Processing method of wear-resistant cutter nano coating

Abstract

The invention discloses a processing method of a wear-resistant cutter nano coating, and belongs to the technical field of cutter coating processing methods, and the processing method comprises the following steps: S1.1, receiving a cutter and a module, issuing a receipt after the cutter and the module are accepted and accepted, demagnetizing a packaging box, and notifying a client and issuing a report when the packaging box is accepted and accepted; s1.2, the tool successfully accepted in the step S1.1 is cleaned through an ultrasonic cleaning machine, and meanwhile, the module is subjected to mold holding and ultrasonic cleaning treatment; s1.3, the cutter and the module treated in the step S1.2 are sequentially dried and loaded on a rack, a nano coating is formed on the cutter through a vapor deposition technology, and the cutter is unloaded from the rack and subjected to quality detection; and S1.4, when the quality is detected to be qualified, packaging and shipping are carried out, and when the quality is detected to be unqualified, coating removing treatment is carried out on the cutter. The technical problem that due to the fact that gravity of a cutter only exists on the bottommost layer, ultrasonic cleaning cannot be conducted on different water layers, and the overall cleaning effect of the cutter is poor can be solved.

Description

Technical Field

[0001] The invention belongs to the technical field of tool coating processing technology, and specifically relates to a processing method for a wear-resistant tool nano coating. Background Art

[0002] Cutting tools are tools used for cutting in mechanical manufacturing, also known as cutting tools. Most cutting tools are machine-made, but there are also hand-made ones. Since the cutting tools used in mechanical manufacturing are basically used to cut metal materials, the term "cutting tools" is generally understood as metal cutting tools. Cutting tools can be divided into five categories according to the form of the workpiece processing surface: Cutting tools for processing various external surfaces include turning tools, planing tools, milling cutters, external surface broaches and files, etc.

[0003] Nano coating refers to the advanced technology of nano non-toxic coating, nano coating technology with high scientific and technological content. This high-tech nano coating is not only non-toxic and harmless, but also can slowly release a substance to degrade harmful substances such as formaldehyde and xylene in the room.

[0004] ‌The nano-coating processing on the tool is mainly achieved through the vapor deposition method, which is a process of covering one or more layers of material on the surface of the tool to improve the performance of the tool. Generally, the physical vapor deposition method is adopted, that is, the material source surface is vaporized into gaseous atoms or molecules, or partially ionized into ions, and a thin film with some special functions is deposited on the surface of the substrate through a low-pressure gas or plasma process. Ultrasonic cleaning is required before the tool is coated to avoid impurities and other particles from adhering to the tool, so as not to affect the subsequent processing. However, during the ultrasonic cleaning process, the tool only exists in the bottom layer due to gravity and cannot be ultrasonically cleaned in different water layers. In addition, if the ultrasonic separation process between the dirt and the tool is not dried in time, it will also affect the dirt. It may adhere to the tool again, resulting in the problem of poor overall cleaning effect. Summary of the invention

[0005] The purpose of the present invention is to provide a processing method for wear-resistant tool nano-coating to solve the technical problem that during the fine ultrasonic cleaning process, the tool only exists in the bottom layer due to gravity and cannot be ultrasonically cleaned in different water layers. In addition, if the ultrasonic separation process between the dirt and the tool is not promptly dried, the dirt may adhere to the tool again, resulting in poor overall cleaning effect.

[0006] In order to achieve the above object, the present invention adopts the following technical solutions: A method for processing a wear-resistant tool nano coating comprises the following steps: S1.1. Receive the cutting tools and modules, issue a receipt after acceptance, and demagnetize the packaging boxes. If acceptance fails, notify the customer and issue a report; S1.2, the tool successfully accepted in step S1.1 is cleaned by an ultrasonic cleaning machine (1), and the mold is molded, and then the molded module is further ultrasonically cleaned; S1.3, drying and placing the cutting tools and modules processed in step S1.2 on a shelf in turn, forming a nano coating on the cutting tools by vapor deposition technology, removing the cutting tools from the shelf and subjecting them to quality inspection; S1.4. When the quality inspection is qualified, the tool will be packaged and shipped. If the quality inspection is unqualified, the tool will be de-coated, and the customer will be notified and a report will be issued.

[0007] Furthermore, the ultrasonic cleaning machine includes a driving motor on a box body, the output shaft of the driving motor passes through the box body and extends to the intermittent gear, the outer wall of the intermittent gear is meshed with a gear plate fixed on the lifting rod, both sides of the bottom end of the lifting rod are fixed on the first filter plate, and one end of the first filter plate is provided with a second filter plate placed on the inner wall of the box body along the tool conveying direction; Among them, the first filter plate and the second filter plate are both arranged at an angle, one end of the first filter plate is connected with an inclined groove along the height direction of the second filter plate, and the first filter plate is connected with a slide groove along the side wall of the box body, and rollers are movably connected on both sides of the outer wall of the slide groove, and both ends of the second filter plate are fixedly installed on the side wall of the box body.

[0008] Furthermore, a collection box is provided directly below the first filter plate and the second filter plate and is placed at the bottom end of the inner wall of the box body. The collection box is of a pull-out design, and a handle is integrally formed on the collection box.

[0009] Furthermore, the output shaft of the drive motor and the first rotating shaft are connected via a first conveyor belt transmission, the outer wall of the first bevel gear on the first rotating shaft is meshed with a second bevel gear fixed on the second rotating shaft, and the outer wall of the second rotating shaft is connected to a beam placed on the inner wall of the box body via a bearing.

[0010] Furthermore, the extended ends on both sides of the bottom end of the second rotating shaft are connected to telescopic stirring rods that are in contact with the third filter plate. The third filter plate and the first filter plate and the second filter plate are all tilted in the same direction, and a conical feeding port placed on the box body is provided above the third filter plate. As the driving motor is started, the telescopic stirring rod rotates, stirs and separates during the falling process of the tool, and at the same time, the first filter plate moves up and down to cooperate with the second filter plate to perform multi-level water cleaning on the tool.

[0011] Furthermore, the output shaft of the driving motor and the third rotating shaft are connected via a second conveyor belt transmission, the outer wall of the third bevel gear on the third rotating shaft is meshed with a fourth bevel gear fixed on the reciprocating screw, the reciprocating screw is spirally driven with a screw nut matched with it, a fan is fixedly installed at the bottom end of the screw nut, and both ends of the screw nut are connected to a spreading assembly via a slider.

[0012] Furthermore, the spreading assembly includes a spreading plate, the spreading plate and the slider are connected by a bending rod, and the spreading plate is movably connected with a guide column along the length direction of the inner wall of the box, a dehydration plate is provided between the spreading plate and the bottom end of the inner wall of the box, and the dehydration plate is provided with equidistantly distributed dehydration grooves.

[0013] Furthermore, a partition fixed on the second filter plate is installed at one end of the spreading plate, and a gap placed on the dehydration plate is provided at the other end. When the driving motor is started, the spreading plate spreads the cutter flat on the dehydration plate, and the fan moves back and forth to perform air drying.

[0014] Furthermore, a sound wave vibration source adapted thereto is installed on the inner wall of the box, and the bottom of the box is connected to the ground via columns on all sides.

[0015] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are: (1) In the tool coating processing method, the mold is processed after the module is accepted, which can trim the shape of the module and make its surface effectively flat, which is convenient for improving the aesthetics and subsequent installation of the tool. Then, ultrasonic cleaning is used to effectively ensure the cleanliness of the module and the tool. After the coating treatment, the corresponding quality inspection is carried out to effectively ensure the delivery quality. At the same time, the corresponding acceptance procedures are set up before and after the product processing. The design is reasonable, the product quality is controlled, and a report is issued to give corresponding feedback, which improves the rigor of the entire processing method process.

[0016] (2) An ultrasonic cleaning machine is set up, and the tool enters the third filter plate through the conical feeding port. At this time, after the driving motor is started, the first rotating shaft is driven to rotate through the first conveyor belt, and the second rotating shaft drives the telescopic stirring rod to rotate with the help of the gear meshing transmission. In this way, the tool can perform ultrasonic cleaning during the falling process and can fully contact the water body, avoiding excessive concentration between the tools, playing a corresponding stirring and impurity separation role, and further improving the cleaning quality. In addition, the driving motor can drive the gear plate to move upward through the intermittent gear, and the gear plate and the lifting rod connecting piece can realize reciprocating lifting and lowering movement with the help of their own gravity. During the up and down movement of the lifting rod, the tool is gradually lifted from the bottom layer of the cleaning water, so that ultrasonic cleaning can be performed from multiple levels of water depth, maximizing the cleaning effect, reducing the situation where impurities accumulate at the bottom layer due to poor cleaning effect, and improving the cleaning quality of the product.

[0017] (3) A dehydration mechanism and a spreading component are provided. After the tool is cleaned, it slides onto the dehydration plate. The driving motor is started to drive the third rotating shaft to rotate through the second conveyor belt. With the help of mechanical transmission, the screw nut on the reciprocating screw moves horizontally back and forth, which can drive the spreading plate to spread the tool flat on the dehydration plate. In addition, with the help of the fan on the screw nut, the air drying work can be evenly achieved, thereby improving the efficiency of product cleaning and dehydration. No manual operation is required, the degree of automation is high, and the work efficiency is improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0019] Figure 1 It is a schematic flow chart of a method for processing a wear-resistant tool nano coating according to the present invention; Figure 2 The structure of the ultrasonic cleaning machine of the present invention is shown in FIG. Figure 1 ; Figure 3 The structure of the ultrasonic cleaning machine of the present invention is shown in FIG. Figure 2 ; Figure 4 The interior of the box of the present invention is schematically shown in FIG. Figure 1 ; Figure 5 The interior of the box of the present invention is schematically shown in FIG. Figure 2 ; Figure 6 The present invention Figure 4 A magnified image of point A; Figure 7 is a schematic diagram of the connection between the first filter plate and the second filter plate of the present invention; Figure 8 The present invention Figure 5 A magnified view of point B; Fig. 9 The present invention Figure 4 Enlarged view of point C; Fig.10 The present invention Figure 4 The enlarged view of point D; Fig.11 The present invention Figure 4 The enlarged view of point E; Fig.12 It is a framework diagram of a method for processing a wear-resistant tool nano coating according to the present invention.

[0020] 1. The ultrasonic cleaning machine; 2. The driving motor; 3. The intermittent gear; 4. The lifting rod; 5. The gear plate; 6. The first filter plate; 7. The second filter plate; 8. The inclined groove; 9. The slide groove; 10. The roller; 11. The collecting box; 12. The first rotating shaft; 13. The first conveyor belt; 14. The first bevel gear; 15. The second rotating shaft; 16. The second bevel gear; 17. The bearing; 18. The third filter plate; 19. The telescopic stirring rod; 20. The conical feeding port; 21. The third rotating shaft; 22. The second conveyor belt; 23. The third bevel gear; 24. The reciprocating screw; 25. The fourth bevel gear; 26. The screw nut; 27. The fan; 28. The slider; 29. ​​The spreading assembly; 30. The spreading plate; 31. The guide column; 32. The dehydration plate; 33. The dehydration groove; 34. The partition. DETAILED DESCRIPTION

[0021] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0022] Reference Manual Attached Figure 1 and Fig.12 , a method for processing a wear-resistant tool nano coating, comprising the following steps: S1.1. Receive the cutting tools and modules, issue a receipt after acceptance, and demagnetize the packaging boxes. If acceptance fails, notify the customer and issue a report; S1.2, the tool successfully accepted in step S1.1 is cleaned by ultrasonic cleaning machine 1, and the mold is molded, and then the molded module is further ultrasonically cleaned; S1.3, drying and placing the cutting tools and modules processed in step S1.2 on a shelf in turn, forming a nano coating on the cutting tools by vapor deposition technology, removing the cutting tools from the shelf and subjecting them to quality inspection; S1.4. When the quality inspection is qualified, the tool will be packaged and shipped. If the quality inspection is unqualified, the tool will be de-coated, and the customer will be notified and a report will be issued.

[0023] Specifically, quality inspection includes corrosion inspection, wear resistance inspection, breakage inspection, laser inspection, high temperature resistance inspection, hardness inspection, strength inspection, etc., so as to ensure the performance and safe use of the tool. The mold is polished manually, and then the module is trimmed to achieve a beautiful shape and smooth surface, which is convenient for the subsequent assembly of the tool.

[0024] Vapor deposition technology is divided into physical vapor deposition and chemical vapor deposition. It can also be selected according to the actual production of chemical vapor deposition methods. Chemical vapor deposition involves introducing gaseous reactants or liquid reactants containing thin film elements and other gases required for the reaction into the reaction chamber, and chemical reactions occur on the substrate surface to form thin films. The characteristics of this process include low deposition temperature, easy control of film composition, film thickness proportional to deposition time, good uniformity, good repeatability, and excellent step coverage.

[0025] In the tool coating processing method, the mold holding treatment is carried out after the module is accepted, which can trim the module shape and make its surface effectively flat, which is convenient for improving the aesthetics and subsequent installation of the tool. Then, ultrasonic cleaning is used to effectively ensure the cleanliness of the module and the tool. After the coating treatment, the corresponding quality inspection is carried out to effectively ensure the shipment quality. At the same time, corresponding acceptance procedures are set up before and after product processing, with reasonable design, product quality is controlled, and a report is issued to give corresponding feedback, which improves the rigor of the entire processing method flow.

[0026] Reference Figure 1 , Attachment Figure 2 and attached Figure 3 The ultrasonic cleaning machine 1 includes a driving motor 2 on a box body, the output shaft of the driving motor 2 penetrates the box body and extends to the intermittent gear 3, the outer wall of the intermittent gear 3 is meshed with a gear plate 5 fixed on a lifting rod 4, both sides of the bottom end of the lifting rod 4 are fixed on a first filter plate 6, and one end of the first filter plate 6 is provided with a second filter plate 7 arranged on the inner wall of the box body along the tool conveying direction; Among them, the first filter plate 6 and the second filter plate 7 are both arranged at an angle, one end of the first filter plate 6 is connected with an inclined groove 8 along the height direction of the second filter plate 7, and the first filter plate 6 is connected with a slide groove 9 along the side wall of the box body, and rollers 10 are movably connected on both sides of the outer wall of the slide groove 9, and both ends of the second filter plate 7 are fixedly installed on the side wall of the box body.

[0027] Specifically, a collecting box 11 is provided at the bottom end of the inner wall of the box body directly below the first filter plate 6 and the second filter plate 7. The collecting box 11 is of a pull-out design, and a handle is integrally formed on the collecting box 11. The first filter plate 6 and the second filter plate 7 can not only clean the tool in water bodies of different depths, but also separate the impurities cleaned by ultrasonic cleaning from the tool, thereby avoiding the accumulation of impurities at the bottom and affecting the ultrasonic cleaning effect of the tool. At the same time, when impurities enter the collecting box 11 through the filter holes, the water body can be discharged through the filter cloth connected to the water outlet, and then the collecting box 11 can be pulled out, thereby facilitating the subsequent cleaning of the impurities.

[0028] In addition, the first filter plate 6 and the second filter plate 7 are arranged at intervals, and the first filter plate 6 can move up and down through the lifting rod 4, while the second filter plate 7 is fixedly connected to the inner wall of the box, so that the first filter plate 6 can be continuously lifted by the tool during the lifting process, and the second filter plate 7 plays a role of transition adjustment. When the first filter plate 6 is moving up and down, the inclined groove 8 on the second filter plate 7 cooperates with the roller 10 in the slide groove 9, which can play a role of dual guide adjustment to prevent the transmission part from deviating from its position during the movement. Moreover, they are connected by rolling friction, which can effectively reduce friction, reduce friction damage, and increase the service life of the device.

[0029] An ultrasonic cleaning machine 1 is set up, and the tool enters the third filter plate 18 through the conical feeding port 20. At this time, after the driving motor 2 is started, the first rotating shaft 12 is driven to rotate through the first conveyor belt 13, and the second rotating shaft 15 drives the telescopic stirring rod 19 to rotate by means of the meshing transmission of the gears, so that the tool can perform ultrasonic cleaning while being in full contact with the water body during the falling process, avoiding excessive concentration between the tools, playing a corresponding stirring and impurity separation role, and further improving the cleaning quality. In addition, the driving motor 2 can drive the gear plate 5 to move upward through the intermittent gear 3, and the reciprocating lifting and lowering movement can be achieved by means of the self-gravity of the gear plate 5 and the lifting rod 4 connecting parts. During the up and down movement of the lifting rod 4, the tool is gradually lifted from the bottom layer of the cleaning water, so that ultrasonic cleaning can be performed from multiple levels of water depth, thereby maximizing the cleaning effect, reducing the situation where the cleaning effect is poor due to the accumulation of impurities when cleaning at the bottom layer, and improving the cleaning quality of the product.

[0030] refer to Figure 4 and Fig. 9 The output shaft of the driving motor 2 and the first rotating shaft 12 are connected through a first conveyor belt 13. The outer wall of the first bevel gear 14 on the first rotating shaft 12 is meshed with a second bevel gear 16 fixed on the second rotating shaft 15. The outer wall of the second rotating shaft 15 is connected to a beam placed on the inner wall of the box body through a bearing 17.

[0031] The crossbeam on the box body plays a role of fixed support for the bearing 17, and the setting of the bearing 17 can not only provide corresponding support force for the second rotating shaft 15, but also ensure its free rotation to prevent the phenomenon of rotational separation. The first bevel gear 14 and the second bevel gear 16 can play a role in power reversing and adjustment, thereby converting the horizontal force into vertical rotational force.

[0032] Specifically, the extended ends on both sides of the bottom end of the second rotating shaft 15 are connected to the telescopic stirring rod 19 that is in contact with the third filter plate 18. The third filter plate 18 and the first filter plate 6 and the second filter plate 7 are all tilted in the same direction, and a conical feeding port 20 placed on the box body is provided above the third filter plate 18. As the drive motor 2 is started, the telescopic stirring rod 19 rotates, stirs and separates during the falling process of the tool, and at the same time, the first filter plate 6 moves up and down to cooperate with the second filter plate 7 to perform multi-level water cleaning on the tool.

[0033] The telescopic stirring rod 19 is mainly set to adapt to the inclined setting of the third filter plate 18, so that the telescopic stirring rod 19 can automatically retract during the process of contact and fitting with the third filter plate 18, thereby affecting the normal rotation, and the bottom of the telescopic stirring rod 19 can be set to a rounded shape, which can effectively increase the contact area, reduce the pressure generated when the structural parts collide, and improve the safety of the device.

[0034] refer to Figure 4 , Fig.10 and Fig.11 The output shaft of the driving motor 2 and the third rotating shaft 21 are connected through the second conveyor belt 22. The outer wall of the third bevel gear 23 on the third rotating shaft 21 is meshed with a fourth bevel gear 25 fixed on the reciprocating screw 24. The reciprocating screw 24 is spirally driven with a screw nut 26 matched with it. A fan 27 is fixedly installed at the bottom end of the screw nut 26, and both ends of the screw nut 26 are connected to a spreading component 29 through a slider 28.

[0035] The spreading assembly 29 includes a spreading plate 30, which is connected to the slider 28 by a bending rod, and the spreading plate 30 is movably connected to a guide column 31 along the length direction of the inner wall of the box, and a dehydration plate 32 is provided between the spreading plate 30 and the bottom end of the inner wall of the box, and the dehydration plate 32 is provided with equidistantly distributed dehydration grooves 33. A partition plate 34 fixed on the second filter plate 7 is installed at one end of the spreading plate 30, and a gap is provided on the dehydration plate 32 at the other end. When the driving motor 2 is started, the spreading plate 30 spreads the cutter flat on the dehydration plate 32, and the fan 27 performs reciprocating air drying.

[0036] Specifically, after the driving motor 2 is started, it can drive the rotation of the reciprocating screw 24 through mechanical transmission, and then with the help of the spiral transmission, the fan 27 on the slider 28 can move back and forth for air drying. At the same time, the partition 34 arranged between the spreading component 29 and the second filter plate 7 can play a protective limit role to prevent clean water from entering the dehydration mechanism, and the shape of the top of the partition 34 is also inclined, so that the cleaned tool can slide onto the dehydration plate 32 by its own gravity. The dehydration groove 33 on the dehydration plate 32 provides space for the flow of water, preventing water from being retained on the dehydration plate 32, which is not conducive to the air drying effect of the tool.

[0037] A corresponding height difference is formed between the spreading plate 30 and the dehydration plate 32, so that the tools can be spread out flatly during the movement of the spreading plate 30. If the spreading plate 30 is directly connected to the dehydration plate 32, the tools can only be pushed from one end to the other end of the dehydration plate 32 during the movement of the spreading plate 30, and the corresponding spreading effect cannot be achieved. In addition, the guide column 31 arranged on the box body can play a guiding and supporting role for the spreading plate 30 during the movement, further ensuring the working stability of the transmission parts. Correspondingly, the dehydration plate 32 can also be designed to be pull-out, which can facilitate the subsequent rapid removal of the tools and is beneficial to personnel operation.

[0038] A dehydration mechanism and a spreading component 29 are provided. After the tool is cleaned, it slides onto the dehydration plate 32. The driving motor 2 is started to drive the third rotating shaft 21 to rotate through the second conveyor belt 22. With the help of mechanical transmission, the screw nut 26 on the reciprocating screw 24 moves horizontally back and forth, so that the spreading plate 30 can drive the tool to be spread flat on the dehydration plate 32. In addition, with the help of the fan 27 on the screw nut 26, the air drying work can be evenly achieved, thereby improving the efficiency of product cleaning and dehydration. No manual operation is required, the degree of automation is high, and the work efficiency is improved.

[0039] refer to Figure 5 , Figure 6 , Figure 7 and Figure 8 The first filter plate 6 and the second filter plate 7 are both arranged at an incline, one end of the first filter plate 6 is connected with an inclined groove 8 along the height direction of the second filter plate 7, a sound wave vibration source adapted thereto is installed on the inner wall of the box, and the bottom of the box is connected to the ground through columns on all sides.

[0040] The inclination direction of the first filter plate 6 and the second filter plate 7 is set to be inclined downward in the tool transportation direction, so that it can be adapted and connected with the tool transportation direction. At the same time, the lifting rod 4 drives the lifting movement of the first filter plate 6 to cooperate with the fixedly connected second filter plate 7 to lift the product. Compared with the lifting movement of multiple lifting components, the technical solution of the present invention can effectively reduce energy consumption and is beneficial to environmental protection.

[0041] The above are only preferred specific implementation modes of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical solutions and inventive concepts of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

[0042] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A method for processing a wear-resistant tool nano coating, characterized in that: The steps include: S1.

1. Receive the cutting tools and modules, issue a receipt after acceptance, and demagnetize the packaging boxes. If acceptance fails, notify the customer and issue a report; S1.2, the tool successfully accepted in step S1.1 is cleaned by an ultrasonic cleaning machine (1), and the mold is molded at the same time, and then the molded module is further ultrasonically cleaned; S1.3, drying and placing the cutting tools and modules processed in step S1.2 on a shelf in turn, forming a nano coating on the cutting tools by vapor deposition technology, removing the cutting tools from the shelf and subjecting them to quality inspection; S1.

4. When the quality inspection is qualified, the tool will be packaged and shipped. If the quality inspection is unqualified, the tool will be de-coated, and the customer will be notified and a report will be issued.

2. The method for processing a wear-resistant tool nano coating according to claim 1, characterized in that: The ultrasonic cleaning machine (1) comprises a driving motor (2) on a housing, the output shaft of the driving motor (2) passes through the housing and extends to an intermittent gear (3), the outer wall of the intermittent gear (3) is meshed with a gear plate (5) fixed on a lifting rod (4), both sides of the bottom end of the lifting rod (4) are fixed on a first filter plate (6), and one end of the first filter plate (6) is provided with a second filter plate (7) arranged on the inner wall of the housing along the tool conveying direction; The first filter plate (6) and the second filter plate (7) are both arranged in an inclined manner, one end of the first filter plate (6) is connected to an inclined groove (8) along the height direction of the second filter plate (7), and the first filter plate (6) is connected to a slide groove (9) along the side wall of the box body, and rollers (10) are movably connected to both sides of the outer wall of the slide groove (9), and both ends of the second filter plate (7) are fixedly mounted on the side wall of the box body.

3. The method for processing a wear-resistant tool nano coating according to claim 2, characterized in that: A collection box (11) is provided directly below the first filter plate (6) and the second filter plate (7) and is disposed at the bottom end of the inner wall of the box body. The collection box (11) is of a pull-out design and a handle is integrally formed on the collection box (11) and connected thereto.

4. The method for processing a wear-resistant tool nano coating according to claim 2, characterized in that: The output shaft of the drive motor (2) and the first rotating shaft (12) are connected in transmission via a first conveyor belt (13); the outer wall of a first bevel gear (14) on the first rotating shaft (12) is meshed with a second bevel gear (16) fixed on the second rotating shaft (15); and the outer wall of the second rotating shaft (15) is connected to a crossbeam disposed on the inner wall of the box body via a bearing (17).

5. The method for processing a wear-resistant tool nano coating according to claim 4, characterized in that: Extended ends on both sides of the bottom end of the second rotating shaft (15) are connected to telescopic stirring rods (19) that are in contact with the third filter plate (18); the third filter plate (18) is tilted in the same direction as the first filter plate (6) and the second filter plate (7); and a conical feeding port (20) disposed on the box body is provided above the third filter plate (18); when the driving motor (2) is started, the telescopic stirring rods (19) rotate and stir to separate the cutter during its falling process; at the same time, the first filter plate (6) moves up and down to cooperate with the second filter plate (7) to perform multi-layer water cleaning on the cutter.

6. The method for processing a wear-resistant tool nano coating according to claim 2, characterized in that: The output shaft of the drive motor (2) and the third rotating shaft (21) are connected to each other through a second conveyor belt (22); the outer wall of the third bevel gear (23) on the third rotating shaft (21) is meshed with a fourth bevel gear (25) fixed on a reciprocating screw (24); the reciprocating screw (24) is spirally driven with a screw nut (26) matched thereto; a fan (27) is fixedly mounted at the bottom end of the screw nut (26); and both ends of the screw nut (26) are connected to a spreading assembly (29) through a slider (28).

7. The method for processing a wear-resistant tool nano coating according to claim 6, characterized in that: The spreading assembly (29) comprises a spreading plate (30), wherein the spreading plate (30) and the slider (28) are connected via a bending rod, and the spreading plate (30) is movably connected to a guide column (31) along the length direction of the inner wall of the box body, and a dehydration plate (32) is provided between the spreading plate (30) and the bottom end of the inner wall of the box body, and the dehydration plate (32) is provided with dehydration grooves (33) distributed at equal intervals.

8. The method for processing a wear-resistant tool nano coating according to claim 7, characterized in that: A partition plate (34) fixed on the second filter plate (7) is installed at one end of the spreading plate (30), and a gap is provided on the dewatering plate (32) at the other end. When the driving motor (2) is started, the spreading plate (30) spreads the cutters flat on the dewatering plate (32), and the fan (27) performs reciprocating air drying.

9. The method for processing a wear-resistant tool nano coating according to claim 2, characterized in that: A sound wave vibration source adapted thereto is installed on the inner wall of the box, and the bottom of the box is connected to the ground via columns all around.

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