A cooling liquid wastewater regeneration treatment system for metal processing

Abstract

The present application relates to wastewater treatment technical field, especially a kind of metalworking cooling liquid wastewater regeneration treatment system, including processing box, the bottom of the processing box is vertically installed with guide rod, the inside upper position of the processing box is connected with oil collecting hopper by drive element, exchange hole is evenly opened in the outside of the pipe body, hydrophilic oleophobic film is arranged in the exchange hole, and a plurality of kapok fiber balls are placed in the bottom of the pipe body;The top of the guide rod is annular array and is provided with multiple sets of regulation and control structure, and the cleaning and control of hydrophilic oleophobic film in pipe body are carried out by multiple sets of regulation and control structure.The oil on the surface of wastewater can be collected by the intermittent lifting oil collecting hopper, and the oil-water mixture in the pipe body can be separated by hydrophilic oleophobic film, and the surface of hydrophilic oleophobic film can be cleaned during separation, to prevent particles from blocking hydrophilic oleophobic film.

Description

Technical Field

[0001] This invention relates to the field of wastewater treatment technology, and in particular to a wastewater regeneration system for metal processing coolant. Background Technology

[0002] The main functions of coolant used in metal processing include cooling, lubrication, chip removal, and rust and corrosion prevention. In the wastewater from these metal processing coolants, metal particles, lubricating oils, and microorganisms may be carried.

[0003] A patent application with publication number CN104803505A, entitled "A Metal Coolant Wastewater Treatment and Regeneration System," comprises a pre-filtration device, a polypropylene filter, a first storage device, a first filter, a second storage device, a second filter, a third storage device, a third filter, and a mixing device connected in sequence; a first return pipe, a first pump, a second return pipe, a second pump, a third return pipe, and a third pump. The first return pipe and the first pump are respectively connected to the first storage device and the first filter; the second return pipe and the second pump are respectively connected to the second storage device and the second filter; and the third return pipe and the third pump are respectively connected to the third storage device and the third filter. The provided metal coolant wastewater treatment and regeneration system has the advantages of good treatment effect, no pollution in the discharge, and the ability to regenerate coolant.

[0004] The existing technology described above uses multiple filtration devices to circulate and filter coolant wastewater. However, coolant wastewater contains not only particulate impurities but also other environmentally harmful substances that need to be treated, such as oil floating on the surface of the liquid. Furthermore, the oil can adhere to the filter medium during filtration, causing blockage. Summary of the Invention

[0005] The purpose of this invention is to address the shortcomings of existing technologies by proposing a wastewater regeneration system for metal processing coolant.

[0006] To achieve the above objectives, the present invention adopts the following technical solution:

[0007] Design a wastewater recycling system for metal processing coolant, including a treatment tank. A guide rod is vertically installed at the bottom of the treatment tank. An oil collection hopper is connected to the upper inner side of the treatment tank via a drive component. A pipe is provided at the bottom of the oil collection hopper, and the top of the guide rod extends to the inner side of the pipe. The oil collection hopper and the pipe are connected through a feed hole. Exchange holes are evenly opened on the outer side of the pipe. A hydrophilic and oleophobic film is provided in the exchange holes. Several kapok fiber balls are also placed at the bottom of the pipe.

[0008] The top of the guide rod is arranged in a ring array with multiple sets of control structures, which are used to clean the hydrophilic and oleophobic film and control the water-oil separation in the tube.

[0009] Preferably, the control structure includes a baffle, a straight rod, and an oil-wiping cloth. The straight rod is arranged in a ring array on the upper circumferential position of the guide rod. The baffle is vertically installed at the far end of the straight rod and fits against the inner wall of the tube. The oil-wiping cloth is adhered to the lower end of one side of the baffle, and the baffle will come into contact with the hydrophilic and oleophobic film during the up-and-down movement of the oil-wiping cloth.

[0010] Preferably, a slot is provided at the lower end of one side of the baffle, and multiple elastic blocks are arranged from top to bottom in the slot. The other side of the elastic blocks is bonded to the wiping cloth.

[0011] Preferably, the guide rod inside the tube is arranged in a ring array with multiple sets of toggle components, each toggle component including a main board, a toggle piece, and a notch;

[0012] The main board is vertically fixed to the outside of the guide rod, the paddles are symmetrically arranged on both sides of the main board, and the two paddles are inclined upwards. The notch is opened through the paddle.

[0013] Preferably, the driving component includes an electric telescopic rod, a connecting frame, and a bracket. The electric telescopic rod is fixed to the upper inner side of the processing box, the connecting frame is fixed to the bottom of the electric telescopic rod, and the bracket is arranged in a circular array between the connecting frame and the oil collection hopper.

[0014] Preferably, the hydrophilic and oleophobic membrane is a polytetrafluoroethylene modified membrane, and the thickness of the hydrophilic and oleophobic membrane is matched with the thickness of the exchange pore.

[0015] Preferably, the bottom of the treatment tank is provided with an aeration assembly, and several sets of aeration assemblies are arranged in an array at the bottom of the treatment tank. A strong oxidant, ozone, is introduced into the treatment tank through multiple sets of aeration assemblies.

[0016] Preferably, multiple sets of first ropes are suspended at the lower end of the oil collecting hopper, and a magnetic ring is fixedly attached to the bottom of the first rope. A second rope is connected between the magnetic ring and the bottom of the processing box, and the redundancy of the second rope is greater than that of the first rope.

[0017] Preferably, the plurality of magnetic rings oscillate with the rising bubbles, and adjacent magnetic rings are not affected by magnetic attraction.

[0018] Preferably, the upper part of the processing box is provided with a top cover, the top cover is provided with a feed inlet, and the bottom of the processing box is also provided with a liquid outlet.

[0019] The present invention proposes a wastewater regeneration system for metalworking coolant, which has the following advantages: the wastewater regeneration system for metalworking coolant utilizes an intermittently rising and falling oil collection hopper that moves on the surface of the wastewater to collect the oil on its surface. At the same time, the oil-water mixture entering the pipe body can be separated by a hydrophilic-oleophobic membrane, and the surface of the hydrophilic-oleophobic membrane can be cleaned during the separation process to prevent particles from clogging the hydrophilic-oleophobic membrane. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of a metalworking coolant wastewater regeneration system proposed in this invention.

[0021] Figure 2 This is a schematic diagram of the oil collection hopper in a metalworking coolant wastewater regeneration system proposed in this invention.

[0022] Figure 3 This is a schematic diagram showing the positional relationship between the oil collection hopper and the pipe body of a metalworking coolant wastewater regeneration treatment system proposed in this invention.

[0023] Figure 4 for Figure 1 An enlarged view of section A of a proposed wastewater regeneration system for metal processing coolant.

[0024] Figure 5 This is a schematic diagram of the inner side of the pipe body of a metal processing coolant wastewater regeneration and treatment system proposed in this invention.

[0025] Figure 6 This is a schematic diagram of the actuation component of a metalworking coolant wastewater regeneration system proposed in this invention.

[0026] Figure 7 for Figure 5 An enlarged view of section B of a proposed metalworking coolant wastewater regeneration and treatment system.

[0027] In the diagram: 1. Processing box; 2. Feed inlet; 3. Electric telescopic rod; 4. Oil collection hopper; 5. Connecting frame; 6. Support; 7. Exchange hole; 8. Pipe; 9. Guide rod; 10. Magnetic ring; 11. First rope; 12. Second rope; 13. Aeration assembly; 14. Notch; 15. Feed hole; 16. Baffle; 17. Straight rod; 18. Elastic block; 19. Oil wiping cloth; 20. Groove; 21. Main board; 22. Kapok fiber ball; 23. Paddle; 24. Hydrophilic and oleophobic film. Detailed Implementation

[0028] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0029] Example 1, referring to Figure 1-3 A metal processing coolant wastewater regeneration system includes a treatment tank 1. The upper part of the treatment tank 1 is provided with a top cover, and the top cover is provided with a feed inlet 2. The bottom of the treatment tank 1 is also provided with a liquid outlet. A guide rod 9 is vertically installed at the bottom of the treatment tank 1. An oil collection hopper 4 is connected to the upper part of the inner side of the treatment tank 1 through a drive component. A pipe body 8 is provided at the bottom of the oil collection hopper 4, and the top of the guide rod 9 extends to the inner side of the pipe body 8. The oil collection hopper 4 and the pipe body 8 are connected through a feed hole 15. Exchange holes 7 are evenly opened on the outer side of the pipe body 8. A hydrophilic and oleophobic film 24 is provided in the exchange holes 7. Several kapok fiber balls 22 are also placed at the bottom of the pipe body 8.

[0030] The driving components include an electric telescopic rod 3, a connecting frame 5, and a bracket 6. The electric telescopic rod 3 is fixed to the upper inner side of the treatment box 1, the connecting frame 5 is fixed to the bottom of the electric telescopic rod 3, and the bracket 6 is arranged in a ring array between the connecting frame 5 and the oil collection hopper 4. The top of the guide rod 9 is arranged in a ring array with multiple sets of control structures. The multiple sets of control structures are used to clean the hydrophilic and oleophobic film 24 and control the water and oil separation in the pipe body 8.

[0031] Reference Figure 5-7 The control structure includes a baffle 16, a straight rod 17, and an oil-wiping cloth 19. The straight rod 17 is arranged in a ring array on the upper circumferential position of the guide rod 9. The baffle 16 is vertically installed at the far end of the straight rod 17 and is attached to the inner wall of the tube body 8. The oil-wiping cloth 19 is adhered to the lower end of one side of the baffle 16. During the up-and-down movement of the baffle 16 and the oil-wiping cloth 19, it will come into contact with the hydrophilic and oleophobic film 24. The hydrophilic and oleophobic film 24 is specifically a polytetrafluoroethylene modified film, and the thickness of the hydrophilic and oleophobic film 24 matches the thickness of the exchange hole 7.

[0032] A slot 20 is provided at the lower end of one side of the baffle 16. Multiple elastic blocks 18 are arranged from top to bottom in the slot 20. The other side of the elastic block 18 is bonded to the oil wiping cloth 19.

[0033] Wastewater containing coolant is injected into the treatment tank 1 through the inlet 2. The liquid level is controlled so that it is below the oil collection hopper 4 at the initial position. The electric telescopic rod 3 is activated to move downwards, and the position of the oil collection hopper 4 drops. When the upper edge of the oil collection hopper 4 just covers the upper liquid surface of the wastewater, the oil floating on the water surface enters the inner side of the oil collection hopper 4 and enters the interior of the pipe body 8 through the inlet 15. When the electric telescopic rod 3 returns and drives the oil collection hopper 4 to rise, the floating oil on the liquid surface stops entering the oil collection hopper 4. At the same time, the hydrophilic and oleophobic film 24 is a polytetrafluoroethylene modified film. After the oil collection hopper 4 leaves the wastewater, the water that has entered the pipe body 8 is discharged again by utilizing the hydrophilic properties of the polytetrafluoroethylene modified film, leaving the oil inside the pipe body 8.

[0034] As the oil collecting hopper 4 descends, the positions of the top baffle 16 and the straight rod 17 of the guide rod 9 remain unchanged. When the baffle 16 coincides with the position of the hydrophilic-oleophobic membrane 24, the baffle 16 and the oil-wiping cloth 19 installed at its lower end can wipe the surface of the hydrophilic-oleophobic membrane 24 during the continued descent of the pipe body 8, removing particulate impurities adhering to the surface of the hydrophilic-oleophobic membrane 24, ensuring the normal working efficiency of the hydrophilic-oleophobic membrane 24. At the same time, the oil-wiping cloth 19 and the baffle 16 are used to seal the exchange hole 7 to prevent wastewater from entering the pipe body 8. During the process below the surface, a large amount of water enters the pipe body 8 through the exchange hole 7. Secondly, multiple elastic blocks 18 are provided inside the groove 20 at the lower end of the baffle 16. When the oil wiping cloth 19 comes into contact with the exchange hole 7, the elastic blocks 18 tightly press the oil wiping cloth 19 against one side of the hydrophilic and oleophobic film 24. The oil wiping cloth 19 is made of a waterproof material. When the oil collecting hopper 4 moves upward, the baffle 16 and the exchange hole 7 separate from each other, thus exposing the exchange hole 7. This facilitates the drainage of water inside the pipe body 8 after the oil collecting hopper 4 is suspended in the air.

[0035] Example 2, Reference Figure 5-6 The difference between this embodiment and embodiment 1 is that the guide rod 9 inside the tube body 8 has multiple sets of toggle components arranged in a ring array outside. The toggle components include a main board 21, a toggle 23 and a notch 14.

[0036] The main board 21 is vertically fixed to the outside of the guide rod 9. The paddles 23 are symmetrically arranged on both sides of the main board 21, and the two paddles 23 are inclined upward. The notch 14 is opened through the paddle 23.

[0037] To better absorb the oil entering the tube body 8, kapok fiber balls 22 are added to the bottom of the tube body 8. This material is mainly used to absorb oil. Using the kapok fiber balls 22 to absorb oil increases the amount of oil absorbed. Meanwhile, multiple sets of main plates 21 and symmetrically arranged paddles 23 on both sides of the main plates 21 are evenly arranged at the upper outer side of the guide rod 9. When the tube body 8 descends, the paddles 23 squeeze and agitate the kapok fiber balls 22 at the lower end of the tube body 8. The kapok fiber balls 22 then enter the space between the main plates 21 and the paddles 23. The oil will fall through the notch 14 on the paddle 23. During the stirring process, it can effectively break the water-oil surface layer inside the tube 8, allowing the re-entering oil molecules to contact the kapok fiber balls 22 more quickly. Secondly, as mentioned above, the wastewater contains some particulate matter. These particulate matter adheres to the outer surface of the kapok fiber balls 22, causing the fiber pores inside the kapok fiber balls 22 to be blocked. Later, when cleaning the inside of the tube 8, most of the oil is concentrated on the kapok fiber balls 22, making cleaning easier.

[0038] Example 3, Reference Figure 4The difference between this embodiment and Embodiments 1 and 2 is that an aeration assembly 13 is provided at the bottom of the treatment tank 1. Several sets of aeration assemblies 13 are arranged in an array at the bottom of the treatment tank 1. A strong oxidant, ozone, is injected into the treatment tank 1 through multiple sets of aeration assemblies 13. Multiple sets of first ropes 11 are suspended from the lower end of the oil collecting hopper 4. A magnetic ring 10 is fixedly attached to the bottom of the first rope 11. A second rope 12 is connected between the magnetic ring 10 and the bottom of the treatment tank 1. The redundancy of the second rope 12 is greater than that of the first rope 11. Multiple magnetic rings 10 swing with the rising air bubbles, and adjacent magnetic rings 10 are not affected by magnetic adsorption.

[0039] The wastewater containing coolant may contain metal fragments and microorganisms. These substances need to be treated before the coolant can be recycled to the next stage.

[0040] To this end, an array of aeration components 13 is arranged at the bottom of the treatment tank 1 to add ozone to the coolant inside the treatment tank 1. Ozone can effectively remove microorganisms and prevent the growth of microorganisms in the coolant. Secondly, a magnetic ring 10 is fixed between the oil collection hopper 4 and the treatment tank 1 by a first rope 11 and a second rope 12. The magnetic ring 10 uses its adsorption capacity to adsorb metal particles. At the same time, the redundancy of the second rope 12 is greater than that of the first rope 11, so that the magnetic ring 10 can move up and down with the oil collection hopper 4. Due to the ozone injected by the aeration components 13 below, upward bubbles are continuously generated in the coolant wastewater. The movement and breakage of the bubbles can cause the first rope 11 to swing. When the first rope 11 swings, the magnetic ring 10 can swing within a certain range inside the treatment tank 1, increasing the range of motion of the magnetic ring 10. When swinging, the adsorption effect of the magnetic ring 10 on metal particles can be improved. In addition, a certain distance is set between adjacent magnetic rings 10 so that they will not be attracted to each other during operation.

[0041] The working principle of this device is as follows:

[0042] Wastewater containing coolant is injected into the treatment tank 1 through the inlet 2. The liquid level is controlled so that it is below the oil collection hopper 4 at the initial position. The electric telescopic rod 3 is activated to move downwards, and the position of the oil collection hopper 4 drops. When the upper edge of the oil collection hopper 4 just covers the upper liquid surface of the wastewater, the oil floating on the water surface enters the inner side of the oil collection hopper 4 and enters the interior of the pipe body 8 through the inlet 15. When the electric telescopic rod 3 returns and drives the oil collection hopper 4 to rise, the floating oil on the liquid surface stops entering the oil collection hopper 4. At the same time, the hydrophilic and oleophobic film 24 is a polytetrafluoroethylene modified film. After the oil collection hopper 4 leaves the wastewater, the water that has entered the pipe body 8 is discharged again by utilizing the hydrophilic properties of the polytetrafluoroethylene modified film, leaving the oil inside the pipe body 8.

[0043] As the oil collecting hopper 4 descends, the positions of the top baffle 16 and the straight rod 17 of the guide rod 9 remain unchanged. When the baffle 16 coincides with the position of the hydrophilic-oleophobic membrane 24, the baffle 16 and the oil-wiping cloth 19 installed at its lower end can wipe the surface of the hydrophilic-oleophobic membrane 24 during the continued descent of the pipe body 8, removing particulate impurities adhering to the surface of the hydrophilic-oleophobic membrane 24, ensuring the normal working efficiency of the hydrophilic-oleophobic membrane 24. At the same time, the oil-wiping cloth 19 and the baffle 16 are used to seal the exchange hole 7 to prevent wastewater from entering the pipe body 8. During the process below the surface, a large amount of water enters the pipe body 8 through the exchange hole 7. Secondly, multiple elastic blocks 18 are provided inside the groove 20 at the lower end of the baffle 16. When the oil wiping cloth 19 comes into contact with the exchange hole 7, the elastic blocks 18 tightly press the oil wiping cloth 19 against one side of the hydrophilic and oleophobic film 24. The oil wiping cloth 19 is made of a waterproof material. When the oil collecting hopper 4 moves upward, the baffle 16 and the exchange hole 7 separate from each other, thus exposing the exchange hole 7. This facilitates the drainage of water inside the pipe body 8 after the oil collecting hopper 4 is suspended in the air.

[0044] To better absorb the oil entering the tube body 8, kapok fiber balls 22 are added to the bottom of the tube body 8. This material is mainly used to absorb oil. Using kapok fiber balls 22 to absorb oil can increase the amount of oil absorbed. At the same time, multiple sets of main plates 21 and symmetrically arranged paddles 23 on both sides of the main plates 21 are evenly arranged on the upper outer side of the guide rod 9. When the tube body 8 is lowered, the paddles 23 will squeeze and stir the kapok fiber balls 22 at the lower end of the tube body 8. During the stirring process, the water-oil surface layer inside the tube body 8 can be effectively broken, so that the oil molecules that re-enter can contact the kapok fiber balls 22 more quickly. Secondly, as mentioned above, the wastewater contains some particulate matter. These particulate matter adheres to the outer surface of the kapok fiber balls 22, which will cause the fiber pores inside the kapok fiber balls 22 to be blocked. When cleaning the inside of the tube body 8 later, most of the oil is concentrated on the kapok fiber balls 22, making cleaning easier.

[0045] The wastewater containing coolant may contain metal fragments and microorganisms. These substances need to be treated before the coolant can be recycled to the next stage.

[0046] To this end, an array of aeration components 13 is arranged at the bottom of the treatment tank 1 to add ozone to the coolant inside the treatment tank 1. Ozone can effectively remove microorganisms and prevent the growth of microorganisms in the coolant. Secondly, a magnetic ring 10 is fixed between the oil collection hopper 4 and the treatment tank 1 by a first rope 11 and a second rope 12. The magnetic ring 10 uses its adsorption capacity to adsorb metal particles. At the same time, the redundancy of the second rope 12 is greater than that of the first rope 11, so that the magnetic ring 10 can move up and down with the oil collection hopper 4. Due to the ozone injected by the aeration components 13 below, upward bubbles are continuously generated in the coolant wastewater. The movement and breakage of the bubbles can cause the first rope 11 to swing. When the first rope 11 swings, the magnetic ring 10 can swing within a certain range inside the treatment tank 1, increasing the range of motion of the magnetic ring 10. When swinging, the adsorption effect of the magnetic ring 10 on metal particles can be improved. In addition, a certain distance is set between adjacent magnetic rings 10 so that they will not be attracted to each other during operation.

[0047] This approach simultaneously addresses the issues of oil, microorganisms, and metal particles in the coolant wastewater.

[0048] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A metalworking fluid wastewater regeneration treatment system for a metalworking fluid wastewater, comprising a treatment tank (1), characterized in that The bottom of the processing box (1) is vertically provided with a guide rod (9), the upper inner side of the processing box (1) is connected with an oil collecting bucket (4) through a driving member, the bottom of the oil collecting bucket (4) is provided with a pipe body (8), the top of the guide rod (9) extends to the inner side of the pipe body (8), the oil collecting bucket (4) and the pipe body (8) are connected through an inlet hole (15), the outer side of the pipe body (8) is uniformly provided with exchange holes (7), the exchange holes (7) are provided with hydrophilic and oleophobic membranes (24), and the bottom of the pipe body (8) is further provided with a plurality of cotton fiber balls (22).

2. The metal working fluid wastewater regeneration treatment system according to claim 1, characterized by, The top of the guide rod (9) is annularly arranged with a plurality of groups of regulating structures, the hydrophilic and oleophobic membranes (24) are cleaned and the water-oil separation in the pipe body (8) is controlled through the regulating structures.

3. The metal working fluid wastewater regeneration treatment system according to claim 2, characterized by, The regulating structure comprises a baffle (16), a straight rod (17) and an oil wiping cloth (19), the straight rod (17) is annularly arranged at the circumferential position of the upper end of the guide rod (9), the baffle (16) is vertically arranged at the distal end of the straight rod (17), and the baffle (16) is attached to the inner wall of the pipe body (8), and the oil wiping cloth (19) is attached to the lower end of one side of the baffle (16), and the baffle (16) drives the oil wiping cloth (19) to move up and down, and the baffle (16) is in contact with the hydrophilic and oleophobic membranes (24) during the movement.

4. The metal working fluid wastewater regeneration treatment system according to claim 3, characterized by, The lower end of one side of the baffle (16) is provided with a notch (20), and a plurality of elastic blocks (18) are arranged in the notch (20) from top to bottom.

5. The metal working fluid wastewater regeneration treatment system according to claim 4, characterized by, The outer side of the guide rod (9) in the pipe body (8) is annularly arranged with a plurality of groups of poking components, the poking component comprises a main plate (21), a poking piece (23) and a notch (14), the main plate (21) is vertically fixed to the outer side of the guide rod (9), the poking piece (23) is symmetrically arranged on both sides of the main plate (21), and the two poking pieces (23) are arranged in an inclined upward manner, and the notch (14) is throughly arranged on the poking piece (23).

6. The metal working fluid wastewater regeneration treatment system according to claim 5, characterized by The driving member comprises an electric telescopic rod (3), a connecting frame (5) and a support (6), the electric telescopic rod (3) is fixed to the inner upper end of the processing box (1), the connecting frame (5) is fixed to the bottom of the electric telescopic rod (3), and the support (6) is annularly arranged between the connecting frame (5) and the oil collecting bucket (4). The hydrophilic and oleophobic membrane (24) is a polytetrafluoroethylene modified membrane, and the thickness of the hydrophilic and oleophobic membrane (24) matches the thickness of the exchange hole (7). The bottom of the processing box (1) is provided with aeration components (13), a plurality of groups of aeration components (13) are arranged in an array on the bottom of the processing box (1), a strong oxidant is filled into the processing box (1) through the plurality of groups of aeration components (13), and the strong oxidant is ozone.

7. The metal working fluid wastewater regeneration treatment system according to claim 6, characterized by, The lower end of the oil collecting hopper (4) is hung with multiple groups of first rope bodies (11), the bottom of the first rope body (11) is fixedly connected with a magnet ring (10), the magnet ring (10) is connected with the bottom of the processing box (1) through a second rope body (12), and the redundancy of the second rope body (12) is greater than that of the first rope body (11).

8. The metal working fluid wastewater regeneration treatment system according to claim 7, characterized by, Multiple magnet rings (10) swing with the rising bubbles, and the adjacent magnet rings (10) are not affected by the magnetic attraction.

9. The metal working fluid wastewater regeneration treatment system according to claim 1, characterized by, The upper part of the processing box (1) is provided with an upper cover, the upper cover is provided with a feeding port (2), and the bottom of the processing box (1) is also provided with a liquid discharge port.

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