Cleaning tool for carbon product machining

Abstract

The invention relates to a cleaning tool for carbon product processing in the technical field of carbon product cleaning, which comprises a cleaning pool body, the cleaning pool body comprises a pool body structure, the interior of the pool body structure is provided with a cleaning bin, the exterior of the pool body structure is connected with a water flow driving structure, and the top of the pool body structure is provided with a cover body; a sinking mechanism and a zone soaking mechanism used for conducting zone cleaning on the carbon products are arranged in the cleaning bin, the sinking mechanism comprises a cage body structure used for conducting positioning storage on the carbon products, a suspension supporting assembly is arranged in the cage body structure, and the top of the cage body structure is connected with a connecting assembly; one end of each connecting assembly is located in the cover body, the other end of each connecting assembly is located on the surface of the cover body, and the multiple cage body structures and the multiple suspension supporting assemblies are arranged; according to the cleaning tool, the effects of positioning storage, suspended supporting, centrifugal cleaning and partitioned cleaning are achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of carbon product cleaning, and more specifically, to a cleaning tooling for carbon product processing. Background Art

[0002] In modern industrial production, carbon materials, with significant advantages such as being lightweight, conductive, and heat-conductive, cover carbon-containing materials such as graphite, diamond, fullerene, and carbine, and are extremely widely used in many fields. In the processing process of carbon products, inevitably, their surfaces will be contaminated with impurities such as dust, oil stains, and metal debris. On the one hand, these impurities will affect the appearance quality of carbon products, and on the other hand, they will greatly reduce their key properties such as conductivity and heat conductivity. Therefore, after the production of carbon products is completed, cleaning their surfaces becomes an essential step. However, most of the currently widely used cleaning toolings adopt a batch cleaning mode. In the actual operation process, usually, a batch of carbon products are uniformly placed in a cleaning pool, and then a cleaning liquid is injected for soaking, and then brushing cleaning is carried out. For spherical carbon products, during soaking, the special spherical shape makes them easy to roll and collide with each other in the cleaning pool. Moreover, due to the different weights of the products and the influence of other factors such as shape and density distribution, the sinking position of the products changes during cleaning. For example, some products with larger volume and heavier weight sink rapidly to the bottom of the cleaning pool under the action of gravity. At the same time, the impurities falling off the product surface during cleaning will gradually settle to the bottom of the pool with the flow of the cleaning liquid. In this way, the heavier products will gather together with a large amount of impurities. The impurities will not only reattach to the product surface but also hinder the full contact between the cleaning liquid and the product, seriously interfering with the cleaning effect of the heavier products. Summary of the Invention

[0003] To solve the problems raised in the background art, the present invention provides a cleaning tooling for carbon product processing, which includes a cleaning pool body. The cleaning pool body includes a pool body structure. The inside of the pool body structure is provided with a cleaning chamber, the outside is connected with a water flow driving structure, the top is provided with a cover body, and the bottom is supported by a support member. The cover body is vertically installed on the top of the pool body structure by independent driving. A snap is fixedly installed on the outer ring of the bottom of the cover body, and a snap groove is correspondingly opened at the top end of the pool body structure. Inside the cleaning bin, a sinking mechanism and a zone immersion mechanism for cleaning carbon products in zones are provided. The sinking mechanism includes a cage structure for positioning and storing carbon products. Inside the cage structure, a suspension component is provided. The top of the cage structure is connected to a connection component. One end of the connection component is located inside the cover body, and the other end of the connection component is located on the surface of the cover body. Multiple sets of the cage structure and the suspension component are provided.

[0004] Preferably, the cage structure includes a plurality of grasping bars, a plurality of side bars, and an end cover. The plurality of grasping bars and the plurality of side bars are all rotatably arranged on the top of the chassis. The plurality of grasping bars and the plurality of side bars are arranged in an interlaced manner. The tops of the plurality of grasping bars and the plurality of side bars are all helically installed inside the end cover. A sinking cavity is formed between the plurality of grasping bars and the plurality of side bars.

[0005] Preferably, the water flow driving structure includes a water inlet hole opened on one side surface of the pool body structure. The water inlet hole is located at the upper end of the inner cavity of the cleaning bin. An outlet hole is opened at the bottom of the inner cavity of the cleaning bin. A water inlet pipe is hermetically installed inside the water inlet hole. A water outlet pipe is hermetically installed inside the outlet hole. A valve body is installed inside the end of the water outlet pipe close to the cleaning bin.

[0006] Preferably, the suspension component includes an installation groove opened on the surface of the grasping bar close to the sinking cavity. A support bar is slidably installed inside the installation groove. A support brush is installed on the surface of the support bar. The end of the support brush extends out of the installation groove and is located inside the sinking cavity. A sealing member is snap-fitted and installed inside one end of the installation groove close to the end cover.

[0007] Preferably, the connection component includes a plurality of connection shafts. A regulation cavity is opened inside the cover body. A driving member is installed inside the regulation cavity. The bottom ends of the plurality of connection shafts are respectively snap-fitted and installed on the top of the end cover. The top ends of the plurality of connection shafts are all connected to the driving member.

[0008] Preferably, the driving member includes a driving gear. A driving motor is fixedly installed on the top of the cover body. The driving gear is coaxially connected to the driving motor. A plurality of auxiliary driving gears are meshed on the surface of the driving gear. The other ends of the plurality of auxiliary driving gears are all meshed and connected to a driven gear. The top ends of the plurality of connection shafts are respectively connected to the plurality of driven gears.

[0009] Preferably, the zone immersion mechanism includes a middle convex shaft fixedly installed in the middle of the cleaning bin. A plurality of side grooves are opened on the surface of the middle convex shaft and the inner wall of the cleaning bin. A partition plate is installed inside the corresponding two side grooves. Side wrapping strips are coated on both ends of the partition plate. The plurality of partition plates divide the cleaning bin into a plurality of corner cavities.

[0010] Preferably, a connecting block is fixedly installed on the bottom of the cover body, and the connecting block is adapted to the middle convex shaft. A plurality of plug-in strips are fixedly installed on one end of the connecting block away from the cover body, and the surfaces of the plurality of plug-in strips are respectively fitted with the inner walls of a plurality of side grooves opened on the surface of the middle convex shaft.

[0011] Preferably, a plurality of debris removal holes are provided inside the chassis, and side holes are provided on the surfaces of the plurality of side strips.

[0012] Preferably, a counterweight groove is provided on a surface of one side of the chassis away from the sink cavity, and a counterweight ring is mounted inside the counterweight groove.

[0013] Compared with the prior art, the present invention has the following beneficial effects: 1. The cleaning tool for carbon product processing provided by the present invention achieves the effect of positioning and storage: with the help of the sink cavity that can be opened and closed in the cage structure, the collision of products during cleaning is effectively reduced. When placing carbon products, the sink cavity is opened by rotating the end cover, and the end cover is closed after the product is placed, so that the product is accurately positioned in the sink cavity, avoiding disordered collision between products during the cleaning process, and ensuring that the products are stably immersed and cleaned in the specified area; 2. The cleaning tool for carbon product processing provided by the present invention realizes the effect of suspended support: the carbon product is suspended in the air by combining with the support brush in the suspension assembly, so that the soaking liquid can contact the carbon product to a greater extent during soaking, and fully soak it, thereby greatly improving the soaking and cleaning effects, allowing the soaking liquid to wrap the product to a greater extent, so that multiple parts of the product can fully absorb the soaking liquid, laying a good foundation for subsequent cleaning; 3. The cleaning tool for carbon product processing provided by the present invention achieves the effect of centrifugal cleaning: relying on the coordinated operation of the driving motor, gears of various levels and connecting shafts in the connecting assembly, the cage structure is driven to rotate in the cleaning chamber, and the centrifugal force is used to accelerate the flow of the cleaning liquid and support the brush to clean, so as to efficiently remove the dirt on the surface of the carbon product; 4. The cleaning tool for carbon product processing provided by the present invention realizes the effect of zoned cleaning: relying on the central convex shaft, the chamber plate and the related connection and fixing structure of the zone immersion mechanism, the cleaning chamber is divided into zones, which effectively reduces the situation where impurities generated during immersion are connected from the bottom. After cleaning, the cover is opened, the chamber plate is pulled, and multiple corner chambers are connected to each other, so that the cleaning liquid in the cleaning chamber can be discharged uniformly quickly and conveniently, which greatly improves the operating convenience and cleaning efficiency of the cleaning tool. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the overall decomposition structure of the present invention; Figure 3Schematic cross-sectional view of the cover body of the present invention; Figure 4 Schematic structural view of the driving member of the present invention; Figure 5 Front cross-sectional view of the pool body structure of the present invention; Figure 6 Schematic structural view of the corner cavity distribution of the present invention; Figure 7 For the present invention Figure 6 Schematic structural view of the position A; Figure 8 Schematic separation structure view of the cover body and the pool body structure of the present invention; Figure 9 One of the schematic structural views of the cage body of the present invention; Figure 10 Another schematic structural view of the cage body of the present invention; Figure 11 Schematic distribution structure view of the grab bar and the side bar of the present invention; Figure 12 Schematic structural view of the suspension support assembly of the present invention.

[0015] The meanings of the various reference numerals in the figure are as follows: 1. Cleaning pool body; 11. Pool body structure; 12. Cover body; 13. Support member; 14. Water flow driving structure; 121. Combining groove; 122. Combining buckle; 141. Water inlet pipe; 142. Water outlet pipe; 143. Water inlet hole; 144. Water outlet hole; 15. Cleaning chamber; 2. Sinking mechanism; 21. Cage body structure; 22. Suspension support assembly; 23. Connection assembly; 211. Grab bar; 212. Side bar; 213. End cover; 214. Chassis; 215. Sinking cavity; 221. Installation groove; 222. Support bar; 223. Support brush; 224. Sealing member; 231. Driving member; 232. Connecting shaft; 233. Regulation cavity; 2311. Driving motor; 2312. Driving gear; 2313. Auxiliary driving gear; 2314. Driving gear; 3. Zone immersion mechanism; 31. Middle convex shaft; 32. Side groove; 33. Partition plate; 34. Corner cavity; 35. Connecting abutment block; 36. Insertion bar; 37. Side wrapping bar; 4. Debris dropping hole; 41. Counterweight groove; 42. Counterweight ring; 43. Side hole. Detailed implementation manners

[0016] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to 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. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0017] Currently, most of the existing cleaning tooling adopts the method of batch cleaning. During this process, due to weight differences or other factors of the products, the sinking positions often change during cleaning. For example, heavier products sink in the cleaning pool, and impurities also sink to the bottom of the cleaning pool during cleaning and soaking. In this way, it will have an adverse impact on the cleaning effect of products with relatively heavy volumes.

[0018] Therefore, the present invention provides a cleaning tooling for carbon product processing. Refer to Figures 1-3 As shown, it includes a cleaning pool body 1, which is composed of a pool body structure 11. A cleaning chamber 15 is formed inside the pool body structure 11, and its bottom is supported by a support member 13. A cover body 12 is provided at the top of the pool body structure 11. The cover body 12 is vertically installed at the top of the pool body structure 11 by independent drive. A snap fastener 122 is fixedly installed on the outer ring of the bottom of the cover body 12, which corresponds and cooperates with a mating groove 121 opened at the top end of the pool body structure 11. A water flow driving structure 14 is connected to the outside of the pool body structure 11; A sinking mechanism 2 is provided in the cleaning chamber 15. The sinking mechanism 2 includes a cage structure 21 for positioning and storing carbon products. A suspension support assembly 22 is arranged inside the cage structure 21, and a connection assembly 23 is connected to the top. One end of the connection assembly 23 is located inside the cover body 12, and the other end is located on the surface of the cover body 12. There are multiple groups of the cage structure 21 and the suspension support assembly 22. In addition, a zone immersion mechanism 3 is also provided in the cleaning chamber 15 for cleaning carbon products in zones.

[0019] For the cleaning of carbon products, a water source needs to be introduced. First, the specific structure of the water flow driving structure 14 will be disclosed. The water flow driving structure 14 includes a water inlet hole 143 opened on one side surface of the pool body structure 11. The water inlet hole 143 is located at the upper end of the inner cavity of the cleaning chamber 15. An outlet hole 144 is opened at the bottom of the inner cavity of the cleaning chamber 15. A water inlet pipe 141 is hermetically installed inside the water inlet hole 143, and a water outlet pipe 142 is hermetically installed inside the outlet hole 144. A valve body is installed inside the end of the water outlet pipe 142 close to the cleaning chamber 15.

[0020] Refer to Figure 2 And in combination with Figure 5As shown, the water inlet pipe 141 of the water flow driving structure 14 is installed in the water inlet hole 143. Since the water inlet hole 143 is located at the upper end of the inner cavity of the cleaning bin 15, external water sources can flow into the cleaning bin 15 through the water inlet pipe 141 via the water inlet hole 143. The water, relying on gravity, enters the cleaning bin 15 from the high-positioned water inlet hole 143, starting to fill the inside of the cleaning bin 15 and providing a water source for subsequent cleaning and other operations. When the water in the cleaning bin 15 has completed its corresponding work, it needs to be drained. The water outlet hole 144 located at the bottom of the inner cavity of the cleaning bin 15 comes into play. The water accumulates towards the bottom under the action of gravity and enters the water outlet pipe 142 through the water outlet hole 144. A valve body is installed inside one end of the water outlet pipe 142 close to the cleaning bin 15. The valve body can control the on-off of the water outlet pipe 142 and the water flow rate, etc., thereby controlling the drainage process of the water in the cleaning bin 15 and realizing the circulation of the water flow or stopping the drainage according to needs.

[0021] To further ensure the position stability of carbon products during the cleaning process and effectively reduce the mutual collision between multiple carbon products, a cage structure 21 needs to be used to fix the positions of the carbon products. The specific structure of the cage structure 21 will be disclosed below. The cage structure 21 includes multiple gripping bars 211, multiple side bars 212, and an end cap 213. Multiple gripping bars 211 and multiple side bars 212 are all rotatably arranged on the top of the chassis 214. The multiple gripping bars 211 and multiple side bars 212 are arranged in an interlaced manner. The tops of the multiple gripping bars 211 and multiple side bars 212 are all helically installed inside the end cap 213. A sunken cavity 215 is formed between the multiple gripping bars 211 and multiple side bars 212.

[0022] Further, refer to Figure 9 、 Figure 10 and in combination with Figure 11As shown in the figure, when it is necessary to place carbon products, the end cover 213 is rotated by an external mechanical force to separate it from the grasping strip 211 and the side strip 212. At this time, the tops of the grasping strip 211 and the side strip 212 are no longer restricted, and their bottoms can rotate flexibly on the surface of the chassis 214, so that the top of the cage body is in an open state, and the sunken cavity 215 is opened accordingly. This design fully expands the placement space and provides convenience for carbon products. Subsequently, the carbon products are placed in the sunken cavity 215. Then, the tops of the grasping strip 211 and the side strip 212 are rotated again to make them gather, and then the end cover 213 is rotated and covered on their surfaces. In this way, the carbon products are separately stored in the sunken cavity 215, achieving the effect of separate storage and soaking. This not only effectively avoids damage caused by mutual collision between carbon products, but also ensures that each carbon product can evenly contact the soaking liquid during the soaking process, improving the effect of soaking treatment. It is worth mentioning that in order to reduce the loosening between the grasping strip 211 and the side strip 212 and the end cover 213 during soaking or cleaning, a reinforcing buckle is provided between the grasping strip 211 and the side strip 212 and the end cover 213. The existing technology is adopted and will not be elaborated here.

[0023] The suspension assembly 22 includes a mounting groove 221 opened on the surface of the grasping strip 211 close to the sunken cavity 215. A support strip 222 is slidably mounted inside the mounting groove 221. A support brush 223 is mounted on the surface of the support strip 222. The end of the support brush 223 extends out of the mounting groove 221 and is located inside the sunken cavity 215. A sealing member 224 is snap-fitted and mounted inside one end of the mounting groove 221 close to the end cover 213.

[0024] Refer to Figure 12 As shown in the figure, a mounting groove 221 is opened on the surface of the grasping strip 211 close to the sunken cavity 215. The support strip 222 is slidably mounted inside the mounting groove 221. Inside one end of the mounting groove 221 close to the end cover 213, the support strip 222 is limited by snap-fitting and mounting the sealing member 224. As Figure 11 shown, the support brush 223 is mounted on the surface of the support strip 222. The end of the support brush 223 extends out of the mounting groove 221 and extends into the inside of the sunken cavity 215. When the carbon product is located inside the sunken cavity 215, its bottom is located on the support brush 223, and the product can be lifted and suspended. In this way, during soaking, combined with the gaps in the support brush 223, the soaking liquid can contact the product in all directions, reducing the soaking dead angles that originally occurred due to the inability to contact the soaking liquid, and ensuring that all parts of the carbon product can be fully soaked and treated.

[0025] The plugging member 224 can be made of a rubber material with certain elasticity and corrosion resistance. Its shape is adapted to the internal structure of the installation groove 221 near one end of the end cover 213. For example, it is designed to fit the inner diameter of the installation groove 221 (using existing technology, not shown in the figure). A ring or multiple rings of raised annular ribs are provided on the surface of the plugging member 224. When it is clamped into the installation groove 221, the annular ribs generate a squeezing force due to elastic deformation and tightly fit the inner wall of the installation groove 221, thereby realizing the plugging of the support bar 222 and preventing the support bar 222 from sliding out from one end of the installation groove 221 near the end cover 213.

[0026] It should be noted that before placing the carbon products, it is necessary to select a cage structure 21 of an appropriate size according to the size of the products to be cleaned. The size of the carbon products needs to be smaller than the sunken cavity 215 and can be supported on the surface of the lower support brush 223.

[0027] Secondly, the specific structure of the connection component 23 is disclosed. The connection component 23 includes a plurality of connection shafts 232. A regulation cavity 233 is opened inside the cover body 12. A driving member 231 is installed inside the regulation cavity 233. The bottom ends of the plurality of connection shafts 232 are respectively clamped and installed on the top of the end cover 213, and the top ends of the plurality of connection shafts 232 are all connected to the driving member 231.

[0028] On the top of the end cover 213, a card slot adapted to the shape of the bottom end of the connection shaft 232 is provided. The bottom end of the connection shaft 232 is processed with a corresponding card block. During installation, the card block at the bottom end of the connection shaft 232 is aligned with the card slot on the top of the end cover 213, and it is pressed down and embedded so that the card block is clamped tightly in the card slot, completing the clamping connection between the connection shaft 232 and the end cover 213. This way of segmented installation further simplifies the placement process of the carbon products.

[0029] The driving member 231 includes a driving gear 2312. A driving motor 2311 is fixedly installed on the top of the cover body 12. The driving gear 2312 is coaxially connected to the driving motor 2311. A plurality of auxiliary driving gears 2313 are meshed on the surface of the driving gear 2312. The other ends of the plurality of auxiliary driving gears 2313 are all meshed and connected to a driving gear 2314. The top ends of the plurality of connection shafts 232 are respectively connected to the plurality of driving gears 2314.

[0030] Further, as Figure 4 and Figure 5It can be seen that the drive motor 2311 is installed on the top of the cover body 12. After starting, the rotation of the motor drives the coaxial driving gear 2312 to rotate. The driving gear 2312 meshes with a plurality of auxiliary driving gears 2313 to transmit power to the auxiliary driving gears 2313, causing the auxiliary driving gears 2313 to rotate. These auxiliary driving gears 2313 respectively mesh with the driving gears 2314, thereby driving the driving gears 2314 to operate. Since the tops of the plurality of connecting shafts 232 are respectively connected to the driving gears 2314 and the bottoms are firmly connected to the end cover 213 through clamping, the rotation of the driving gears 2314 is finally converted into the rotation of the connecting shafts 232, and then drives the cage structure 21 connected to the connecting shafts 232 to rotate in the cleaning chamber 15; After the soaking is completed, it enters the cleaning process. During the cleaning process, the centrifugal force generated by the rotation of the cage structure 21 accelerates the flow of the cleaning liquid in the cleaning chamber 15. The cleaning liquid flushes the surface of the carbon product at a high speed, forming an impact force on the dirt attached to it, effectively promoting the separation of the dirt from the surface of the carbon product and improving the cleaning effect; As Figure 9 shown, the support brush 223 inside the cage structure 21 is installed on the support bar 222. The support bar 222 is located in the installation groove 221 of the grasping bar 211. When the cage structure 21 rotates as a whole, the support brush 223 also rotates accordingly. The carbon product placed on the support brush 223 is relatively suspended in the sunken cavity 215. This relative movement causes the support brush 223 to continuously rub against the surface of the carbon product, thereby realizing the brushing and cleaning of all aspects of the carbon product. Combining with the flushing effect of the cleaning liquid brought by the centrifugal force, the dirt on the surface of the carbon product can be removed more efficiently.

[0031] In order to further improve the cleaning effect on the carbon product, the zone immersion mechanism 3 can be used to perform zone cleaning on the carbon product. Next, the specific structure of the zone immersion mechanism 3 will be disclosed. The zone immersion mechanism 3 includes a middle convex shaft 31 fixedly installed in the middle of the cleaning chamber 15. A plurality of side grooves 32 are provided on the surface of the middle convex shaft 31 and the inner wall of the cleaning chamber 15. A partition plate 33 is installed inside the corresponding two side grooves 32. Side wrapping strips 37 are coated on both ends of the partition plate 33. A plurality of partition plates 33 divide the cleaning chamber 15 into a plurality of corner cavities 34.

[0032] A connecting abutting block 35 is fixedly installed at the bottom of the cover body 12. The connecting abutting block 35 is adapted to the middle convex shaft 31. A plurality of inserting strips 36 are fixedly installed at one end of the connecting abutting block 35 away from the cover body 12. The surfaces of the plurality of inserting strips 36 are respectively attached to the inner walls of the plurality of side grooves 32 provided on the surface of the middle convex shaft 31.

[0033] The improvement lies in that: in the middle of the cleaning bin 15, a middle-convex shaft 31 is fixedly installed. By clamping the cavity-dividing plate 33 into the corresponding side groove 32, the cleaning bin 15 can be divided into multiple corner cavities 34 in combination with the middle-convex shaft 31. Multiple cage structures 21 are respectively placed in each corner cavity 34 to achieve the partition cleaning of carbon products. For the specific structure, reference can be made to Figure 6 , the height of the cavity-dividing plate 33 is lower than the water inlet hole 143 and higher than the cage structure 21. In this way, when water enters, it will not affect the water inlet of each corner cavity 34; Combined with Figure 7 and Figure 8 it can be seen that when the cover body 12 is closed, in order to ensure that each cage structure 21 can be accurately positioned in the corner cavity 34, the snap fastener 122 at the bottom of the cover body 12 will be clamped in the mating groove 121 at the top of the pool body structure 11. At the same time, the connecting abutting block 35 fixedly installed at the bottom of the cover body 12 will be attached to the top of the middle-convex shaft 31. Multiple insertion strips 36 fixedly installed at the bottom of the connecting abutting block 35 will then be inserted into the side groove 32 opened on the surface of the middle-convex shaft 31. Combined with the side wrapping strip 37 (preferably made of an elastic material such as rubber) provided on the side wall of the cavity-dividing plate 33, the cavity-dividing plate 33 can be effectively fixed, ensuring that the bottom of the corner cavity 34 fits stably during the soaking and cleaning processes, and greatly reducing the situation where impurities generated during soaking communicate from the bottom.

[0034] After the cleaning is completed, if it is necessary to drain the cleaning liquid in each corner cavity 34, open the cover body 12 to drive the connecting abutting block 35 and the insertion strips 36 to slide and separate from the middle-convex shaft 31. At this time, pull out the multiple cavity-dividing plates 33 from the side groove 32, and the multiple corner cavities 34 can be interconnected, facilitating the unified drainage of the cleaning liquid in the cleaning bin 15.

[0035] During the cleaning process of carbon products, in order to further improve the falling effect of dust and other impurities, and at the same time increase the contact area between the carbon products and the cleaning liquid, therefore, a plurality of impurity-dropping holes 4 are opened inside the chassis 214, and side holes 43 are opened on the surfaces of the multiple side strips 212.

[0036] The improvement lies in that: referring to Figure 10 and combined with Figure 11 as shown, a plurality of impurity-dropping holes 4 are opened inside the chassis 214, and side holes 43 are opened on the surfaces of the multiple side strips 212. The impurity-dropping holes 4 can enable the dust, impurities, etc. that fall off from the carbon products during cleaning and soaking to directly fall to the bottom of the cleaning bin 15, avoiding the accumulation of impurities in the cage structure 21 and affecting the cleaning effect. The side holes 43 on the surface of the side strip 212, on the one hand, can allow the cleaning liquid to flow more fully into various positions inside the cage structure 21 to contact the carbon products in all directions, and on the other hand, during the cleaning process, the impurities can also be discharged through the side holes 43, further improving the falling effect and ensuring that the carbon products can be cleaned in a cleaner and cleaning-liquid-filled environment.

[0037] When performing a cleaning operation in the cleaning chamber 15, the cage structure 21 needs to remain stable during rotation. Therefore, a counterweight groove 41 is formed on the surface of the chassis 214 away from the sunken cavity 215, and a counterweight ring 42 is snap-fitted inside the counterweight groove 41.

[0038] The improvement lies in: as Figure 10 shown, a counterweight ring 42 is snap-fitted inside the counterweight groove 41. The setting of the counterweight ring 42 can effectively adjust the center of gravity position of the cage structure 21, making the cage rotate more smoothly in the cleaning chamber 15. When the connecting shaft 232 drives the cage structure 21 to rotate, the weight distribution of the counterweight ring 42 makes the cage not easily shake due to factors such as centrifugal force, ensuring the position stability of the carbon products during the cleaning process.

[0039] In summary, through the water flow driving structure 14, a water inlet hole 143 is formed on one surface of the pool body structure 11, and the water inlet pipe 141 is hermetically installed in the water inlet hole 143 at the upper end of the inner cavity, enabling external water sources to flow into the cleaning chamber 15 by gravity through this hole, injecting the initial water source for the cleaning operation. The water outlet hole 144 formed at the bottom of the inner cavity of the cleaning chamber 15 has the water outlet pipe 142 hermetically installed inside, and a valve body is installed near one end of the cleaning chamber 15, which can accurately control the drainage process of the water in the cleaning chamber 15, flexibly realizing water flow circulation or stopping drainage as needed, providing the basic water flow power guarantee for the smooth progress of the entire cleaning process.

[0040] Secondly, in combination with the cage structure 21, multiple gripping bars 211 and multiple side bars 212 are rotatably arranged on the top of the chassis 214 and are arranged in an interlaced manner. Their tops are helically installed inside the end cap 213, jointly forming a sunken cavity 215. When placing carbon products, rotating the end cap 213 can make the bottoms of the gripping bars 211 and the side bars 212 rotate on the surface of the chassis 214, and the sunken cavity 215 is opened to expand the placement space. After the product is placed, the end cap 213 is closed again to achieve separate storage and soaking, avoiding mutual collision of the products. At the same time, in the suspension support assembly 22, an installation groove 221 is formed on the surface of the gripping bar 211 close to the sunken cavity 215, and the support bar 222 slides therein. The end of the support brush 223 installed on the surface of the support bar 222 extends into the sunken cavity 215, which can lift the carbon product to make it suspended, effectively reducing the soaking dead angle and ensuring that all parts of the product can fully contact the soaking liquid, greatly improving the soaking effect.

[0041] Next, in combination with the connecting component 23, a regulation cavity 233 is provided inside the cover body 12. The driving motor 2311 is installed on the top of the cover body 12, and its rotation drives the coaxial driving gear 2312 to rotate. The driving gear 2312 meshes with a plurality of auxiliary driving gears 2313 to sequentially transmit power to the auxiliary driving gears 2313 and the driving gear 2314. The tops of a plurality of connecting shafts 232 are connected to the driving gear 2314, and the bottoms are firmly connected to the end cover 213 through a clamping structure. Finally, the rotation of the driving gear 2314 is converted into the rotation of the connecting shaft 232, thereby driving the cage structure 21 to rotate in the cleaning chamber 15. During the cleaning process, the centrifugal force generated by the rotation of the cage structure 21 accelerates the flow of the cleaning liquid, which rapidly flushes the surface of the carbon products. Combined with the relative friction movement between the support brush 223 and the surface of the carbon products, the surface dirt can be removed more efficiently.

[0042] Finally, through the zone immersion mechanism 3, a middle convex shaft 31 is fixedly installed in the middle of the cleaning chamber 15. A plurality of side grooves 32 are provided on the surface of the middle convex shaft 31 and the inner wall of the cleaning chamber 15. A partition plate 33 is installed corresponding to two side grooves 32. The plurality of partition plates 33 divide the cleaning chamber 15 into a plurality of corner cavities 34. When the cover body 12 is closed, the snap-fastener 122 at the bottom is clamped in the mating groove 121 at the top of the tank body structure 11. The connecting abutting block 35 abuts against the top of the middle convex shaft 31, and its bottom inserting strip 36 is inserted into the side groove 32. Cooperating with the side wrapping strip 37 on the side wall of the partition plate 33, the partition plate 33 is effectively fixed, ensuring that the bottom of the corner cavity 34 fits stably and reducing the connection of soaking impurities from the bottom. After the cleaning is completed, the cover body 12 is opened, and pulling the partition plate 33 can connect the plurality of corner cavities 34, facilitating the unified discharge of the cleaning liquid. In addition, the plurality of impurity dropping holes 4 inside the chassis 214 and the side holes 43 on the surface of the side strip 212 can improve the dropping effect of dust and other impurities, increase the contact area between the cleaning liquid and the carbon products, and the counterweight ring 42 is installed in the counterweight groove 41 on the side of the chassis 214 away from the sunken cavity 215 to adjust the center of gravity of the cage structure 21 and ensure its stability when rotating in the cleaning chamber 15.

[0043] Finally, an efficient, stable and all-round processing process for the carbon products from soaking to cleaning is realized. The mutual collision damage of the carbon products during the cleaning process is effectively reduced, the quality of soaking and cleaning is greatly improved, enabling the carbon products to complete the cleaning process in a more ideal environment and meeting the high-quality requirements in actual production.

[0044] Working principle: During use, start the water flow driving structure 14. The external water source flows into the cleaning chamber 15 through the water inlet pipe 141 and the water inlet hole 143 to prepare for cleaning. At the same time, select a suitable cage structure 21 according to the size of the carbon products. With the help of external mechanical force, rotate the end cover 213 so that the bottoms of the grasping strips 211 and the side strips 212 rotate on the surface of the chassis 214, open the sunken cavity 215, place the carbon products therein, and then rotate the end cover 213 to close the cage. Then, the cover body 12 is closed, and the bottom snap 122 thereof is clamped in the top mating groove 121 of the pool body structure 11. The connecting abutting block 35 fits against the top of the middle convex shaft 31, the insertion strip 36 is inserted into the side groove 32, and the side wrapping strip 37 is used to fix the partition plate 33, dividing the cleaning chamber 15 into a plurality of corner chambers 34, and each cage structure 21 is located in the corresponding corner chamber 34. After soaking, the driving motor 2311 is started, which drives the driving gear 2312, and the connecting shaft 232 is rotated through the auxiliary driving gear 2313 and the driving gear 2314, thereby driving the cage structure 21 to rotate in the cleaning chamber 15. The centrifugal force generated by the rotation accelerates the flow of the cleaning liquid to wash the carbon products, and at the same time, the supporting brush 223 rubs against the surface of the carbon products for brushing and cleaning. After cleaning, the cover body 12 is opened, and the partition plate 33 is pulled to connect the corner chambers 34, and the cleaning liquid is discharged.

[0045] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and the descriptions in the specification are only preferred examples of the present invention and are not used to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A cleaning tool for carbon product processing, characterized in that: The cleaning pool body (1) comprises a pool body structure (11), wherein the pool body structure (11) is provided with a cleaning chamber (15) inside, is connected to a water flow driving structure (14) outside, and is provided with a cover body (12) on the top; The cover body (12) is independently driven and vertically mounted on the top of the pool structure (11); a buckle (122) is fixedly mounted on the outer ring of the bottom of the cover body (12); and a corresponding groove (121) is formed at the top of the pool structure (11); The cleaning chamber (15) is provided with a sinking mechanism (2) and a zone immersion mechanism (3) for zone cleaning of carbon products, the sinking mechanism (2) comprising a cage structure (21) for positioning and storing carbon products, the cage structure (21) being provided with a suspension assembly (22), the top of the cage structure (21) being connected with a connection assembly (23), one end of the connection assembly (23) being located inside the cover (12), and the other end of the connection assembly (23) being located on the surface of the cover (12), and the cage structure (21) and the suspension assembly (22) being provided with a plurality of groups; The cage structure (21) comprises a plurality of gripping bars (211), a plurality of side bars (212) and an end cover (213); the plurality of gripping bars (211) and the plurality of side bars (212) are all rotatably arranged on the top of a bottom plate (214); the plurality of gripping bars (211) and the plurality of side bars (212) are interlaced and arranged; the tops of the plurality of gripping bars (211) and the plurality of side bars (212) are all spirally installed inside the end cover (213); and a sink cavity (215) is formed between the plurality of gripping bars (211) and the plurality of side bars (212).

2. The cleaning tool for carbon product processing according to claim 1 is characterized in that: The water flow driving structure (14) comprises a water inlet hole (143) formed on a surface of one side of the pool body structure (11); the water inlet hole (143) is located at the upper end of the inner cavity of the cleaning chamber (15); a water outlet hole (144) is formed at the bottom of the inner cavity of the cleaning chamber (15); a water inlet pipe (141) is installed in a sealed manner inside the water inlet hole (143); a water outlet pipe (142) is installed in a sealed manner inside the water outlet hole (144); and a valve body is installed in the inner portion of one end of the water outlet pipe (142) close to the cleaning chamber (15).

3. The cleaning tool for carbon product processing according to claim 1 is characterized in that: The suspension component (22) comprises a mounting groove (221) formed on the surface of a side of the gripping bar (211) close to the sink cavity (215); a support bar (222) is slidably mounted inside the mounting groove (221); a support brush (223) is mounted on the surface of the support bar (222); an end of the support brush (223) extends out of the mounting groove (221) and is located inside the sink cavity (215); and a blocking member (224) is clamped and mounted inside one end of the mounting groove (221) close to the end cover (213).

4. The cleaning tool for carbon product processing according to claim 3 is characterized in that: The connection assembly (23) comprises a plurality of connection shafts (232); a regulating cavity (233) is provided inside the cover body (12); a driving member (231) is installed inside the regulating cavity (233); the bottom ends of the plurality of connection shafts (232) are respectively mounted on the top of the end cover (213); and the top ends of the plurality of connection shafts (232) are connected to the driving member (231).

5. The cleaning tool for carbon product processing according to claim 4 is characterized in that: The driving member (231) comprises a driving gear (2312); a driving motor (2311) is fixedly mounted on the top of the cover body (12); the driving gear (2312) is coaxially connected to the driving motor (2311); a plurality of auxiliary gears (2313) are meshedly arranged on the surface of the driving gear (2312); the other ends of the plurality of auxiliary gears (2313) are meshedly connected to a driving gear (2314); and the tops of the plurality of connecting shafts (232) are respectively connected to the plurality of driving gears (2314).

6. The cleaning tool for carbon product processing according to claim 1, characterized in that: The zone immersion mechanism (3) comprises a central convex shaft (31) fixedly mounted in the middle of the cleaning chamber (15); a plurality of side grooves (32) are provided on the surface of the central convex shaft (31) and the inner wall of the cleaning chamber (15); a cavity dividing plate (33) is installed inside two corresponding side grooves (32); both end surfaces of the cavity dividing plate (33) are coated with side wrapping strips (37); and the plurality of cavity dividing plates (33) divide the cleaning chamber (15) into a plurality of corner cavities (34).

7. The cleaning tool for carbon product processing according to claim 6, characterized in that: A connecting block (35) is fixedly mounted on the bottom of the cover body (12), and the connecting block (35) is adapted to the central convex shaft (31). A plurality of plug-in strips (36) are fixedly mounted on one end of the connecting block (35) away from the cover body (12), and the surfaces of the plurality of plug-in strips (36) are respectively fitted with the inner walls of a plurality of side grooves (32) provided on the surface of the central convex shaft (31).

8. The cleaning tool for carbon product processing according to claim 1 is characterized in that: A plurality of debris removal holes (4) are provided inside the bottom plate (214), and side holes (43) are provided on the surfaces of the plurality of side strips (212).

9. The cleaning tool for carbon product processing according to claim 1, characterized in that: A counterweight groove (41) is provided on a surface of one side of the chassis (214) away from the sink cavity (215), and a counterweight ring (42) is mounted in a clamped manner inside the counterweight groove (41).

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