A cleaning device for milling cutter cleaning

Abstract

This utility model discloses a cleaning device for cleaning milling cutters, including a pipe, a water supply mechanism, and an air supply mechanism. The pipe includes a cleaning section and a drying section, with the cleaning section near the inlet and the drying section near the outlet. Multiple sets of guide structures are equidistantly arranged on the inner walls of both the cleaning and drying sections, each set having multiple annular guide holes on the inner wall of the pipe. The water supply mechanism connects to the guide holes through the pipe, supplying high-pressure water into the cleaning section. The air supply mechanism connects to the guide holes through the pipe, supplying high-pressure gas into the drying section. This utility model completes the cleaning and drying of the milling cutter by placing it inside the pipe and sequentially passing it through the cleaning and drying sections. High-pressure water and gas jets from the guide holes propel the milling cutter rapidly within the pipe. After cleaning and drying, the milling cutter is ejected from the outlet. The entire process eliminates the need for frequent manual removal and placement of the milling cutter, thus solving the problem of long rinsing and drying times.

Description

Technical Field

[0001] This utility model relates to the field of milling cutter cleaning devices, and more particularly to a cleaning device for cleaning milling cutters. Background Technology

[0002] A milling cutter is a rotating cutting tool with one or more cutting teeth used for milling operations. During operation, the cutting teeth sequentially and intermittently remove the excess material from the workpiece. Milling cutters are mainly used on milling machines to machine planes, steps, grooves, shaped surfaces, and cut off workpieces. After machining, the surface of a milling cutter may contain grinding debris, oil, etc., so it needs to be cleaned before leaving the factory for packaging. However, in actual cleaning operations, the following drawbacks still exist: First, after rinsing, a large amount of water adheres to the surface of the milling cutter body, and direct drying takes a long time, wasting the time spent moving between rinsing and drying. Secondly, when cleaning milling cutters with equipment, it is necessary to manually remove the cleaned milling cutters from the equipment and then put them back in. When a factory has a large number of milling cutters that need to be cleaned, the frequent manual removal and placement of the milling cutters makes the cleaning process lengthy and extremely inefficient. Utility Model Content

[0003] The purpose of this invention is to provide a cleaning device for milling cutter cleaning, which solves the problem that existing milling cutter cleaning equipment has extremely low cleaning efficiency due to the time required for placing and removing milling cutters when cleaning a large number of milling cutters and for drying milling cutters.

[0004] To achieve this objective, the present invention adopts the following technical solution: A cleaning device for cleaning milling cutters includes pipes, a water supply mechanism, and an air supply mechanism; The pipeline includes a cleaning section and a drying section, with the cleaning section located near the inlet end of the pipeline and the drying section located near the outlet end of the pipeline. Multiple sets of guide structures are equidistantly arranged on the inner walls of the cleaning section and the drying section, and each set of guide structures has multiple guide holes arranged in a ring on the inner wall of the pipe. The water supply mechanism is connected to the guide hole through a pipe, and high-pressure water is introduced into the cleaning section; The gas supply mechanism is connected to the guide hole through a pipe to introduce high-pressure gas into the drying section.

[0005] Preferably, the drying section includes at least three pipe sections, and the guide structure is arranged inside the pipe sections; A drainage structure for discharging water and water vapor from the pipe is provided between the cleaning section and the drying section, as well as between two adjacent sections of the pipe.

[0006] Preferably, the discharge structure is a perforated pipe with multiple through holes through which water and water vapor are discharged.

[0007] Preferably, the discharge structure further includes an anti-turbulence component, which is fitted over the outside of the perforated pipe.

[0008] Preferably, the anti-turbulence component is an anti-turbulence pipe and a flow collection groove disposed at the bottom of the anti-turbulence pipe, wherein the anti-turbulence pipe is connected to the flow collection groove.

[0009] Preferably, the cleaning device for cleaning milling cutters further includes a water collection tank and a water collection pipe; The bottom of each of the collection tanks is connected to a water collection pipe, and water flows from the water collection pipe to the water collection tank; The water supply mechanism draws water from the water collection tank and introduces it into the cleaning section.

[0010] Preferably, the water supply mechanism includes multiple sets of first annular pipes, a first main pipe, and a water pump; Each group of first annular pipes is provided with multiple first branch pipes, and each first branch pipe is connected to each of the guide holes; The first main pipeline is connected to multiple sets of the first annular pipelines. The water pump draws water into the first main pipeline and then guides it into the cleaning section through the guide structure corresponding to the first annular pipeline.

[0011] Preferably, the gas supply mechanism includes multiple sets of second annular pipes, a second main pipe, and a gas pump; Each group of the second annular pipes is provided with multiple second branch pipes, and each second branch pipe is connected to each of the guide holes; The second main pipe is connected to multiple sets of second annular pipes. The air pump pumps gas into the second main pipe and through the guide structure corresponding to the second annular pipe into the drying section.

[0012] Preferably, the inlet end of the pipe is provided with a placement groove, the outlet end of the pipe is provided with a baffle groove, and a storage box is provided directly below the baffle groove. Both the placement groove and the retaining groove are connected to the pipe, and the opening of the retaining groove faces downward.

[0013] Preferably, the bottom of the placement slot is provided with a milling cutter groove with a semi-circular cross-section; The position of the milling cutter groove corresponds to the position of the pipe, and the diameter of the milling cutter groove is the same as the diameter of the pipe; The top inner groove of the placement groove is sloped, and the slope is connected to the top of the milling cutter groove. At least one air hole is provided on the inner wall of the placement groove on the side away from the pipe. The air hole is located on one side of the milling cutter groove and is connected to the air supply mechanism through an air pipe. The inner wall of the side of the baffle groove away from the pipe is a curved inner wall.

[0014] Compared with the prior art, the present invention has the following beneficial effects: This invention cleans and dries the milling cutter by placing it inside a pipe and passing it through a cleaning section and a drying section. High-pressure water and gas jets from a guide hole propel the milling cutter rapidly within the pipe. After cleaning and drying, the cutter is ejected from the pipe's outlet. The entire process eliminates the need for frequent manual removal and placement of the cutter, thus solving the problem of long rinsing and drying times. Attached Figure Description

[0015] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0016] The structures, proportions, sizes, etc., shown in the accompanying drawings of this specification are only for the purpose of assisting those skilled in the art in understanding and reading the content disclosed in the specification, and are not intended to limit the implementation conditions of this utility model. Therefore, they have no substantial technical significance. Any modifications to the structure, changes in the proportions, or adjustments to the size, without affecting the effects and purposes that this utility model can produce, should still fall within the scope of the technical content disclosed in this utility model.

[0017] Figure 1 This is a schematic diagram of a cleaning device for cleaning milling cutters; Figure 2 A front view of a cleaning device for cleaning milling cutters; Figure 3 This is a schematic diagram of the water supply mechanism and drainage structure in a cleaning device for cleaning milling cutters; Figure 4 This is a schematic diagram of the guide structure in a cleaning device for cleaning milling cutters; Figure 5 This is a schematic diagram of the structure of a cleaning device for cleaning milling cutters, showing the placement of a trough. Figure 6 This is a cross-sectional schematic diagram of a retaining groove in a cleaning device for cleaning milling cutters.

[0018] Illustrations: 1. Pipe; 2. Guide structure; 3. Hollowed-out pipe; 4. Water collection tank; 5. Water collection pipe; 101. Cleaning section; 102. Drying section; 103. Placement tank; 104. Baffle groove; 105. Storage box; 201. Guide hole; 301. Through hole; 302. Anti-turbulence component; 601. First annular pipe; 602. First main pipe; 603. Water pump; 701. Second annular pipe; 702. Second main pipe; 703. Air pump; 1021. Sectional pipe; 1031. Milling cutter groove; 1032. Air hole; 3021. Anti-turbulence pipe; 3022. Collection tank; 6011. First branch pipe; 7011. Second branch pipe. Detailed Implementation

[0019] To make the utility model's objectives, features, and advantages more apparent and understandable, the technical solutions in the embodiments of the present utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the embodiments described below 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 skilled in the art without creative effort are within the scope of protection of the present utility model.

[0020] In the description of this utility model, it should be understood that the terms "upper," "lower," "top," "bottom," "inner," and "outer," etc., indicating the orientation or positional relationship are based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. It should be noted that when a component is considered to be "connected" to another component, it can be directly connected to the other component or there may be a component centrally located at the same time.

[0021] The technical solution of this utility model will be further described below with reference to the accompanying drawings and specific embodiments.

[0022] This utility model embodiment provides a cleaning device for milling cutter cleaning, including a pipe 1, a water supply mechanism, and an air supply mechanism; as shown... Figure 1 , Figure 2 and Figure 4 As shown.

[0023] The pipeline 1 includes a cleaning section 101 and a drying section 102. The cleaning section 101 is located near the inlet end of the pipeline 1, and the drying section 102 is located near the outlet end of the pipeline 1. Multiple sets of guide structures 2 are equidistantly arranged on the inner walls of the cleaning section 101 and the air drying section 102. Each set of guide structures 2 has multiple guide holes 201 arranged in a ring on the inner wall of the pipe 1. The water supply mechanism is connected to the guide hole 201 through a pipe, and high-pressure water is introduced into the cleaning section 101; The gas supply mechanism is connected to the guide hole 201 through a pipe, and high-pressure gas is introduced into the air drying section 102.

[0024] In this embodiment, the milling cutter is placed inside the pipe 1 and sequentially passes through the cleaning section 101 and the drying section 102 to complete the cleaning and drying process. Water and gas are sprayed out at high pressure from the guide hole 201, propelling the milling cutter to move rapidly within the pipe 1. After cleaning and drying, the milling cutter is pushed out from the outlet end of the pipe 1. The entire process eliminates the need for frequent manual removal and placement of the milling cutter, thus solving the problem of long rinsing and drying times.

[0025] Specifically, the milling cutter to be cleaned is inserted into the inlet end of pipe 1, and the cutter first enters the cleaning section 101. The water supply mechanism sprays high-pressure water into pipe 1 through guide holes 201. The guide holes 201 on multiple sets of guide structures 2 are arranged in a ring, allowing water to be sprayed onto the surface of the milling cutter from multiple directions, achieving all-round cleaning. The high-pressure water not only cleans the milling cutter, but also propels the cutter forward along pipe 1.

[0026] After cleaning, the milling cutter is pushed into the drying section 102 by the water flow. The air supply mechanism sprays high-pressure gas into the pipe through the guide hole 201. Multiple guide structures 2 are also used, with gas sprayed from different directions to efficiently dry the milling cutter. The gas continues to propel the milling cutter forward until it is ejected from the outlet.

[0027] The entire cleaning and drying process is carried out continuously. The milling cutter moves automatically in the pipe and is finally pushed out from the outlet to complete the entire process.

[0028] Furthermore, the air-drying section 102 includes at least three sections of pipe 1021, and the guide structure 2 is arranged within the sections of pipe 1021; A drainage structure for discharging water and water vapor from the pipe is provided between the cleaning section 101 and the drying section 102, as well as between two adjacent sections of the pipe 1021.

[0029] In this embodiment, a more efficient and stable milling cutter cleaning and drying process is achieved by segmenting the drying section 102 and combining it with the application of a drainage structure. Specifically, the drying section 102 is divided into multiple segmented pipes 1021, making the drying process more precise. Each segment can be independently and efficiently dried, ensuring a gradual reduction in moisture and a better overall drying effect. Each segmented pipe 1021 has a guide structure 2 inside to ensure uniform airflow distribution and enhance the drying effect.

[0030] The drainage structure plays a crucial role: the drainage structure between the cleaning section 101 and the drying section 102 drains residual water from the cleaning section, preventing it from flowing into the drying section 102 and affecting the drying effect; the drainage structure between adjacent pipe sections 1021 is mainly used to drain water vapor and any residual liquid water generated during the drying process, maintaining a dry environment inside pipe 1 and improving drying efficiency. The drainage structure effectively drains water and water vapor, preventing water accumulation or moisture backflow from affecting the subsequent drying quality.

[0031] like Figure 3 As shown, the drainage structure is further described as a perforated pipe 3, which has multiple through holes 301 through which water and water vapor are discharged. It should be noted that the perforated pipe 3 is made of one of the following materials: stainless steel, polyvinyl chloride, aluminum alloy, or fiberglass.

[0032] In this embodiment, a perforated pipe 3 is introduced as a drainage structure, and multiple through holes 301 on it achieve efficient drainage and venting. This not only improves the overall efficiency of cleaning and drying but also enhances the stability and automation of the system. This design effectively solves problems such as poor drainage and moisture accumulation in traditional cleaning equipment.

[0033] The perforated pipe 3 is merely one specific embodiment of the drainage structure. The drainage structure can also be a vacuum-assisted drainage system, using a vacuum pump to create a low-pressure environment to promote the rapid flow of water and water vapor, facilitating the rapid discharge of liquids and gases from the system. This method is suitable for large-capacity systems requiring rapid drainage and venting.

[0034] Furthermore, the discharge structure also has an anti-turbulence component 302, which is sleeved on the outside of the hollow pipe 3.

[0035] In this embodiment, the design of the anti-turbulence component 302 reduces the impact of irregular external flows, such as external airflow, on the perforated pipe 3, allowing water and water vapor to be discharged more smoothly through the through holes 301, thus improving the overall drainage and ventilation efficiency. Simultaneously, it protects the perforated pipe 3. Because the perforated pipe 3 has many through holes 301, its structural strength is reduced, making it more susceptible to damage from impacts. The anti-turbulence component 302, fitted onto the outside of the perforated pipe 3, prevents direct impacts from external objects, enhancing the durability and operational stability of the drainage structure.

[0036] Furthermore, the anti-turbulence component 302 is an anti-turbulence pipe 3021 and a flow collection groove 3022 disposed at the bottom of the anti-turbulence pipe 3021, and the anti-turbulence pipe 3021 is connected to the flow collection groove 3022.

[0037] In this embodiment, the anti-turbulence pipe 3021 effectively protects the perforated pipe 3 from impacts by external objects, high-speed water flow, or airflow, extending its service life; it also reduces vibration and noise caused by turbulence, improving the overall operational stability of the equipment. The design of the collection trough 3022 makes the drainage path clear and centralized, facilitating daily maintenance and debris removal. At the same time, both the collection trough 3022 and the anti-turbulence pipe 3021 have the function of preventing water splashing. Water is collected through the collection trough 3022 and then treated uniformly, avoiding water waste.

[0038] Furthermore, the cleaning device for cleaning milling cutters also includes a water collection tank 4 and a water collection pipe 5; The bottom of each of the collection channels 3022 is connected to the water collection pipe 5, and the water flows from the water collection pipe 5 to the water collection channel 4; The water supply mechanism draws water from the water collection tank 4 and introduces it into the cleaning section 101.

[0039] In this embodiment, a complete wastewater recycling and reuse system for cleaning is constructed through a water supply mechanism, a water collection tank 4, and a water collection pipe 5. It should be noted that the water collection tank 4 can be a conventional water purification tank, or it can contain chemicals for precipitating impurities and purifying the water, such as alum, thus achieving wastewater purification and enabling the water circulation system to achieve wastewater recycling and reuse. This water circulation system not only effectively solves the problem of wastewater discharge during the cleaning process but also realizes the recycling of water resources, improving the automation level, energy-saving and environmental protection performance, and operating efficiency of the equipment. The stable water supply pressure of the circulating water system helps maintain the high-pressure jetting effect of the cleaning section 101.

[0040] like Figure 3 As shown, the water supply mechanism further includes multiple sets of first annular pipes 601, first main pipes 602, and water pumps 603; Each group of first annular pipes 601 is provided with multiple first branch pipes 6011, and each first branch pipe 6011 is connected to each guide hole 201. The first main pipe 602 is connected to multiple sets of the first annular pipes 601. The water pump 603 draws water into the first main pipe 602 and passes it into the cleaning section 101 through the guide structure 2 connected to the first annular pipe 601.

[0041] In this embodiment, the water pump 603 draws circulating water from the water collection tank 4, pressurizes the water, and delivers it to the first main pipe 602. The first main pipe 602 distributes the high-pressure water flow to multiple sets of first annular pipes 601 connected to it. Each set of first annular pipes 601 is distributed at different heights or areas of the cleaning section 101 to achieve comprehensive cleaning. Each set of first annular pipes 601 is connected to guide holes 201 provided on the inner wall of the cleaning section 101 through multiple first branch pipes 6011. The high-pressure water flow enters the guide hole 201 through the branch pipe 6011 and is sprayed into the internal space of the pipe 1 from the hole. The multiple guide holes 201 are distributed in annularly on the inner wall of the pipe 1, so that the high-pressure water flow is sprayed onto the surface of the milling cutter from multiple directions, achieving all-round, no-dead-angle cleaning of the milling cutter. At the same time, the sprayed high-pressure water flow pushes the milling cutter forward along the pipe 1 to complete the continuous cleaning operation. After cleaning, the wastewater flows into the discharge structure and eventually into the collection tank 4 through the collection pipe 5. The water pump 603 then draws water from the collection tank 4 again, forming a closed-loop water circulation system.

[0042] like Figure 1 As shown, the gas supply mechanism further includes multiple sets of second annular pipes 701, second main pipes 702, and air pumps 703; Each group of second annular pipes 701 is provided with multiple second branch pipes 7011, and each second branch pipe 7011 is connected to each of the guide holes 201; The second main pipe 702 is connected to multiple sets of second annular pipes 701. The air pump 703 pumps gas into the second main pipe 702 and through the guide structure 2 connected to the second annular pipe 701 to the air drying section 102.

[0043] In this embodiment, after the air pump 703 is started, it draws in air from the outside and pressurizes it. The pressurized high-pressure gas is then transported to the second main pipe 702. The second main pipe 702 serves as the main air supply channel, distributing the high-pressure gas to multiple sets of second annular pipes 701 connected to it. Each set of second annular pipes 701 is arranged at different positions in the drying section 102 to achieve uniform air supply. Each set of second annular pipes 701 is connected to guide holes 201 on the inner wall of the drying section 102 via multiple second branch pipes 7011. The high-pressure gas enters the guide holes 201 through the branch pipes 7011 and is then injected into the internal space of the pipe. Multiple guide holes 201 are annularly distributed on the inner wall of the drying section 102, allowing the high-pressure gas to be sprayed onto the milling cutter surface from multiple directions, achieving all-around purging of residual moisture after cleaning, accelerating moisture evaporation and discharge. Simultaneously, the airflow propels the milling cutter forward, completing the continuous drying operation. The water vapor and some condensate generated during the air drying process are discharged through the drainage structure and finally flow into the water collection tank 4 through the collection tank 3022 and the water collection pipe 5, thus completing the entire drying process.

[0044] Furthermore, a placement groove 103 is provided at the inlet end of the pipe 1, a baffle groove 104 is provided at the outlet end of the pipe 1, and a storage box 105 is provided directly below the baffle groove 104. Both the placement groove 103 and the baffle groove 104 are connected to the pipe 1, and the baffle groove 104 opens downwards.

[0045] In this embodiment, the operator or automated equipment places the milling cutter to be cleaned into the placement trough 103, which is connected to the pipe 1. The milling cutter can be pushed into the cleaning section 101 by the water or air flow. The milling cutter first enters the cleaning section 101 under the pressure of high-pressure water flow for rinsing, and then enters the drying section 102 for drying under the pressure of high-pressure gas. Cleaning wastewater and water vapor are discharged through the drain structure, and recycled water is collected and reused by the collection tank 3022. After cleaning and drying, the milling cutter is pushed by the airflow to the outlet end of the pipe 1. The outlet end is provided with a baffle 104, which guides the milling cutter to slide out of the outlet end of the pipe 1 in an orderly manner. The baffle 104 opens downwards, serving as a limit and guide to prevent the milling cutter from falling directly and causing damage or disorder. The milling cutter slides from the baffle 104 into the storage box 105 located directly below it. The storage box 105 is used to collect the cleaned and dried milling cutters for easy subsequent retrieval or transportation.

[0046] This technical solution achieves automatic loading and unloading and orderly collection of milling cutter cleaning process by setting a placement groove 103 at the inlet end of the pipe 1, setting a baffle groove 104 at the outlet end, and configuring a storage box 105 below it.

[0047] like Figure 5As shown, the bottom of the placement groove 103 is provided with a milling cutter groove 1031 with a semi-circular cross section; The position of the milling cutter groove 1031 corresponds to the position of the pipe 1, and the diameter of the milling cutter groove 1031 is the same as the diameter of the pipe 1; The top inner groove of the placement groove 103 is set with an inclined surface, and the inclined surface is connected to the top of the milling cutter groove 1031. It should be noted that the semi-circular milling cutter groove 1031 is aligned with the pipe 1 to ensure that each milling cutter can accurately enter the cleaning channel; the inclined design reduces the difficulty of manual placement, allowing the milling cutter to fall quickly and accurately into the milling cutter groove 1031 along the inclined surface, thus improving operating efficiency.

[0048] At least one air hole 1032 is provided on the inner wall of the placement groove 103 away from the pipe 1. The air hole 1032 is located on one side of the milling cutter groove 1031 and is connected to the air supply mechanism through an air pipe. It should be noted that the air vent 1032, in conjunction with the air supply system, provides a small amount of airflow to help the milling cutter smoothly enter the pipeline and improve the system's automation level.

[0049] like Figure 6 As shown, the inner wall of the retaining groove 104 on the side away from the pipe 1 is a curved inner wall. The retaining groove 104 adopts a curved inner wall design, which effectively slows down the sliding speed of the milling cutter and prevents impact damage.

[0050] In this embodiment, the structures of the placement groove 103 and the retaining groove 104 are optimized. A milling cutter groove 1031 is provided to ensure accurate positioning of the milling cutter; a sloped structure is added to facilitate placement; an air hole 1032 is introduced to achieve pneumatically assisted feeding; and the retaining groove 104 uses a curved inner wall to buffer the slippage of the milling cutter. The curved inner wall of the retaining groove 104 can already achieve the purpose of stress relief and guiding the movement direction of the milling cutter. However, since the outer wall of the milling cutter is easily deformed by impact, conventional flexible materials, such as rubber-based cushioning pads or sponge pads, can be placed inside the retaining groove 104. Alternatively, the entire retaining groove 104 can be made of a soft, cushioning material such as silicone, which is existing technology and is not shown in the figures.

[0051] These structural optimizations have significantly improved the overall cleaning device in terms of delivery accuracy, ease of operation, operational safety, and automation.

[0052] The above-described embodiments are only used to illustrate the technical solutions of this utility model, and are not intended to limit it. Although this utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this utility model.

Claims

1. A cleaning device for cleaning of a milling tool, c h a r a c t e r i s e d i n that Includes pipelines (1), water supply system and gas supply system; The pipeline (1) includes a cleaning section (101) and a drying section (102), the cleaning section (101) being close to the inlet end of the pipeline (1) and the drying section (102) being close to the outlet end of the pipeline (1); Multiple sets of guide structures (2) are arranged at equal intervals on the inner walls of the cleaning section (101) and the air drying section (102), and each set of guide structures (2) has multiple guide holes (201) arranged in a ring on the inner wall of the pipe (1). The water supply mechanism is connected to the guide hole (201) through a pipe, and high-pressure water is introduced into the cleaning section (101); The gas supply mechanism is connected to the guide hole (201) through a pipe to introduce high-pressure gas into the air-drying section (102).

2. The cleaning apparatus for milling cutter cleaning according to claim 1, characterized in that, The air-drying section (102) includes at least three sections of pipe (1021), and the guide structure (2) is arranged inside the sections of pipe (1021); A drainage structure for discharging water and water vapor from the pipe is provided between the cleaning section (101) and the drying section (102) and between two adjacent sections of the pipe (1021).

3. The cleaning apparatus for milling cutter cleaning according to claim 2, characterized in that, The discharge structure is a hollow pipe (3) with multiple through holes (301) on it, through which water and water vapor are discharged.

4. The cleaning apparatus for milling cutter cleaning according to claim 3, wherein The discharge structure also has an anti-disturbance component (302), which is sleeved on the outside of the hollow pipe (3).

5. The cleaning apparatus for milling cutter cleaning according to claim 4, wherein The anti-turbulence component (302) is an anti-turbulence pipe (3021) and a flow collection groove (3022) disposed at the bottom of the anti-turbulence pipe (3021), wherein the anti-turbulence pipe (3021) and the flow collection groove (3022) are connected.

6. The cleaning apparatus for milling cutter cleaning according to claim 5, wherein, The cleaning device for cleaning milling cutters also includes a water collection tank (4) and a water collection pipe (5). The bottom of each of the collection tanks (3022) is connected to the water collection pipe (5), and water flows from the water collection pipe (5) to the water collection tank (4). The water supply mechanism draws water from the water collection tank (4) and feeds it into the cleaning section (101).

7. The cleaning apparatus for milling cutter cleaning according to claim 1, wherein The water supply mechanism includes multiple sets of first ring pipes (601), first main pipes (602), and water pumps (603). Each group of first annular pipes (601) is provided with multiple first branch pipes (6011), and each first branch pipe (6011) is connected to each of the guide holes (201); The first main pipe (602) is connected to multiple sets of the first annular pipes (601). The water pump (603) pumps water into the first main pipe (602) and through the guide structure (2) corresponding to the first annular pipe (601) into the cleaning section (101).

8. The cleaning apparatus for milling cutter cleaning of claim 1, wherein, The gas supply mechanism includes multiple sets of second annular pipes (701), second main pipes (702), and air pumps (703). Each group of the second annular pipes (701) is provided with a plurality of second branch pipes (7011), and each second branch pipe (7011) is connected to each of the guide holes (201); The second main pipe (702) is connected to multiple sets of the second annular pipes (701). The air pump (703) pumps gas into the second main pipe (702) and through the guide structure (2) corresponding to the second annular pipe (701) into the drying section (102).

9. The cleaning apparatus for milling cutter cleaning according to claim 1, wherein, The inlet end of the pipe (1) is provided with a placement groove (103), the outlet end of the pipe (1) is provided with a baffle groove (104), and a storage box (105) is provided directly below the baffle groove (104). Both the placement groove (103) and the baffle groove (104) are connected to the pipe (1), and the baffle groove (104) opens downward.

10. The cleaning apparatus for milling cutter cleaning according to claim 9, wherein, The bottom of the placement slot (103) is provided with a milling cutter groove (1031) with a semi-circular cross section. The position of the milling cutter groove (1031) corresponds to the position of the pipe (1), and the diameter of the milling cutter groove (1031) is the same as the diameter of the pipe (1); The top inner groove of the placement groove (103) is set with an inclined surface, and the inclined surface is connected to the top of the milling cutter groove (1031); At least one air hole (1032) is provided on the inner wall of the side of the placement groove (1) away from the pipe (1). The air hole (1032) is located on one side of the milling cutter groove (1031) and is connected to the air supply mechanism through an air pipe. The inner wall of the side of the baffle (104) away from the pipe (1) is a curved inner wall.

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