An electrolytic graphene electrode

Abstract

The utility model discloses an electrolytic graphene electrode, include: electrolytic graphene electrode main part, it is four groups, and is arranged and set up in front and back, and its both sides top all are fixedly connected with the card baffle, and its bottom equal interval has been provided with a plurality of recesses that all are open set of front and back side, and the top inner wall of recess is the inclined plane, and the recess front side top is higher than the rear side top position, four groups electrolytic graphene electrode main part outside setting have two adjustable type clamping support mechanism.

Description

Technical Field

[0001] This utility model relates to the field of graphene electrode technology, specifically to an electrolytic graphene electrode. Background Technology

[0002] Currently, for electrolytic graphite electrodes in printing plate production lines, the electrolysis process uses four graphite electrodes per phase of current. These consist of an outer support and graphene electrodes arranged sequentially in a front-to-back direction on the inner side. The conductive surface at the bottom of the traditional graphene electrode is flat. During electrolysis, the gas generated will be adsorbed on the lower surface of the graphite electrode and is not easy to expel, which greatly affects the conductivity. Moreover, the conductivity is uneven under such conditions, making it easier to generate electrolytic marks on the plate surface during electrolysis, thus affecting the product quality of the printing plate.

[0003] To address this, existing methods involve arranging multiple through grooves at equal intervals at the bottom of the graphene electrode to facilitate gas discharge and reduce electrolytic marks caused by gas adhering to the bottom affecting the conductive surface during electrolysis. However, these methods still have the following shortcomings: because the length and width of the graphene electrodes vary for different products, the support spacing cannot be flexibly adjusted according to the different lengths and widths of the graphene electrodes. Different products require the replacement of supports with different spacings, resulting in poor applicability. Therefore, this application proposes an electrolytic graphene electrode to solve the above-mentioned problems. Utility Model Content

[0004] The purpose of this invention is to provide an electrolytic graphene electrode to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: an electrolytic graphene electrode, comprising:

[0006] The electrolytic graphene electrode body consists of four groups arranged in a front-to-back configuration. Each of the top sides is fixedly connected with a clamping block, and the bottom of each group has multiple grooves with openings on both the front and back sides. The inner wall of the top of the groove is inclined, and the top of the front side of the groove is higher than the top of the rear side. The four groups of electrolytic graphene electrode bodies are provided with a two-way adjustable clamping mechanism on their outer sides.

[0007] The bidirectional adjustable clamping mechanism includes:

[0008] The U-shaped frame has a movable rod on its inner right side, and rectangular grooves are opened on the inner left side of the U-shaped frame and the left side of the movable rod. Three insulating pads are glued and fixed to the bottom of the blocking block. The top left side of the U-shaped frame and the top of the movable rod are in contact with the corresponding three insulating pads. The U-shaped frame and the movable rod are used to limit and support the six blocking blocks to support the four electrolytic graphene electrode bodies and prevent them from falling.

[0009] The guide sliding assembly consists of two sets, which are respectively fixedly installed between the front and rear inner walls of the corresponding rectangular grooves. Three partition blocks are connected to the adjacent side of each of the two guide sliding assemblies. The adjacent side of each of the two adjacent electrolytic graphene electrode bodies is pressed into contact with the corresponding two partition blocks. The guide sliding assembly is used to adaptively guide the partition blocks forward and backward when the four electrolytic graphene electrode bodies are installed in sequence and the partition blocks are squeezed, so that the partition blocks can adaptively move when squeezed.

[0010] The horizontal guide locking assembly consists of two sets, both of which are slidably sleeved on the outside of the U-shaped frame and fixedly connected to the front and rear sides of the moving rod, respectively. The horizontal guide locking assembly is used to allow personnel to flexibly adjust the lateral position of the moving rod according to the different lengths of the electrolytic graphene electrode body.

[0011] The threaded horizontal adjustment and clamping assembly is installed on the inner wall of the rear side of the U-shaped frame and is pressed into contact with the rear side of the electrolytic graphene electrode body on the last side; the threaded horizontal adjustment and clamping assembly is used to clamp the electrolytic graphene electrode body on the last side forward, or to flexibly adjust the front and rear clamping restriction positions.

[0012] Preferably, the guide sliding assembly includes rectangular guide rods, two rectangular guide rods are respectively fixedly connected between the front and rear inner walls of the corresponding rectangular grooves, three rectangular sliding sleeves are slidably sleeved on each of the two rectangular guide rods, and six partition blocks are respectively connected to the outside of the corresponding rectangular sliding sleeves.

[0013] Preferably, the separator is glued to the outside of the corresponding rectangular sliding sleeve.

[0014] Preferably, the separator block is detachably connected to the outside of the corresponding rectangular sliding sleeve, and the separator block is in movable contact with the outside of the corresponding rectangular sliding sleeve. Rectangular magnetic clips are fixedly connected to the adjacent sides of the two opposing rectangular sliding sleeves. Rectangular slots are opened on the opposing sides of the two opposing separator blocks. An iron sheet is adhered and fixed to the inner wall of the rectangular slot away from its opening. The rectangular magnetic clip is movably engaged in the corresponding rectangular slot and attracted to the iron sheet.

[0015] Preferably, the horizontal guide locking assembly includes rectangular guide sleeves and knob bolts. Both rectangular guide sleeves are slidably sleeved on the U-shaped frame. The adjacent sides of the two rectangular guide sleeves are fixedly connected to the front and rear ends of the moving rod, respectively. The adjacent ends of the two knob bolts are pressed into contact with the front and rear sides of the U-shaped frame, respectively. The opposing sides of the two rectangular guide sleeves are provided with threaded holes, which are threadedly connected to the corresponding knob bolts.

[0016] Preferably, the threaded horizontal adjustment and clamping assembly includes an insulating pressure plate, a T-shaped screw, a nut, and two guide posts. The nut is embedded and fixed on the inner wall of the rear side of the U-shaped frame. The T-shaped screw is threaded into the nut. The insulating pressure plate is rotatably mounted on the front end of the T-shaped screw. The two guide posts are fixedly connected to the rear side of the insulating pressure plate. The U-shaped frame is slidably sleeved on the two guide posts. A flexible rubber pad is bonded and fixed to the front side of the insulating pressure plate. The flexible rubber pad is pressed tightly into contact with the rear side of the electrolytic graphene electrode body.

[0017] Preferably, the multiple grooves on the bottom of two adjacent electrolytic graphene electrode bodies are staggered, the grooves on the bottom of the first and third electrolytic graphene electrode bodies are in the same position, and the grooves on the bottom of the second and fourth electrolytic graphene electrode bodies are in the same position.

[0018] Preferably, rubber pads are glued and fixed to the left inner wall, front inner wall and left side of the moving rod of the U-shaped frame, and rectangular through holes are opened on the adjacent sides of the two rubber pads on the left and right sides, and the rectangular through holes are connected to the corresponding rectangular grooves.

[0019] Compared with the prior art, the beneficial effects of this utility model are:

[0020] 1. By setting multiple grooves and staggering the positions of multiple grooves at the bottom of two adjacent electrolytic graphene electrode bodies, it is convenient for the gas at the bottom to be discharged during electrolysis, reducing the phenomenon of electrolytic marks caused by the gas attached to the bottom affecting the conductive plate during electrolysis, and ensuring that the current has the same comprehensive effect on the same part of the plate, resulting in the same electrolysis effect and improving the uniformity of electrolysis.

[0021] 2. By combining the U-shaped frame, moving rod, guide sliding assembly and threaded horizontal adjustment clamping assembly, the front and rear clamping restriction positions can be flexibly adjusted according to the different front and rear widths of the electrolytic graphene electrode body, which is convenient for stable front and rear restriction support of four electrolytic graphene electrode bodies of different widths and improves applicability.

[0022] 3. Through the combination of the U-shaped frame, moving rod and horizontal guide locking assembly, the personnel can flexibly adjust the moving rod and the spacing of the U-shaped frame according to the different lengths of the electrolytic graphene electrode body. Since the electrolytic graphene electrode body lengths are different for different products, it is convenient to use electrolytic graphene electrode bodies of various lengths, further improving applicability.

[0023] 4. By using a rectangular magnetic card block, rectangular card slot and iron sheet in combination, it is convenient for personnel to disassemble and assemble the divider block, so that personnel can flexibly replace the divider block of different widths according to the interval requirements, thereby improving the applicability.

[0024] This utility model, through the provision of a series of structures, can flexibly adjust the front-to-back and left-to-right pressure-fixing positions according to the different front-to-back widths and lengths of the electrolytic graphene electrode body. This facilitates stable constraint support for four electrolytic graphene electrode bodies of different widths or lengths, improving applicability. Furthermore, the provided separator blocks allow for easy disassembly and assembly, enabling personnel to flexibly replace separator blocks of different widths according to spacing requirements, further enhancing applicability. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the structure of an electrolytic graphene electrode proposed in this utility model;

[0026] Figure 2 This is a bottom view of the structure of an electrolytic graphene electrode proposed in this utility model.

[0027] Figure 3 This is a top cross-sectional view of an electrolytic graphene electrode proposed in this utility model.

[0028] Figure 4 For the present utility model Figure 3 A magnified structural diagram of part A in the diagram.

[0029] In the diagram: 1. Electrolytic graphene electrode body; 101. Clamping block; 102. Groove; 2. U-shaped frame; 201. Moving rod; 202. Rectangular groove; 203. Rubber pad; 3. Rectangular guide rod; 301. Rectangular sliding sleeve; 302. Rectangular magnetic clamping block; 303. Separator block; 304. Rectangular slot; 4. Rectangular guide sleeve; 401. Knob bolt; 5. Insulating pressure plate; 501. T-shaped screw; 502. Guide post; 503. Nut. Detailed Implementation

[0030] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0031] Example 1

[0032] like Figures 1 to 4 As shown, this embodiment proposes an electrolytic graphene electrode, comprising:

[0033] The electrolytic graphene electrode body 1 consists of four groups arranged in a front-to-back configuration. Each of the top sides of the electrode body is fixedly connected to a retaining block 101. The bottom of the electrode body has multiple grooves 102 with openings on both the front and back sides. The inner wall of the top of the groove 102 is an inclined surface. The top of the front side of the groove 102 is higher than the top of the rear side. The four groups of electrolytic graphene electrode bodies 1 are provided with a two-way adjustable clamping mechanism on their outer sides.

[0034] The two-way adjustable clamping mechanism includes:

[0035] The U-shaped frame 2 has a movable rod 201 on its inner right side. Rectangular grooves 202 are opened on the inner left side of the U-shaped frame 2 and the left side of the movable rod 201. Three insulating pads are glued and fixed to the bottom of the blocking block 101. The top left side of the U-shaped frame 2 and the top of the movable rod 201 are in contact with the corresponding three insulating pads. The U-shaped frame 2 and the movable rod 201 are used to limit and support the six blocking blocks 101 to support the four electrolytic graphene electrode bodies 1 and prevent them from falling.

[0036] The guide sliding assembly consists of two sets, which are fixedly installed between the front and rear inner walls of the corresponding rectangular grooves 202. Three partition blocks 303 are connected to the adjacent side of each of the two guide sliding assemblies. The adjacent side of each of the two adjacent electrolytic graphene electrode bodies 1 is pressed into contact with the corresponding two partition blocks 303. The guide sliding assembly is used to adaptively guide the partition blocks 303 in the front and rear lateral directions when the four electrolytic graphene electrode bodies 1 are installed in sequence and the partition blocks 303 are squeezed, so that the partition blocks 303 can be adaptively displaced when squeezed.

[0037] The horizontal guide locking assembly consists of two sets, both of which are slidably sleeved on the outside of the U-shaped frame 2 and fixedly connected to the front and rear sides of the moving rod 201 respectively; the horizontal guide locking assembly is used to allow personnel to flexibly adjust the lateral position of the moving rod 201 according to the different lengths of the electrolytic graphene electrode body 1.

[0038] The threaded horizontal adjustment and clamping assembly is installed on the inner wall of the rear side of the U-shaped frame 2 and is pressed into contact with the rear side of the electrolytic graphene electrode body 1 on the rear side; the threaded horizontal adjustment and clamping assembly is used to clamp the electrolytic graphene electrode body 1 on the rear side forward, or flexibly adjust the front and rear clamping restriction positions.

[0039] In this embodiment, multiple grooves 102 on the bottom of two adjacent electrolytic graphene electrode bodies 1 are staggered. The grooves 102 on the bottom of the first and third electrolytic graphene electrode bodies 1 are in the same position, as are the grooves 102 on the bottom of the second and fourth electrolytic graphene electrode bodies 1. By utilizing the grooves 102, when the electrolyte flows from the bottom of the electrolytic graphene electrode body 1 to the bottom, the top of the front side of the groove 102 is higher than the top of the rear side, facilitating gas discharge. This increases the conductive area of ​​the electrolytic graphene electrode body 1. Furthermore, the grooves 102 easily and promptly discharge the gas generated during electrolysis, reducing the phenomenon of electrolytic lines caused by gas adhering to the bottom affecting the conductive surface during electrolysis. Moreover, by staggering the positions of the grooves 102 on the bottom of two adjacent electrolytic graphene electrode bodies 1, the current has the same overall effect on the same part of the plate, resulting in the same electrolysis effect.

[0040] In this embodiment, rubber pads 203 are glued and fixed to the left inner wall, front inner wall and left side of the moving rod 201 of the U-shaped frame 2. Rectangular through holes are opened on the adjacent side of the two rubber pads 203 facing each other, and the rectangular through holes are connected to the corresponding rectangular grooves 202.

[0041] Furthermore, such as Figure 3 and 4 As shown, the guide sliding assembly includes rectangular guide rods 3. Two rectangular guide rods 3 are fixedly connected between the front and rear inner walls of the corresponding rectangular groove 202. Three rectangular sliding sleeves 301 are slidably sleeved on each of the two rectangular guide rods 3. Six partition blocks 303 are respectively connected to the outside of the corresponding rectangular sliding sleeves 301.

[0042] In this embodiment, the separator 303 is glued to the outside of the corresponding rectangular sliding sleeve 301;

[0043] In this embodiment, through the cooperation of rectangular guide rod 3 and three rectangular sliding sleeves 301, when the four electrolytic graphene electrode bodies 1 are installed in sequence, the electrolytic graphene electrode body 1 on the rear side moves forward, causing it to squeeze the corresponding two partition blocks 303 forward. The partition blocks 303 drive the corresponding rectangular sliding sleeves 301 to slide forward on the rectangular guide rod 3. The rectangular guide rod 3 guides the partition blocks 303 forward and backward through the corresponding rectangular sliding sleeves 301. By using the automatic forward movement and lateral guidance under compression, the effect of adaptive lateral guidance of the partition blocks 303 is achieved when the four electrolytic graphene electrode bodies 1 are installed in sequence and the partition blocks 303 are squeezed, so that the partition blocks 303 can adapt to displacement when squeezed.

[0044] Furthermore, such as Figure 1 , 2As shown in Figure 3, the horizontal guide locking assembly includes rectangular guide sleeves 4 and knob bolts 401. Both rectangular guide sleeves 4 are slidably sleeved on the U-shaped frame 2. The adjacent sides of the two rectangular guide sleeves 4 are fixedly connected to the front and rear ends of the moving rod 201, respectively. The adjacent ends of the two knob bolts 401 are pressed into contact with the front and rear sides of the U-shaped frame 2, respectively. The opposing sides of the two rectangular guide sleeves 4 are provided with threaded holes, which are threadedly connected to the corresponding knob bolts 401.

[0045] In this embodiment, rectangular guide sleeves 4 and knob bolts 401 are used to fix two rectangular guide sleeves 4, which in turn fix and support the moving rod 201. When it is necessary to adjust the left and right support clamping distance, the two knob bolts 401 are rotated in the opposite direction to separate them from the outside of the U-shaped frame 2, releasing the locking of the rectangular guide sleeves 4. The moving rod 201 is then moved to the left or right to cause the two rectangular guide sleeves 4 to slide laterally on the U-shaped frame 2. After the position of the moving rod 201 is adjusted appropriately, the two knob bolts 401 are rotated in the forward direction to squeeze it tightly against the outside of the U-shaped frame 2 for re-fixing. This allows personnel to flexibly adjust the clamping distance between the moving rod 201 and the inside of the U-shaped frame 2 according to different lengths of electrolytic graphene electrode body 1. Since the length of electrolytic graphene electrode body 1 varies for different products, it is convenient to use electrolytic graphene electrode body 1 of various lengths, improving applicability.

[0046] Furthermore, such as Figure 1 and 3 As shown, the threaded horizontal adjustment and clamping assembly includes an insulating pressure plate 5, a T-shaped screw 501, a nut 503, and two guide posts 502. The nut 503 is embedded and fixed on the inner wall of the rear side of the U-shaped frame 2. The T-shaped screw 501 is threaded and sleeved in the nut 503. The insulating pressure plate 5 is rotatably mounted on the front end of the T-shaped screw 501. The two guide posts 502 are fixedly connected to the rear side of the insulating pressure plate 5. The U-shaped frame 2 is slidably sleeved on the two guide posts 502. A flexible rubber pad is bonded and fixed to the front side of the insulating pressure plate 5. The flexible rubber pad is pressed and contacted tightly with the rear side of the electrolytic graphene electrode body 1 at the rear end.

[0047] In this embodiment, the rear inner wall of the U-shaped frame 2 is provided with an insert hole for fixed connection with the outer side of the nut 503; the rear side of the insulating pressure plate 5 is fixedly connected with a bearing, the inner ring of which is fixedly connected with the outer side of the T-shaped screw 501, thereby achieving the effect of rotating and installing the T-shaped screw 501; the rear inner wall of the U-shaped frame 2 is provided with two guide holes that are respectively slidably fitted with the outer side of the corresponding guide post 502, thereby allowing the guide post 502 to pass through and providing lateral sliding guidance.

[0048] In this embodiment, the insulating pressure plate 5, flexible rubber pad, T-shaped screw 501, nut 503, and two guide posts 502 work together to rotate the T-shaped screw 501 in the forward direction, causing it to rotate within the nut 503 and move forward. The T-shaped screw 501 drives the insulating pressure plate 5 to move forward, and the insulating pressure plate 5 drives the two guide posts 502 to slide forward within the guide holes on the U-shaped frame 2, performing lateral guiding work. The insulating pressure plate 5 drives the flexible rubber pad forward to press and solidify the last electrolytic graphene electrode body 1, achieving the effect of pressing and solidifying the last electrolytic graphene electrode body 1 forward. By utilizing the transmission of force, the sequential pressing and solidification work is achieved. Furthermore, the adjustable position of the insulating pressure plate 5 allows for flexible adjustment of the front and rear pressing and solidification restriction positions according to the different front and rear widths of the electrolytic graphene electrode body 1, further improving its applicability.

[0049] It should be noted that: the separator 303 is preferably made of insulating hard plastic material; the T-shaped screw 501, nut 503, guide post 502, rectangular guide sleeve 4 and knob bolt 401 are preferably made of stainless steel. The outer thread clearance of the T-shaped screw 501 and knob bolt 401 is a high wear-resistant load-bearing specification of 1-2mm. The stainless steel material has the advantages of high hardness, high wear resistance and good maintenance-free effect, which ensures the stability of the drive support.

[0050] This embodiment can flexibly adjust the front and rear and left and right pressure restriction positions according to the different front and rear widths and lengths of the electrolytic graphene electrode body 1, which is convenient for stable restriction and support of four electrolytic graphene electrode bodies 1 with different widths or lengths, and improves applicability.

[0051] The method of using this embodiment is as follows: When using the electrolytic graphene electrode, by utilizing the setting of the groove 102, when the electrolyte flows from the bottom of the electrolytic graphene electrode body 1, the top of the front side of the groove 102 is higher than the top of the rear side, which facilitates the discharge of gas. This increases the conductive area of ​​the electrolytic graphene electrode body 1, and the groove 102 makes it easy to discharge the gas generated during the electrolysis process in a timely manner, reducing the phenomenon of electrolytic lines caused by the gas attached to the bottom affecting the conductive surface during the electrolysis process. Furthermore, by using the staggered positions of multiple grooves 102 at the bottom of two adjacent electrolytic graphene electrode bodies 1, the current has the same comprehensive effect on the same part of the plate, producing the same electrolysis effect and improving the electrolysis uniformity.

[0052] The U-shaped frame 2 and the moving rod 201 are used to support the six clamping blocks 101 to prevent the four electrolytic graphene electrode bodies 1 from falling. When the support clamping distance needs to be adjusted according to the different widths of the electrolytic graphene electrode bodies 1, the T-shaped screw 501 is rotated forward so that it rotates and moves forward within the nut 503. The T-shaped screw 501 drives the insulating pressure plate 5 to move forward. The insulating pressure plate 5 drives the two guide posts 502 to slide forward in the guide holes on the U-shaped frame 2 to perform lateral guiding work. The insulating pressure plate 5 drives the flexible rubber pad forward to squeeze the last electrolytic graphene electrode body 1. The last electrolytic graphene electrode body 1 squeezes the two last separator blocks 303 to move forward. The two last separator blocks 303 squeeze the electrolytic graphene electrode body 1 in front of them to move forward. By using the transmission of force, the work of sequentially squeezing forward is achieved. When 303 is compressed and moves forward, it drives the corresponding rectangular sliding sleeve 301 to slide forward on the rectangular guide rod 3. The rectangular guide rod 3 guides the partition block 303 forward and backward through the corresponding rectangular sliding sleeve 301. By automatically moving forward and guiding laterally when compressed, the partition block 303 is automatically guided forward and backward when the four electrolytic graphene electrode bodies 1 are installed in sequence and compressed. This allows the partition block 303 to adapt its displacement when compressed until it is gradually pressed or multiple electrolytic graphene electrode bodies 1 are respectively pressed against the corresponding partition block 303. The adjustable position of the insulating pressure plate 5 allows for flexible adjustment of the front and rear pressure restriction position according to the different front and rear widths of the electrolytic graphene electrode bodies 1. This facilitates stable front and rear restriction support for four electrolytic graphene electrode bodies 1 in groups of different widths, improving applicability.

[0053] When it is necessary to adjust the spacing between the left and right supports, rotate the two knob bolts 401 in the opposite direction to separate them from the outside of the U-shaped frame 2, release the locking of the rectangular guide sleeve 4, and move the moving rod 201 to the left or right to make the two rectangular guide sleeves 4 slide laterally on the U-shaped frame 2. After the position of the moving rod 201 is adjusted appropriately, rotate the two knob bolts 401 in the forward direction to squeeze them tightly against the outside of the U-shaped frame 2 for re-fixing. This allows personnel to flexibly adjust the spacing between the moving rod 201 and the inside of the U-shaped frame 2 according to different lengths of the electrolytic graphene electrode body 1. Since the lengths of the electrolytic graphene electrode body 1 are different for different products, it is convenient to use electrolytic graphene electrode bodies 1 of various lengths, further improving applicability.

[0054] Example 2

[0055] Based on Embodiment 1, this embodiment differs from Embodiment 1 in that: the partition block 303 is detachably connected to the outside of the corresponding rectangular sliding sleeve 301, the partition block 303 is in movable contact with the outside of the corresponding rectangular sliding sleeve 301, and a rectangular magnetic card block 302 is fixedly connected to the side of the two opposite rectangular sliding sleeves 301 that are close to each other. A rectangular slot 304 is opened on the side of the two opposite partition blocks 303 that are repulsive to each other. An iron sheet is glued and fixed to the inner wall of the side of the rectangular slot 304 away from its opening, and the rectangular magnetic card block 302 is movably locked in the corresponding rectangular slot 304 and attracts the iron sheet.

[0056] This embodiment allows personnel to easily assemble and disassemble the separator 303, enabling them to flexibly replace separators 303 of different widths according to spacing requirements, thus improving applicability.

[0057] The method of use in this embodiment is as follows: Unlike Embodiment 1, it also has the following functions: The rectangular magnetic clip 302, rectangular slot 304, and iron sheet are used to achieve convenient magnetic clamping and fixing of the separator block 303. After the electrolytic graphene electrode body 1 is removed, pulling the separator block 303 laterally will cause the corresponding rectangular slot 304 and iron sheet to separate from the rectangular magnetic clip 302, thus achieving convenient disassembly of the separator block 303. During installation, it can be directly clipped onto the rectangular magnetic clip 302, achieving the effect of convenient disassembly and assembly of the separator block 303. The detachable nature of the separator block 303 allows personnel to flexibly replace separator blocks 303 of different widths according to spacing requirements, improving applicability.

[0058] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. An electrolytic graphene electrode, comprising an electrolytic graphene electrode body (1), characterized in that: include: The electrolytic graphene electrode body (1) consists of four groups arranged in a front-to-back configuration. Each of the top sides is fixedly connected with a clamping block (101). The bottom of the electrode body has multiple grooves (102) with openings on both the front and back sides. The inner wall of the top of the groove (102) is an inclined surface. The top of the front side of the groove (102) is higher than the top of the rear side. The four groups of electrolytic graphene electrode bodies (1) are provided with a two-way adjustable clamping mechanism on the outside. The bidirectional adjustable clamping mechanism includes: The U-shaped frame (2) has a movable rod (201) on its inner right side. The inner wall of the left side of the U-shaped frame (2) and the left side of the movable rod (201) are both provided with rectangular grooves (202). The bottom of the card block (101) is glued and fixed with three insulating rubber pads. The top left side of the U-shaped frame (2) and the top of the movable rod (201) are in active contact with the corresponding three insulating rubber pads respectively. The guide sliding assembly consists of two sets, which are respectively fixedly installed between the front and rear inner walls of the corresponding rectangular groove (202). Three partition blocks (303) are connected to the side of the two guide sliding assemblies that are close to each other. The side of the two adjacent electrolytic graphene electrode bodies (1) is squeezed and contacted with the corresponding two partition blocks (303). The horizontal guide locking assembly consists of two sets, both of which are slidably sleeved on the outside of the U-shaped frame (2) and fixedly connected to the front and rear sides of the moving rod (201) respectively; The threaded horizontal adjustment and pressing assembly is installed on the inner wall of the rear side of the U-shaped frame (2) and is pressed into contact with the rear side of the electrolytic graphene electrode body (1) on the last side.

2. The electrolytic graphene electrode according to claim 1, characterized in that: The guide sliding assembly includes rectangular guide rods (3), two rectangular guide rods (3) are fixedly connected between the front and rear inner walls of the corresponding rectangular groove (202), and three rectangular sliding sleeves (301) are slidably sleeved on each of the two rectangular guide rods (3), and six partition blocks (303) are respectively connected to the outside of the corresponding rectangular sliding sleeves (301).

3. The electrolytic graphene electrode according to claim 2, characterized in that: The separator (303) is glued to the outside of the corresponding rectangular slide (301).

4. The electrolytic graphene electrode according to claim 2, characterized in that: The separator (303) is detachably connected to the outside of the corresponding rectangular slide (301). The separator (303) is in movable contact with the outside of the corresponding rectangular slide (301). A rectangular magnetic card block (302) is fixedly connected to the side of the two opposite rectangular slides (301) that are close to each other. A rectangular slot (304) is opened on the side of the two opposite separators (303) that are repulsive to each other. An iron sheet is glued and fixed on the inner wall of the side of the rectangular slot (304) away from its opening. The rectangular magnetic card block (302) is movably locked in the corresponding rectangular slot (304) and attracts the iron sheet.

5. The electrolytic graphene electrode according to claim 1, characterized in that: The horizontal guide locking assembly includes rectangular guide sleeves (4) and knob bolts (401). The two rectangular guide sleeves (4) are slidably sleeved on the U-shaped frame (2). The two rectangular guide sleeves (4) are fixedly connected to the front and rear ends of the moving rod (201) on their adjacent sides, respectively. The two knob bolts (401) are pressed against the front and rear sides of the U-shaped frame (2) on their adjacent ends, respectively. The two rectangular guide sleeves (4) are provided with threaded holes on their opposing sides, and the threaded holes are threadedly connected to the corresponding knob bolts (401).

6. The electrolytic graphene electrode according to claim 1, characterized in that: The threaded horizontal adjustment and pressing assembly includes an insulating pressure plate (5), a T-shaped screw (501), a nut (503), and two guide posts (502). The nut (503) is embedded and fixed on the inner wall of the rear side of the U-shaped frame (2). The T-shaped screw (501) is threaded and sleeved in the nut (503). The insulating pressure plate (5) is rotatably installed at the front end of the T-shaped screw (501). The two guide posts (502) are fixedly connected to the rear side of the insulating pressure plate (5). The U-shaped frame (2) is slidably sleeved on the two guide posts (502). A flexible rubber pad is bonded and fixed to the front side of the insulating pressure plate (5). The flexible rubber pad is pressed and contacted with the rear side of the electrolytic graphene electrode body (1) on the last side.

7. The electrolytic graphene electrode according to claim 1, characterized in that: Multiple grooves (102) on the bottom of two adjacent electrolytic graphene electrode bodies (1) are arranged alternately. The grooves (102) on the bottom of the first and third electrolytic graphene electrode bodies (1) are in the same position, and the grooves (102) on the bottom of the second and fourth electrolytic graphene electrode bodies (1) are in the same position.

8. The electrolytic graphene electrode according to claim 1, characterized in that: Rubber pads (203) are glued and fixed to the left inner wall, front inner wall and left side of the moving rod (201) of the U-shaped frame (2). Rectangular through holes are opened on the side of the two rubber pads (203) that are close to each other, and the rectangular through holes are connected to the corresponding rectangular grooves (202).

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