Food and medicine health care product processing protein wastewater treatment system

Abstract

The invention provides a protein wastewater treatment system for food and medicine health-care product processing. The protein wastewater treatment system comprises a storage assembly, a power assembly and a treatment assembly, the storage assembly comprises a treatment tank, the upper part of the treatment tank is fixedly communicated with a liquid discharge pipe, the lower part of the treatment tank is fixedly communicated with a liquid inlet pipe, and the treatment tank is fixedly communicated with a storage tank; the power assembly comprises a motor, the motor is connected with the treatment tank, and an output shaft of the motor is connected with a driving bevel gear. The invention relates to the technical field of wastewater treatment, in particular to a food and medicine health care product processing protein wastewater treatment system. Aiming at the defects in the prior art, the protein wastewater treatment system for food and medicine health-care product processing is developed, protein wastewater treatment can be conveniently achieved, liquid medicine and water in a local area are mixed and then discharged, uniform stirring is achieved, and protein precipitation is prevented from being attached to the tank wall and the tank bottom of a treatment tank; the separation and the discharge of wastewater and protein precipitate are conveniently realized.

Description

Technical Field

[0001] The present invention relates to the technical field of wastewater treatment, in particular to a protein wastewater treatment system for processing food, medicine and health care products. Background Art

[0002] Food, medicine, and health supplements are three categories of products we frequently encounter in our daily lives. Their processing generates significant amounts of protein wastewater. Key characteristics of this wastewater include high concentration, high perishability, acidic content, high foaming, resistance to biodegradation, and a strong odor. The treatment of protein wastewater is a key environmental priority. By adopting appropriate treatment methods, we can effectively reduce environmental pollution and achieve resource recovery.

[0003] Prior art, for example, includes a protein-contaminated wastewater treatment device with a utility model, authorization publication number CN218320950U. This device utilizes a second transmission shaft, spiral blades, a stirring shaft, and a stirring rod. The second transmission shaft drives the spiral blades to transport wastewater from the bottom of the sedimentation tank to the top of the sedimentation tank, where the stirring shaft drives the stirring rod to evenly mix the wastewater, thereby thoroughly mixing the reagent with the wastewater.

[0004] At present, there is still a lack of a treatment system that can facilitate the treatment of protein wastewater, so that the solution containing the drug is mixed with the water in the local area and then discharged, to achieve uniform stirring, to prevent protein precipitation from adhering to the wall and bottom of the treatment tank, to facilitate the separation of wastewater and protein precipitation, and to facilitate the discharge of protein precipitation.

[0005] Therefore, in response to the above problems, a protein wastewater treatment system for food, medicine and health care product processing is proposed to solve the above problems. Summary of the Invention

[0006] In response to the deficiencies of the existing technology, the present invention develops a protein wastewater treatment system for food, medicine and health product processing. The invention can conveniently treat protein wastewater, mix the drug solution with water in a local area and then discharge it, achieve uniform stirring, avoid protein precipitation adhering to the wall and bottom of the treatment tank, and facilitate the separation and discharge of wastewater and protein precipitation.

[0007] The technical solution to the technical problem solved by the present invention is as follows: The present invention provides a protein wastewater treatment system for food, medicine and health care product processing, comprising: a storage component, a power component and a treatment component; the storage component comprises a treatment tank, the upper part of which is fixedly connected to a liquid discharge pipe, the lower part of which is fixedly connected to a liquid inlet pipe, and the treatment tank is fixedly connected to a storage tank; the power component comprises a motor, the motor is connected to the treatment tank, the output shaft of the motor is connected to a driving bevel gear, and the driving bevel gear meshes with a driven bevel gear; the treatment component comprises a splined hole shaft, the driven bevel gear is connected to the splined hole shaft, the splined hole shaft bearing is connected to the top plate of the treatment tank, and the splined hole shaft is connected to a symmetrical mounting cross plate; the symmetrical mounting cross plates are respectively connected to vertical scraping rods, and the symmetrical vertical scraping rods are respectively closely attached to the tank wall of the treatment tank. By adding protein-containing wastewater and adding liquid medicine into the treatment tank, protein precipitation is achieved, and the vertical scraping rods rotate to stir the wastewater and liquid medicine while scraping protein off the tank wall of the treatment tank.

[0008] As an optimization, a hollow spline shaft is provided within the spline hole shaft, which passes through the driven bevel gear. The hollow spline shaft bearing is connected to a round tube, which is connected to a transverse groove. The eccentric portion of the active bevel gear is connected to a power rod, which is set in the transverse groove. The hollow spline shaft is connected to a blade fan, which is set in the storage tank. Protein precipitation is achieved by adding protein-containing wastewater and a liquid medicine to the treatment tank. The blade fan rotates slowly, stirring the liquid medicine and wastewater, accelerating the precipitation of the precipitate. The precipitate accumulates in the storage tank, making it easy to collect and use.

[0009] As an optimization, the symmetrical mounting cross plates are respectively connected to the inner circular rods, which are respectively connected to the annular plates. The annular plates are provided with a set of evenly distributed convex bottom grooves, each of which is provided with a convex bottom block, each of which is respectively connected to the lower inclined plate, each of which is respectively connected to the arc plate, each of which is respectively provided with a set of evenly distributed through holes, each of which is respectively provided with a convex oblique groove, each of which is respectively provided with a convex oblique block, each of which is respectively connected to the upper inclined plate, each of which is respectively connected to the cover, the hollow spline shaft is connected to the cover, each of which is respectively connected to the fan-shaped plates, each of which is respectively provided with an arc groove, and a set of the arc grooves matches the hollow spline shaft. This device uses fan-shaped plates. When a set of fan-shaped plates contacts the hollow spline shaft, the cover contacts the annular plates, forming a sealed area and sealing the storage tank at the same time. This facilitates the precipitation of sediment in the storage tank.

[0010] As an optimization, the cover is rotatably connected to a symmetrical L-axis, the annular plate is rotatably connected to symmetrical scrapers, and the symmetrical L-axis is rotatably connected to the corresponding scrapers, which are each connected to a set of evenly distributed scraping teeth. The scrapers orbit and move along the bottom of the treatment tank, scraping off and lifting the sediment, while the blades rotate to move the sediment into the storage tank.

[0011] As an optimization, the cover is connected to a set of outer rods, each of which is connected to a piston, through which the splined shaft passes. When the outer rods and pistons move, the pistons squeeze the air and liquid in the treatment tank, accelerating the intermittent discharge of wastewater through the drain pipe.

[0012] As an optimization, the transverse grooves are connected to symmetrical guide vertical rods, which respectively pass through the top plate of the processing tank. By adopting the guide vertical rods, the transverse grooves can be easily moved in the height direction.

[0013] As an optimization, an input assembly is also included, comprising the circular tube, which is fixedly connected to the pipe joint, and the hollow spline shaft is provided with a set of evenly distributed liquid outlet holes. The use of the circular tube facilitates the input of the liquid medicine, which is discharged from the liquid outlet holes and easily mixed with the wastewater entering through the liquid inlet pipe. When the set of sector plates contacts the hollow spline shaft, the cover contacts the annular plate, forming a sealed area, which facilitates mixing of the two and improves the treatment effect.

[0014] As an optimization, a switch assembly is also included, comprising a hemispherical valve, which is matched with the drain pipe and connected to a valve shaft. The valve shaft bearing is connected to the drain pipe and the top extension plate of the treatment tank. The valve shaft is connected to a driven synchronous pulley, and the splined hole shaft is connected to a driving synchronous pulley. One end of the synchronous belt is wrapped around the driving synchronous pulley, and the other end of the synchronous belt is wrapped around the driven synchronous pulley. The use of a synchronous belt mechanism to achieve the movement of the hemispherical valve facilitates the intermittent discharge of treated wastewater.

[0015] As an optimization, the processing tank is connected to a protective cover, and the protective cover is provided with a notch corresponding to the synchronous belt. By adopting the protective cover, the power component is protected.

[0016] As an optimization, the storage tank is fixedly connected to a discharge valve to facilitate the discharge of protein precipitation.

[0017] The effects provided in the summary of the invention are only the effects of the embodiments, rather than all the effects of the invention. The above technical solution has the following advantages or beneficial effects: This system precipitates protein by adding protein-containing wastewater and a liquid chemical to the treatment tank. The slowly rotating impeller stirs the chemical and wastewater, accelerating the precipitation of the precipitate. The precipitate accumulates in the storage tank for easy collection and ease of use. The vertical scraper rotates to stir the wastewater and chemical while simultaneously scraping protein off the tank walls. The scraper teeth revolve along the tank bottom, scraping off the precipitate and lifting it. The scraper guides the protein precipitate, while the impeller rotates to move the precipitate into the storage tank.

[0018] 2. This device utilizes sector plates. When one set of sector plates contacts the hollow spline shaft, the cover contacts the annular plate, creating a sealed area that simultaneously seals the storage tank. This facilitates the removal of precipitates from the storage tank. Using a circular tube, etc., it facilitates the input of liquid medicine, which is discharged from the liquid outlet and easily mixed with wastewater entering through the liquid inlet pipe. When one set of sector plates contacts the hollow spline shaft, the cover contacts the annular plate, creating a double sealed area that facilitates mixing and achieves better treatment results. The mixed liquid can be discharged outward through the gap between the through-hole and the arc plates when they are not in contact, and then discharged through the gap between the cover and the annular plate, achieving multiple treatment options. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0020] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention.

[0021] Figure 2 The partially cutaway three-dimensional structure of the present invention is shown Figure 1 .

[0022] Figure 3 The partially cutaway three-dimensional structure of the present invention is shown Figure 2 .

[0023] Figure 4 It is a schematic diagram of the local three-dimensional structure of the present invention Figure 1 .

[0024] Figure 5 It is a schematic diagram of the local three-dimensional structure of the present invention Figure 2 .

[0025] Figure 6 It is a partially cutaway schematic diagram of the three-dimensional structure of the processing component of the present invention.

[0026] Figure 7 It is a schematic diagram of the partial three-dimensional structure of the processing component of the present invention.

[0027] Figure 8 It is a schematic diagram of the three-dimensional structure of the input component of the present invention.

[0028] Figure 9 It is a schematic diagram of the local three-dimensional structure of the present invention Figure 3 .

[0029] Figure 10 This is a schematic diagram of the process of clamping the hollow spline shaft with the sector plate of the present invention.

[0030] In the picture: 1. Storage assembly, 11. Protective cover, 12. Processing tank, 13. Drain pipe, 14. Inlet pipe, 15. Storage tank, 16. Discharge valve; 2. Power assembly, 21. Motor, 22. Driving bevel gear, 23. Power round rod, 24. Transverse groove, 25. Guide vertical rod, 26. Driven bevel gear; 3. Switch assembly, 31. Active synchronous pulley, 32. Synchronous belt, 33. Driven synchronous pulley, 34. Valve shaft, 35. Hemispherical valve; 4. Processing assembly, 41. Spline hole shaft, 42. Mounting cross plate, 43. Vertical scraper rod, 44. Inner round rod, 45. Circular ring plate, 46. Blade fan, 47. Cover, 48. Outer round rod, 49. Hollow spline shaft, 410. Piston, 411. Convex inclined block, 412. Upper inclined plate, 413. L-axis, 414. Scraper, 415. Lower inclined plate, 416. Arc plate, 417. Through hole, 418. Convex bottom groove, 419. Scraping teeth, 420. Convex inclined groove, 421. Convex bottom block, 422. Sector plate, 423. Arc groove; 5. Input assembly, 51. Round tube, 52. Pipe joint, 53. Liquid outlet. DETAILED DESCRIPTION

[0031] To clearly illustrate the technical features of this solution, the present invention is described in detail below through specific embodiments and in conjunction with the accompanying drawings. The following disclosure provides numerous different embodiments or examples for implementing various configurations of the present invention. To simplify the disclosure of the present invention, the following description focuses on components and configurations of specific examples. Furthermore, reference numbers and / or letters may be repeated throughout the various examples. This repetition is for the purpose of simplicity and clarity and does not in itself indicate a relationship between the various embodiments and / or configurations discussed. It should be noted that the components illustrated in the drawings are not necessarily drawn to scale. Descriptions of well-known components and processing techniques and processes are omitted to avoid unnecessarily limiting the present invention. Terms such as "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer" indicate positions or locations based on the positions or locations shown in the drawings. These terms are used solely to facilitate the description of the present invention and simplify the description. They are not intended to indicate or imply that the devices or components referred to must have, be constructed, or operate in a specific orientation, and are therefore not to be construed as limiting the present invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance. In the description of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "mounted," "connected," and "connected" should be understood in a broad sense. For example, they may refer to fixed, detachable, or integral connections; mechanical or electrical connections; direct or indirect connections through an intermediate medium; and internal communication between two components. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on the specific circumstances.

[0032] like Figures 1 to 10 As shown, embodiment 1: a protein wastewater treatment system for food, medicine and health care product processing, comprising: a storage component 1, a power component 2 and a treatment component 4; the storage component 1 includes a treatment tank 12, the upper part of the treatment tank 12 is fixedly connected to a drain pipe 13, the lower part of the treatment tank 12 is fixedly connected to a liquid inlet pipe 14, and the treatment tank 12 is fixedly connected to a storage tank 15; the power component 2 includes a motor 21, the motor 21 is connected to the treatment tank 12, the output shaft of the motor 21 is connected to a driving bevel gear 22, and the driving bevel gear 22 engages with a driven bevel gear 26; the treatment component 4 includes a spline hole shaft 41, the driven bevel gear 26 is connected to the spline hole shaft 41, the spline hole shaft 41 bearing is connected to the top plate of the treatment tank 12, and the spline hole shaft 41 is connected to a symmetrical mounting cross plate 42; the symmetrical mounting cross plates 42 are respectively connected to vertical scraping rods 43, and the symmetrical vertical scraping rods 43 are respectively close to the tank wall of the treatment tank 12. By adding protein-containing wastewater and added liquid medicine into the treatment tank 12 , protein precipitation is achieved. The vertical scraper 43 rotates to stir the wastewater and liquid medicine while scraping off the protein on the wall of the treatment tank 12 .

[0033] A hollow spline shaft 49 is provided in the spline hole shaft 41. The hollow spline shaft 49 passes through the driven bevel gear 26. The hollow spline shaft 49 is connected to a circular tube 51 through a bearing. The circular tube 51 is connected to the transverse groove 24. The eccentric portion of the active bevel gear 22 is connected to the power rod 23. The power rod 23 is disposed in the transverse groove 24. The hollow spline shaft 49 is connected to a blade fan 46, which is disposed in the storage tank 15. Protein precipitation is achieved by adding protein-containing wastewater and a liquid medicine to the treatment tank 12. The blade fan 46 rotates slowly, stirring the liquid medicine and wastewater, accelerating the precipitation of the precipitate. The precipitate is then gathered in the storage tank 15, making it easy to collect and use.

[0034] The transverse groove 24 is connected to symmetrical guide vertical rods 25, and the symmetrical guide vertical rods 25 respectively pass through the top plate of the processing tank 12. By adopting the guide vertical rods 25, it is convenient to realize the movement of the transverse groove 24 along the height direction.

[0035] The device further includes an input assembly 5, comprising the circular tube 51, which is fixed to a connecting pipe joint 52. The hollow spline shaft 49 is provided with a set of evenly distributed liquid outlet holes 53. The use of the circular tube 51 and other components facilitates the input of the liquid medicine, which is discharged from the liquid outlet holes 53 and easily mixed with the wastewater entering through the liquid inlet pipe 14. When the set of sector plates 422 contacts the hollow spline shaft 49, the cover 47 contacts the annular plate 45, forming a sealed area, which facilitates mixing of the two and improves the treatment effect.

[0036] The system also includes a switch assembly 3, which includes a hemispherical valve 35. The hemispherical valve 35 matches the drain pipe 13 and is connected to a valve shaft 34. The valve shaft 34 has a bearing connected to the drain pipe 13 and the top plate extending from the treatment tank 12. The valve shaft 34 is connected to a driven synchronous pulley 33. The splined hole shaft 41 is connected to the driving synchronous pulley 31. One end of the synchronous belt 32 surrounds the driving synchronous pulley 31, and the other end of the synchronous belt 32 surrounds the driven synchronous pulley 33. The use of a synchronous belt mechanism to achieve movement of the hemispherical valve 35 facilitates intermittent discharge of treated wastewater.

[0037] The processing tank 12 is connected to the protective cover 11, and the protective cover 11 is provided with a notch corresponding to the synchronous belt 32. By adopting the protective cover 11, the power assembly 2 is protected.

[0038] The storage tank 15 is fixedly connected to a discharge valve 16 to facilitate the discharge of protein precipitation.

[0039] The workflow of this embodiment is: Add protein-containing wastewater from the liquid inlet pipe 14 , connect one end of a hose to the pipe joint 52 , and pass the other end through the protective cover 11 to connect to the liquid source containing the drug, so as to add wastewater and liquid medicine to the treatment tank 12 .

[0040] The control motor 21 rotates, the motor 21 drives the active bevel gear 22 to rotate, the active bevel gear 22 drives the driven bevel gear 26 to rotate, the driven bevel gear 26 drives the spline hole shaft 41 to rotate, so that the processing assembly 4 rotates around the center of the processing tank 12, the active bevel gear 22 drives the power round rod 23 to swing in the transverse groove 24, the power round rod 23 drives the transverse groove 24 to reciprocate, the transverse groove 24 drives the guide vertical rod 25 to reciprocate, the transverse groove 24 drives the round tube 51 and the pipe joint 52 to reciprocate, the round tube 51 drives the hollow spline shaft 49 to reciprocate along the spline hole shaft 41, and the hollow spline shaft 49 drives the blade 46 to reciprocate along the height direction.

[0041] The vertical scraper 43 moves along the tank wall of the treatment tank 12, and the blade fan 46 rotates and moves in the height direction at the same time to stir the wastewater and the liquid medicine to form a protein precipitate, which is then sunk into the storage tank 15 to store the protein precipitate.

[0042] Example 2: This example is further elaborated on the basis of Example 1. The symmetrical mounting horizontal plates 42 are respectively connected to the inner round rods 44, and the symmetrical inner round rods 44 are respectively connected to the annular plates 45. The annular plates 45 are provided with a group of evenly distributed convex bottom grooves 418. Each of the convex bottom grooves 418 is respectively provided with a convex bottom block 421. Each of the convex bottom blocks 421 is respectively connected to the lower inclined plate 415. Each of the oblique lower inclined plates 415 is respectively connected to the arc plate 416. Each of the arc plates 416 is respectively provided with a group of evenly distributed The through hole 417 of the cloth is provided. Each of the lower inclined plates 415 is provided with a convex inclined groove 420. Each of the convex inclined grooves 420 is provided with a convex inclined block 411. Each of the convex inclined blocks 411 is connected to the upper inclined plate 412. Each of the upper inclined plates 412 is connected to the cover 47. The hollow spline shaft 49 is connected to the cover 47. Each of the arc plates 416 is connected to the fan-shaped plates 422. Each of the fan-shaped plates 422 is provided with an arc groove 423. A group of the arc grooves 423 matches the hollow spline shaft 49. This device uses fan-shaped plates 422. When a group of fan-shaped plates 422 contacts the hollow spline shaft 49, the cover 47 contacts the annular plate 45, forming a sealed area and sealing the storage tank 15 at the same time. At this time, it is convenient to achieve the precipitation in the storage tank 15.

[0043] The workflow of this embodiment is: The hollow spline shaft 49 drives the cover 47 to move vertically, which in turn drives the upper inclined plate 412. The upper inclined plate 412 drives the convex inclined block 411 along the convex inclined groove 420. The convex inclined block 411 drives the lower inclined plate 415, the curved plate 416, and the fan-shaped plate 422. The lower inclined plate 415 drives the convex bottom block 421 to reciprocate along the convex bottom groove 418. When the cover 47 contacts the annular plate 45, the fan-shaped plate 422 contacts the hollow spline shaft 49, forming a closed area and sealing the storage tank 15. This facilitates the removal of the protein precipitate in the storage tank 15. The liquid medicine in the closed area is discharged and mixed with the wastewater, facilitating the precipitation, and then enters the storage tank 15.

[0044] Example 3: This example further elaborates on Example 1 or 2. The cover 47 is rotatably connected to a symmetrical L-axis 413, and the annular plate 45 is rotatably connected to symmetrical scrapers 414. The symmetrical L-axis 413 is rotatably connected to a corresponding scraper 414, and the symmetrical scrapers 414 are each connected to a set of evenly distributed scraping teeth 419. The scraping teeth 419 orbit and move along the bottom of the treatment tank 12, scraping off and lifting the sediment. The blades 46 rotate to allow the sediment to enter the storage tank 15.

[0045] The workflow of this embodiment is: The cover 47 moves in the height direction to drive the L-axis 413 to swing, the L-axis 413 drives the scraper 414 to swing back and forth, and the scraper 414 drives the scraping teeth 419 to swing back and forth, so that the scraping teeth 419 revolve and move along the bottom of the processing tank 12 at the same time, scraping off the sediment and scraping up the sediment. The blade fan 46 rotates to allow the sediment to enter the storage tank 15.

[0046] Example 4: This example further elaborates on Example 1, 2, or 3. The cover 47 is connected to a set of outer rods 48, each of which is connected to a piston 410. The splined shaft 41 passes through the pistons 410. As the outer rods 48 and pistons 410 move, the pistons 410 squeeze the air and liquid within the treatment tank 12, accelerating the intermittent discharge of wastewater through the drain pipe 13.

[0047] The workflow of this embodiment is: Splined shaft 41 drives active synchronous pulley 31, which in turn drives synchronous belt 32. Synchronous belt 32 drives reciprocating rotation of driven synchronous pulley 33, valve shaft 34, and hemispherical valve 35. Cover 47 drives outer rod 48 and piston 410, which squeezes air and liquid from treatment tank 12, accelerating the intermittent discharge of wastewater through drain pipe 13.

[0048] This system achieves protein precipitation by adding protein-containing wastewater and a liquid medicine to the treatment tank 12. The blades 46 slowly rotate, stirring the liquid medicine and wastewater, accelerating the precipitation of the precipitate. The precipitate accumulates in the storage tank 15, making it easy to collect and use. The vertical scraper 43 rotates to stir the wastewater and liquid medicine while scraping protein off the walls of the treatment tank 12. The scraper teeth 419 revolve and move along the bottom of the treatment tank 12, scraping and lifting the precipitate. The scraper 414 guides the protein precipitate, and the blades 46 rotate to allow the precipitate to enter the storage tank 15.

[0049] This device utilizes fan-shaped plates 422. When a set of fan-shaped plates 422 contacts the hollow spline shaft 49, the cover 47 contacts the annular plate 45, forming a sealed area that simultaneously seals the storage tank 15. This facilitates the separation of precipitates within the storage tank 15. The use of a circular tube 51 facilitates the input of liquid medicine, which is discharged from the liquid outlet 53 and conveniently mixes with wastewater entering from the liquid inlet pipe 14. When a set of fan-shaped plates 422 contacts the hollow spline shaft 49, the cover 47 contacts the annular plate 45, forming a double sealed area. This facilitates mixing and improves treatment efficiency. The mixed liquid can be discharged outward through the gap between the through hole 417 and the arc plate 416 when they are not in contact, and then discharged through the gap between the cover 47 and the annular plate 45, achieving multiple treatment options.

[0050] Although the above describes the specific implementation methods of the invention in conjunction with the accompanying drawings, it does not limit the scope of protection of the invention. Based on the technical solution of the present invention, various modifications or variations that can be made by those skilled in the art without creative work are still within the scope of protection of the present invention.

Claims

1. A protein wastewater treatment system for food, medicine and health care product processing, characterized by: include: Storage component (1), power component (2) and processing component (4); The storage assembly (1) comprises a processing tank (12), the upper portion of the processing tank (12) is fixedly connected to a liquid discharge pipe (13), the lower portion of the processing tank (12) is fixedly connected to a liquid inlet pipe (14), and the processing tank (12) is fixedly connected to a storage tank (15); The power assembly (2) includes a motor (21), the motor (21) is connected to the processing tank (12), the output shaft of the motor (21) is connected to a driving bevel gear (22), and the driving bevel gear (22) is engaged with a driven bevel gear (26); The processing assembly (4) includes a spline hole shaft (41), the driven bevel gear (26) is connected to the spline hole shaft (41), the spline hole shaft (41) is connected to the top plate of the processing tank (12) through a bearing, and the spline hole shaft (41) is connected to a symmetrical mounting cross plate (42); The symmetrical mounting transverse plates (42) are respectively connected to vertical scraping rods (43), and the symmetrical vertical scraping rods (43) are respectively in close contact with the tank wall of the processing tank (12).

2. A protein wastewater treatment system for food, medicine and health care product processing according to claim 1, characterized in that: A hollow spline shaft (49) is provided in the spline hole shaft (41), the hollow spline shaft (49) passes through the driven bevel gear (26), the hollow spline shaft (49) is connected to a bearing of a round tube (51), the round tube (51) is connected to the transverse groove (24), the eccentric portion of the active bevel gear (22) is connected to a power round rod (23), the power round rod (23) is provided in the transverse groove (24), the hollow spline shaft (49) is connected to a blade fan (46), and the blade fan (46) is provided in the storage tank (15).

3. A protein wastewater treatment system for food, medicine and health care product processing according to claim 2, characterized in that: The symmetrical mounting transverse plates (42) are respectively connected to the inner round rods (44), and the symmetrical inner round rods (44) are respectively connected to the annular plates (45). The annular plates (45) are provided with a group of evenly distributed convex bottom grooves (418), and each of the convex bottom grooves (418) is respectively provided with a convex bottom block (421). Each of the convex bottom blocks (421) is respectively connected to the lower inclined plate (415), and each of the oblique lower inclined plates (415) is respectively connected to the arc plate (416). Each of the arc plates (416) is respectively provided with a group of evenly distributed through holes (417). The plates (415) are respectively provided with convex inclined grooves (420), each of the convex inclined grooves (420) is respectively provided with a convex inclined block (411), each of the convex inclined blocks (411) is respectively connected to the upper inclined plate (412), each of the upper inclined plates (412) is respectively connected to the cover (47), the hollow spline shaft (49) is connected to the cover (47), each of the arc plates (416) is respectively connected to the fan-shaped plate (422), each of the fan-shaped plates (422) is respectively provided with an arc groove (423), and a group of the arc grooves (423) matches the hollow spline shaft (49).

4. A protein wastewater treatment system for food, medicine and health product processing according to claim 3, characterized in that: The cover (47) is rotatably connected to a symmetrical L-axis (413), the annular plate (45) is rotatably connected to a symmetrical scraper (414), the symmetrical L-axis (413) is rotatably connected to the corresponding scraper (414), and the symmetrical scraper (414) is respectively connected to a group of evenly distributed scraping teeth (419).

5. A protein wastewater treatment system for food, medicine and health care product processing according to claim 3, characterized in that: The cover (47) is connected to a group of outer rods (48), and the group of outer rods (48) are respectively connected to pistons (410), and the spline hole shaft (41) passes through the pistons (410).

6. A protein wastewater treatment system for food, medicine and health care product processing according to claim 2, characterized in that: It also includes an input component (5), the input component (5) includes the circular tube (51), the circular tube (51) is fixed with a connecting pipe joint (52), and the hollow spline shaft (49) is provided with a group of evenly distributed liquid outlet holes (53).

7. The protein wastewater treatment system for food, medicine and health care product processing according to claim 1 is characterized by: The invention also includes a switch assembly (3), wherein the switch assembly (3) includes a hemispherical valve (35), the hemispherical valve (35) matches the drain pipe (13), the hemispherical valve (35) is connected to a valve shaft (34), the bearing of the valve shaft (34) is connected to the drain pipe (13) and the top extension plate of the treatment tank (12), the valve shaft (34) is connected to the driven synchronous wheel (33), the spline hole shaft (41) is connected to the active synchronous wheel (31), one end of the synchronous belt (32) surrounds the active synchronous wheel (31), and the other end of the synchronous belt (32) surrounds the driven synchronous wheel (33).

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