving structure.

9. The electrode processing device according to claim 1, characterized in that: Also includes: The collecting mechanism is arranged on a side of the working surface away from the limiting mechanism, corresponding to the limiting mechanism, and is used for collecting waste generated when the cutting mechanism operates on the electrode when the electrode is fixed by the limiting mechanism.

10. The electrode processing device according to claim 9, characterized in that: Also includes: The purification mechanism is connected to the collecting mechanism and is used for purifying the waste.

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