Cell expanding equipment for processing carbon anode electrolytic cell

Abstract

The invention discloses tank expanding equipment for processing a carbon anode electrolytic tank, and relates to the technical field of tank expanding devices. The cell expanding equipment for carbon anode electrolytic cell machining comprises a base, a top plate is assembled at the top of the base, a through sliding block is slidably connected into the top plate, a micro motor is assembled at the bottom of the sliding block, and a sharpener is in transmission connection with the side face of the micro motor. According to the groove expanding equipment for machining the carbon anode electrolytic cell, the carbon anode electrolytic cell needing groove expanding is placed on the base, and groove expanding operation can be rapidly conducted on all parts in the carbon anode electrolytic cell in cooperation with a servo motor, a sliding block, a micro motor and a sharpener; and in cooperation with a liquid pump, a lead screw, a first hydraulic bin, an extrusion plate, a first stress rod, an arc-shaped rod, a first spring, a conveying pipeline, a spray head, a rotating shaft, a first stress plate and a blocking block, grinding liquid can be intermittently injected, and the groove expanding efficiency of the device is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of grooving devices, and particularly to a grooving device for processing carbon anode electrolytic cells. Background Art

[0002] Carbon anode electrolytic cells are one of the important production equipment for electrolyzing metals such as aluminum, titanium, and manganese. To ensure the effective operation inside the electrolytic cell, it is necessary to regularly perform grooving processing on the cell body to improve the working performance of the electrolytic cell and extend its service life. Grooving processing is an operation of cutting and grooving the cell body, mainly by machining the inner wall of the cell body through mechanical equipment to optimize the design of the electrolytic cell and improve its operation efficiency.

[0003] Chinese Patent CN212682681U, authorized and announced on March 12, 2021, discloses a grooving device for carbon anode block electrolytic cells. Among them, it includes a base, and legs are provided below the base. It is characterized in that it further includes a slide rail, a connecting frame, a motor, a connecting rod, a connecting block, a tool assembly, and a limiting screw. The slide rail is fixed above the base, the right end of the connecting frame is fitted and sleeved on the slide rail, the motor is fixed at the left end of the connecting frame, the connecting rod is vertically arranged below the motor, a connecting sleeve is fixed at the top end of the connecting rod, and the connecting rod is fixed on the output shaft of the motor through the connecting sleeve. The connecting block is fixed at the bottom end of the connecting rod. The tool assembly includes a fixed sleeve, a telescopic rod, and a cutting tool. The fixed sleeve is horizontally and mirror-fixed on the side of the connecting rod, and a first limiting hole is vertically penetrated through the fixed sleeve. In the above application document, a corresponding grooving operation is performed by using an extendable cutting tool. However, when this device is used, it is difficult to quickly perform grooving operations on various parts inside the carbon anode block electrolytic cell, resulting in a low grooving efficiency of the device. Summary of the Invention

[0004] In view of the deficiencies of the prior art, the present invention provides a grooving device for processing carbon anode electrolytic cells, which solves the problems raised in the above background art. To achieve the above objectives, the present invention is realized through the following technical solutions: A grooving device for processing carbon anode electrolytic cells includes a base, a top plate is assembled on the top of the base, a through sliding block is slidably connected inside the top plate, a micro motor is assembled at the bottom of the sliding block, and a cutting tool is drivingly connected to the side of the micro motor;

[0005] A movable slot expansion assembly is provided at the bottom of the base. The slot expansion assembly includes a servo motor assembled on the side of the top plate and a liquid pump assembled on the top of the top plate. A lead screw is drivingly connected to the side of the servo motor. A hydraulic chamber I is fixedly connected to the bottom of the sliding block. An extrusion plate is drivingly connected to the side of the cutting tool. A force receiving rod I is slidably connected to one end of the hydraulic chamber I close to the extrusion plate. An arc-shaped rod is slidably connected to the end of the hydraulic chamber I away from the force receiving rod I. A spring I is assembled on the side of the force receiving rod I. A delivery pipe is assembled at the bottom of the liquid pump. A spray head is assembled at the bottom of the delivery pipe. A through rotating shaft is rotatably connected inside the delivery pipe. A force receiving plate I is fixedly connected to the outer side of the rotating shaft. A blocking block is fixedly connected to one side of the rotating shaft close to the inside of the delivery pipe. This enables the device to quickly perform slot expansion operations on various parts inside the carbon anode electrolytic cell and intermittently inject grinding fluid, improving the slot expansion efficiency of the device.

[0006] Preferably, the sliding block is assembled at the outer side of the lead screw and is connected to the lead screw by means of a set screw thread.

[0007] Preferably, the force receiving plate I is located at the bottom of the arc-shaped rod and is fixedly connected to the arc-shaped rod. When the arc-shaped rod moves, it can drive the force receiving plate I to move.

[0008] Preferably, a support assembly is provided on the top of the base. The support assembly includes a linear motor assembled on the side of the base and a hydraulic chamber II drivingly connected to the lead screw. A support rod is drivingly connected to the side of the linear motor. A support plate is fixedly connected to the side of the support rod. An elastic telescopic plate is provided inside the hydraulic chamber II to connect a movable block. A push plate is slidably connected to the side of the hydraulic chamber II. A hydraulic device is assembled on the side of the top plate and the outer side of the support rod. A force receiving rod II is slidably connected to one end of the hydraulic device close to the push plate. A transmission rod is slidably connected to the end of the hydraulic device away from the force receiving rod II. A spring II is assembled at the bottom of the force receiving rod II. A force receiving plate II is connected to the side of the support plate by means of an elastic telescopic rod. This improves the support effect of the device on the carbon anode electrolytic cell, making the device more stable during use.

[0009] Preferably, the force receiving rod II is located at the bottom of the push plate and is in contact with the push plate. When the push plate moves, it can squeeze and drive the force receiving rod II to move.

[0010] Preferably, the force receiving plate II is located at the side of the transmission rod and is in contact with the transmission rod. When the transmission rod moves, it can squeeze the force receiving plate II and cause it to move.

[0011] Preferably, an auxiliary support assembly is provided on the top of the base. The auxiliary support assembly includes pneumatic chambers assembled on both sides of the support plate. A suction cup is assembled on one side of the support plate close to the cutting tool. One end of the pneumatic chamber away from the suction cup is slidably connected with a connecting rod. This further improves the stability of the device during use.

[0012] Preferably, the suction cup is located on the side of the pneumatic chamber, and is fixedly connected and communicated with the pneumatic chamber.

[0013] Preferably, the connecting rod is located on the side of the force-receiving plate two and is fixed to the force-receiving plate two. When the force-receiving plate two moves, the connecting rod can be driven to move synchronously.

[0014] The present invention provides a grooving device for processing carbon anode electrolytic cells. It has the following beneficial effects:

[0015] (1) For the grooving device for processing carbon anode electrolytic cells, place the carbon anode electrolytic cell to be grooved on the base. Cooperate with the servo motor, sliding block, micro motor and cutting tool, and the grooving operation can be quickly carried out on each part inside the carbon anode electrolytic cell. Then, cooperate with the liquid pump, lead screw, hydraulic chamber one, extrusion plate, force-receiving rod one, arc-shaped rod, spring one, conveying pipeline, nozzle, rotating shaft, force-receiving plate one and plug, and the grinding liquid can be intermittently injected, improving the grooving efficiency of the device.

[0016] (2) For the grooving device for processing carbon anode electrolytic cells, place the carbon anode electrolytic cell to be grooved on the base and start the linear motor, so that the support plate preliminarily supports the carbon anode electrolytic cell. When the servo motor is started again to move the cutting tool, cooperate with the hydraulic chamber two, elastic telescopic plate, movable block, push plate, hydraulic device, force-receiving rod two, transmission rod, spring two, elastic telescopic rod and force-receiving plate two, and an additional force can be applied to the support plate, improving the support effect of the device on the carbon anode electrolytic cell and making the device more stable during use.

[0017] (3) For the grooving device for processing carbon anode electrolytic cells, when the support plates moving towards each other on both sides preliminarily support the carbon anode electrolytic cell, the suction cup can perform a preliminary adsorption operation on both sides of the carbon anode electrolytic cell. And when the force-receiving plate two applies an additional force to the support plate through the elastic telescopic rod, cooperate with the pneumatic chamber and the connecting rod, and the gas originally remaining between the suction cup and the carbon anode electrolytic cell can be pumped out, improving the adsorption effect of the suction cup, thereby further improving the stability of the device during use. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is the three-dimensional structure diagram of the overall appearance of the present invention;

[0019] Figure 2 It is a three-dimensional schematic diagram of the overall sectional view of the present invention;

[0020] Figure 3 It is a three-dimensional schematic diagram of the grooving component of the present invention;

[0021] Figure 4 It is a three-dimensional schematic diagram of some internal parts of the grooving component of the present invention;

[0022] Figure 5 It is a three-dimensional schematic diagram of the support component of the present invention;

[0023] Figure 6 For the present invention Figure 5 The enlarged structural schematic diagram at position A in;

[0024] Figure 7 It is a three-dimensional schematic diagram of the auxiliary support component of the present invention;

[0025] Figure 8 It is a structural schematic diagram of some internal parts of the auxiliary support component of the present invention.

[0026] In the figure:

[0027] 100, base; 200, top plate; 300, sliding block; 400, micro motor; 500, cutting tool;

[0028] 600, grooving component; 601, servo motor; 602, liquid pump; 603, lead screw; 604, hydraulic chamber 1; 605, extrusion plate; 606, force-bearing rod 1; 607, arc rod; 608, spring 1; 609, conveying pipeline; 610, nozzle; 611, rotating shaft; 612, force-bearing plate 1; 613, plug block;

[0029] 700, support component; 701, linear motor; 702, hydraulic chamber 2; 703, support rod; 704, support plate; 705, elastic telescopic plate; 706, movable block; 707, push plate; 708, hydraulic device; 709, force-bearing rod 2; 710, transmission rod; 711, spring 2; 712, elastic telescopic rod; 713, force-bearing plate 2; 800, auxiliary support component; 801, air pressure chamber; 802, suction cup; 803, connecting rod. Specific embodiments

[0030] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments.

[0031] Embodiment 1

[0032] Please refer to Figures 1 - 4, A grooving device for carbon anode electrolytic cell processing, including a base 100, a top plate 200 is assembled on the top of the base 100, a through sliding block 300 is slidably connected inside the top plate 200, a micro motor 400 is assembled at the bottom of the sliding block 300, and a cutting tool 500 is drivingly connected to the side of the micro motor 400;

[0033] A movable grooving assembly 600 is arranged at the bottom of the base 100. The grooving assembly 600 includes a servo motor 601 assembled on the side of the top plate 200 and a liquid pump 602 assembled on the top of the top plate 200. A lead screw 603 is drivingly connected to the side of the servo motor 601. The sliding block 300 is assembled at the outer side of the lead screw 603 and is connected to the lead screw 603 through a set thread. Place the carbon anode electrolytic cell to be grooved on the base 100. Start the servo motor 601, which can drive the lead screw 603 drivingly connected to the servo motor 601 to rotate. Since the sliding block 300 assembled on the lead screw 603 is restricted by the top plate 200 slidably connected thereto, when the lead screw 603 rotates, the sliding block 300 moves horizontally. And by adjusting the rotation direction of the lead screw 603 by the servo motor 601, the sliding block 300 and the micro motor 400 assembled at the bottom of the sliding block 300 can be driven to move to a specified position. After moving to the specified position, stop the servo motor 601 and start the micro motor 400, which can drive the cutting tool 500 drivingly connected thereto to rotate, and perform corresponding grooving operations on the carbon anode electrolytic cell placed on the base 100. After completing the grooving operation at this part of the carbon anode electrolytic cell, without stopping the micro motor 400, start the servo motor 601 again, and the cutting tool 500 can be moved to another position where grooving operation is required. In this way, the grooving operations on each part inside the carbon anode electrolytic cell can be quickly carried out.

[0034] A hydraulic chamber one 604 is fixedly connected to the bottom of the sliding block 300. A pressing plate 605 is drivingly connected to the side of the cutting tool 500. A force receiving rod one 606 is slidably connected to one end of the hydraulic chamber one 604 close to the pressing plate 605. An arc-shaped rod 607 is slidably connected to the end of the hydraulic chamber one 604 far from the force receiving rod one 606. A spring one 608 is assembled on the side of the force receiving rod one 606. When performing the grooving operation, synchronously start the liquid pump 602, and introduce grinding fluid into the conveying pipeline 609 assembled at the bottom of the liquid pump 602. The rotating cutting tool 500 drives the pressing plate 605 drivingly connected thereto to rotate. When the pressing plate 605 rotates to the position of the force receiving rod one 606, it can drive the force receiving rod one 606 to move to the side far from the hydraulic chamber one 604, reducing the pressure inside the hydraulic chamber one 604 slidably connected to the force receiving rod one 606, and driving the arc-shaped rod 607 slidably connected to the hydraulic chamber one 604 to move.

[0035] The bottom of the liquid pump 602 is equipped with a delivery pipeline 609. The liquid pump 602 and the delivery pipeline 609 are connected by a hose. When the delivery pipeline 609 moves with the slider 300, the liquid pump 602 can still normally introduce grinding fluid into the delivery pipeline 609. The bottom of the delivery pipeline 609 is equipped with a nozzle 610. A through rotating shaft 611 is rotatably connected inside the delivery pipeline 609. A first stress plate 612 is fixedly connected to the outer side of the rotating shaft 611. The first stress plate 612 is located at the bottom of the arc-shaped rod 607 and is fixedly connected to the arc-shaped rod 607. A blocking block 613 is fixedly connected to one side of the rotating shaft 611 close to the inside of the delivery pipeline 609. When the arc-shaped rod 607 moves, it can drive the first stress plate 612 fixedly connected to it to rotate. The first stress plate 612 drives the rotating shaft 611 fixedly connected to it to rotate, so that the rotating shaft 611 drives the blocking block 613 fixedly connected to it to rotate by a certain angle, opening the delivery pipeline 609 originally blocked by the blocking block 613. When the pressing plate 605 continues to rotate away from the first stress rod 606, the first stress rod 606 loses its restriction and resets under the action of the first spring 608. Similarly, the delivery pipeline 609 returns to the closed state. In this way, the grinding fluid in the delivery pipeline 609 can be intermittently injected into the cutting tool 500 through the nozzle 610. The grooving efficiency of the device is improved, and at the same time, the use of grinding fluid is reduced.

[0036] During use, place the carbon anode electrolytic cell that needs to have its groove widened on the base 100. Start the servo motor 601, which can drive the rotation of the lead screw 603 that is in transmission connection with the servo motor 601. Since the slider 300 assembled on the lead screw 603 is restricted by the top plate 200 that is slidably connected to it, when the lead screw 603 rotates, the slider 300 moves horizontally. And by adjusting the rotation direction of the lead screw 603 through the servo motor 601, the slider 300 and the micro motor 400 assembled at the bottom of the slider 300 can be driven to move to a specified position. After moving to the specified position, stop the servo motor 601 and start the micro motor 400, which can drive the rotation of the cutting tool 500 that is in transmission connection with it, and perform corresponding groove widening operations on the carbon anode electrolytic cell placed on the base 100. After completing the groove widening operation at this location of the carbon anode electrolytic cell, without stopping the micro motor 400, start the servo motor 601 again, and the cutting tool 500 can be moved to another location that needs to have its groove widened; during the groove widening operation, start the liquid pump 602 synchronously, and introduce grinding fluid into the delivery pipe 609 assembled at the bottom of the liquid pump 602. The rotating cutting tool 500 drives the extrusion plate 605 that is in transmission connection with it to rotate. When the extrusion plate 605 rotates to the force receiving rod 606, it can drive the force receiving rod 606 to move to the side away from the hydraulic chamber 604, reducing the pressure in the hydraulic chamber 604 that is slidably connected to the force receiving rod 606, driving the arc-shaped rod 607 that is slidably connected to the hydraulic chamber 604 to move, so that the arc-shaped rod 607 drives the force receiving plate 612 that is fixedly connected to it to rotate. The force receiving plate 612 drives the rotating shaft 611 that is fixedly connected to it to rotate, so that the rotating shaft 611 drives the blocking block 613 that is fixedly connected to it to rotate by a certain angle, opening the delivery pipe 609 that was originally blocked by the blocking block 613. When the extrusion plate 605 continues to rotate away from the force receiving rod 606, the force receiving rod 606 loses its restriction and resets under the action of the spring 608. Similarly, the delivery pipe 609 returns to the closed state. In this way, the grinding fluid in the delivery pipe 609 can be intermittently injected into the cutting tool 500 through the nozzle 610.

[0037] Embodiment 2

[0038] Please refer to Figures 1 - 6, on the basis of the first embodiment, a support assembly 700 is provided on the top of the base 100. The support assembly 700 includes a linear motor 701 assembled on the side of the base 100 and a second hydraulic chamber 702 drivingly connected to the lead screw 603. A support rod 703 is drivingly connected to the side of the linear motor 701, and a support plate 704 is fixedly connected to the side of the support rod 703. Place the carbon anodic electrolytic cell to be grooved on the base 100, start the linear motor 701, drive the support rod 703 drivingly connected thereto to move, so that the support rod 703 drives the support plate 704 fixedly connected thereto to move, and the support plates 704 moving towards each other on both sides initially support the carbon anodic electrolytic cell.

[0039] An elastic telescopic plate 705 is provided on the inner wall of the second hydraulic chamber 702 to connect a movable block 706, and a push plate 707 is slidably connected to the side of the second hydraulic chamber 702. When the servo motor 601 is enabled again and the cutter 500 is moved to another place, the rapidly rotating lead screw 603 drives the second hydraulic chamber 702 drivingly connected thereto to rotate synchronously and rapidly. The movable block 706 in the second hydraulic chamber 702 is then stretched by the elastic telescopic plate 705 under the action of centrifugal force, and in cooperation with the second hydraulic chamber 702 slidably connected to the movable block 706, the pressure in the second hydraulic chamber 702 is increased, driving the push plate 707 slidably connected to the second hydraulic chamber 702 to move.

[0040] Hydraulic devices 708 are assembled on the side of the top plate 200 and the outside of the support rod 703. The hydraulic device 708 is composed of two rigid chambers and a hydraulic hose. The two rigid chambers are respectively assembled at the side position of the top plate 200 and the outside position of the support rod 703. A second force-bearing rod 709 is slidably connected to one end of the hydraulic device 708 close to the push plate 707. The second force-bearing rod 709 is located at the bottom position of the push plate 707 and is in contact with the push plate 707. A transmission rod 710 is slidably connected to the other end of the hydraulic device 708 away from the second force-bearing rod 709. A second spring 711 is assembled at the bottom of the second force-bearing rod 709. A second force-bearing plate 713 is connected to the side of the support plate 704 by an elastic telescopic rod 712. The second force-bearing plate 713 is located at the side position of the transmission rod 710 and is in contact with the transmission rod 710. When the push plate 707 rotates and extends at the same time, it can squeeze the second force-bearing rod 709, causing the second force-bearing rod 709 to move downward. In cooperation with the hydraulic device 708 slidably connected to the second force-bearing rod 709, the pressure in the hydraulic device 708 is increased, driving the transmission rod 710 slidably connected to the hydraulic device 708 to move. The moving transmission rod 710 squeezes the second force-bearing plate 713, causing the second force-bearing plate 713 to apply an additional force to the support plate 704 through the elastic telescopic rod 712. Improve the support effect of the device on the carbon anodic electrolytic cell, making the device more stable during use.

[0041] When the servo motor 601 is deactivated and the lead screw 603 stops rotating, the moving block 706 loses the effect of centrifugal force and is reset under the action of the elastic telescopic plate 705. Similarly, the push plate 707 is reset, and the second force-bearing rod 709 loses the restriction of the push plate 707 and can be reset under the action of the second spring 711, thereby releasing the force applied to the support plate 704. The device is reset to facilitate the next activation.

[0042] In use, on the basis of the first embodiment, place the carbon anode electrolytic cell to be grooved on the base 100, start the linear motor 701, drive the support rod 703 connected to it in transmission to move, so that the support rod 703 drives the support plate 704 fixedly connected to it to move, and the support plates 704 moving towards each other on both sides initially support the carbon anode electrolytic cell; when the servo motor 601 is activated again and the cutter 500 is moved to another place, the rapidly rotating lead screw 603 drives the second hydraulic chamber 702 connected to it in transmission to rotate synchronously at a high speed. The moving block 706 in the second hydraulic chamber 702 is immediately stretched under the action of centrifugal force, stretching the elastic telescopic plate 705, and cooperating with the second hydraulic chamber 702 slidably connected to the moving block 706, increasing the pressure in the second hydraulic chamber 702, driving the push plate 707 slidably connected to the second hydraulic chamber 702 to move. The push plate 707 extends while rotating, thereby squeezing the second force-bearing rod 709, causing the second force-bearing rod 709 to move downward, and cooperating with the hydraulic device 708 slidably connected to the second force-bearing rod 709, increasing the pressure in the hydraulic device 708, driving the transmission rod 710 slidably connected to the hydraulic device 708 to move. The moving transmission rod 710 squeezes the second force-bearing plate 713, causing the second force-bearing plate 713 to apply an additional force to the support plate 704 through the elastic telescopic rod 712; when the servo motor 601 is deactivated and the lead screw 603 stops rotating, the moving block 706 loses the effect of centrifugal force and is reset under the action of the elastic telescopic plate 705. Similarly, the push plate 707 is reset, and the second force-bearing rod 709 loses the restriction of the push plate 707 and can be reset under the action of the second spring 711, thereby releasing the force applied to the support plate 704.

[0043] Embodiment Three

[0044] Please refer to Figures 1 - 8 , on the basis of the first and second embodiments, an auxiliary support assembly 800 is provided on the top of the base 100. The auxiliary support assembly 800 includes air pressure chambers 801 assembled on both sides of the support plate 704. A suction cup 802 is assembled on the side of the support plate 704 close to the cutter 500. The suction cup 802 is located on the side of the air pressure chamber 801 and is fixedly connected and communicated with the air pressure chamber 801. When the support plates 704 moving towards each other on both sides initially support the carbon anode electrolytic cell, the suction cups 802 assembled on the support plates 704 can perform an initial adsorption operation on both sides of the carbon anode electrolytic cell.

[0045]

[0045] One end of the air pressure chamber 801 away from the suction cup 802 is slidably connected with a connecting rod 803. The connecting rod 803 is located on the side of the second stress plate 713 and is fixed to the second stress plate 713. When the second stress plate 713 applies an additional force to the support plate 704 through the elastic telescopic rod 712, that is, the second stress plate 713 squeezes the elastic telescopic rod 712 to move towards the support plate 704, so that the second stress plate 713 drives the connecting rod 803 fixedly connected thereto to slide into the air pressure chamber 801 fixedly connected to the support plate 704. The pressure in the air pressure chamber 801 then decreases. Thus, the gas originally remaining between the suction cup 802 and the carbon anode electrolytic cell can be extracted into the air pressure chamber 801 through the air pressure chamber 801. The adsorption effect of the suction cup 802 is improved, thereby further improving the stability of the device during use.

[0046]

[0046] During use, on the basis of Embodiment 1 and Embodiment 2, when the support plates 704 moving towards each other on both sides initially support the carbon anode electrolytic cell, the suction cups 802 assembled on the support plates 704 can initially adsorb both sides of the carbon anode electrolytic cell. When the second stress plate 713 applies an additional force to the support plate 704 through the elastic telescopic rod 712, that is, the second stress plate 713 squeezes the elastic telescopic rod 712 to move towards the support plate 704, so that the second stress plate 713 drives the connecting rod 803 fixedly connected thereto to slide into the air pressure chamber 801 fixedly connected to the support plate 704. The pressure in the air pressure chamber 801 then decreases. Thus, the gas originally remaining between the suction cup 802 and the carbon anode electrolytic cell can be extracted into the air pressure chamber 801 through the air pressure chamber 801.

[0047]

[0047] As described above, it is only the preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. A grooving device for the processing of carbon anode electrolyzers, comprising a base (100), a top plate (200) is assembled on the top of the base (100), a through sliding block (300) is slidably connected inside the top plate (200), a micro motor (400) is assembled at the bottom of the sliding block (300), and a cutting tool (500) is drivingly connected to the side of the micro motor (400); It is characterized in that: A movable grooving assembly (600) is arranged at the bottom of the base (100), the grooving assembly (600) includes a servo motor (601) assembled on the side of the top plate (200) and a liquid pump (602) assembled on the top of the top plate (200), a lead screw (603) is drivingly connected to the side of the servo motor (601), a first hydraulic chamber (604) is fixedly connected to the bottom of the sliding block (300), a pressing plate (605) is drivingly connected to the side of the cutting tool (500), a first stress rod (606) is slidably connected to one end of the first hydraulic chamber (604) close to the pressing plate (605), and an arc-shaped rod (607) is slidably connected to one end of the first hydraulic chamber (604) away from the first stress rod (606).

2. The grooving equipment for carbon anode electrolytic cell processing according to claim 1, wherein: A first spring (608) is assembled on the side of the first stress rod (606), a delivery pipe (609) is assembled at the bottom of the liquid pump (602), a spray head (610) is assembled at the bottom of the delivery pipe (609), a through rotating shaft (611) is rotatably connected inside the delivery pipe (609), a first stress plate (612) is fixedly connected to the outside of the rotating shaft (611), a blocking block (613) is fixedly connected to one side of the rotating shaft (611) close to the inside of the delivery pipe (609), the sliding block (300) is assembled at the outside position of the lead screw (603) and is connected to the lead screw (603) through a set screw thread.

3. The grooving equipment for carbon anode electrolytic cell processing according to claim 1, characterized in that: The first stress plate (612) is located at the bottom position of the arc-shaped rod (607) and is fixedly connected to the arc-shaped rod (607).

4. A grooving device for carbon anode electrolytic cell processing according to claim 1, characterized in that: A support assembly (700) is provided on the top of the base (100). The support assembly (700) includes a linear motor (701) assembled on the side of the base (100) and a second hydraulic chamber (702) drivingly connected to a lead screw (603). A support rod (703) is drivingly connected to the side of the linear motor (701). A support plate (704) is fixedly connected to the side of the support rod (703). A movable block (706) is connected to the inner wall of the second hydraulic chamber (702) by an elastic telescopic plate (705). A push plate (707) is slidably connected to the side of the second hydraulic chamber (702). A hydraulic device (708) is assembled on the side of the top plate (200) and the outside of the support rod (703). A second force-receiving rod (709) is slidably connected to one end of the hydraulic device (708) close to the push plate (707). A transmission rod (710) is slidably connected to the end of the hydraulic device (708) away from the second force-receiving rod (709). A second spring (711) is assembled at the bottom of the second force-receiving rod (709). A second force-receiving plate (713) is connected to the side of the support plate (704) by an elastic telescopic rod (712).

5. The grooving equipment for carbon anode electrolytic cell processing according to claim 4, characterized in that: The second force-receiving rod (709) is located at the bottom position of the push plate (707) and is in contact with the push plate (707).

6. The grooving equipment for carbon anode electrolytic cell processing according to claim 4, wherein: The second force-receiving plate (713) is located at the side position of the transmission rod (710) and is in contact with the transmission rod (710).

7. The grooving equipment for processing carbon anode electrolytic cells according to claim 1, characterized in that: An auxiliary support assembly (800) is provided on the top of the base (100). The auxiliary support assembly (800) includes air pressure chambers (801) assembled on both sides of the support plate (704). A suction cup (802) is assembled on the side of the support plate (704) close to the cutting tool (500). A connecting rod (803) is slidably connected to one end of the air pressure chamber (801) away from the suction cup (802).

8. A grooving equipment for carbon anode electrolytic cell processing according to claim 7, characterized in that: The suction cup (802) is located at the side position of the air pressure chamber (801) and is fixedly connected and communicated with the air pressure chamber (801).

9. The grooving equipment for carbon anode electrolytic cell processing according to claim 7, characterized in that: The connecting rod (803) is located at the side position of the second force-receiving plate (713) and is in a fixed state with the second force-receiving plate (713).

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