Soybean milk cavitation jet impact strengthening nozzle

Abstract

The invention discloses a soybean milk cavitation jet flow impact strengthening nozzle, and relates to the technical field of soybean milk processing, the soybean milk cavitation jet flow impact strengthening nozzle comprises a cavitation jet flow nozzle body, an inflow pipe and a transition pipe, a cavitation cavity is installed below the cavitation jet flow nozzle body, a throat part is installed below the cavitation cavity, and a first connecting ring is installed on the throat part; an inflow pipe is installed below the throat part, a movable ring is arranged outside the inflow pipe, a gear is arranged on the right side of the gear block, and a protective cover is installed below the movable ring through a connecting column. A second connecting ring is mounted below the inflow pipe, and a transition pipe is mounted below the second connecting ring; and a bearing part is mounted below the transition pipe. According to the soybean milk cavitation jet impact strengthening nozzle, the transition pipe is rotationally connected with the connecting pipe through the bearing part, and a sealing structure of the protruding pipe and the sealing ring is matched, so that the angle of the connecting pipe can be freely adjusted to adapt to field layout, and interference of bending of the connecting pipe to other parts is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of soy milk processing, in particular to a soy milk cavitation jet impact strengthening nozzle. Background Art

[0002] As a traditional beverage rich in plant protein, dietary fiber, and minerals, soy milk's smooth texture, nutrient dissolution rate, and stability are key quality indicators. During soy milk processing, the slurry formed after soaking and grinding soybeans often contains partially broken down dregs and protein aggregates. These components can cause the soy milk to have a rough texture and easily separate and settle, affecting the product's market acceptance. Therefore, further refining the particles and promoting nutrient dissolution through physical means are key to improving soy milk quality.

[0003] Cavitation jet technology is an advanced material processing technique that utilizes the cavitation effect generated by high-speed fluid flow. In the food processing industry, the microjets and shock waves generated by cavitation jets can effectively break up solid particles and disperse colloidal systems, while also promoting the depolymerization of macromolecules through mechanical action. When applied to soymilk processing, the cavitation effect can specifically break down okara particles to the micron level, reducing roughness. Furthermore, the localized high temperature and high pressure environment generated by cavitation promotes the molecular conformational expansion of soy protein, improving its water solubility and digestibility, and enhancing the nutritional activity of soymilk.

[0004] As the core component of a cavitation jet system, the nozzle's structural parameters directly determine the cavitation intensity and jet characteristics. In soymilk processing, the nozzle must adapt to the slurry's high viscosity and solids content. By optimizing the flow channel design, the cavitation effect is concentrated on the particles and macromolecules within the slurry, improving processing efficiency while avoiding nutrient loss due to excessive shearing. Furthermore, to meet the continuous processing requirements of industrial production, the nozzle must possess a stable cavitation output capability to ensure consistent quality across large batches of soymilk products.

[0005] With rising consumer demand for healthy beverages and advancements in food processing technology, utilizing cavitation jet technology to enhance soymilk processing has become a promising development direction with both technical feasibility and market value. The development of specialized soymilk cavitation jet impact intensification nozzles has positive implications for driving technological innovation in traditional soy product processing and increasing product added value.

[0006] A multi-stage frictional shear cavitation water jet nozzle is disclosed in Chinese Utility Model Patent No. 202322820907.X. By setting up a cavitation rotational flow structure and cooperating with the design of the shear element, secondary shearing is achieved, which improves the overall water flow cavitation effect, forms a large number of bubbles, and enhances the water flow cleaning effect. When a large amount of work needs to be completed, multiple cavitation rotational flow structures can be stacked to make the device in a layer-by-layer stacked state, and the shearing effect between layers is enhanced, ensuring good overall water flow cavitation effect, and the effect of stacked rotational flow layers can be added. However, the device still has certain defects.

[0007] When the water outlet pipeline is connected and works with the nozzle mechanism, the position of the water outlet pipeline and the nozzle is fixed. When the pipeline is curved, it cannot be rotated according to the on-site layout to adjust the position of the curved pipeline, thereby making it inconvenient to arrange the pipeline, and the pipeline is easy to affect the layout of other components.

[0008] Therefore, we propose a soybean milk cavitation jet impact strengthening nozzle to solve the problems raised in the above background. SUMMARY

[0009] The purpose of the present application is to provide a soybean milk cavitation jet impact strengthening nozzle to solve the problem of the fixed position of the water outlet pipeline and the nozzle when the water outlet pipeline is connected and works with the nozzle mechanism, which is raised in the above background. When the pipeline is curved, it cannot be rotated according to the on-site layout to adjust the position of the curved pipeline, thereby making it inconvenient to arrange the pipeline, and the pipeline is easy to affect the layout of other components.

[0010] To achieve the above-mentioned purpose, the present application provides the following technical scheme: a soybean milk cavitation jet impact strengthening nozzle, comprising a cavitation jet nozzle body, an inlet pipe and a transition pipe, a cavitation cavity is installed below the cavitation jet nozzle body, a throat is installed below the cavitation cavity, a first connecting ring is installed on the throat, an inlet pipe is installed below the throat, a movable ring is provided outside the inlet pipe, a tooth block is installed outside the movable ring, a gear is provided on the right side of the tooth block, and a protective cover is installed below the movable ring through a connecting column;

[0011] A second connecting ring is installed below the inlet pipe, and a fastening bolt is installed on the second connecting ring, and a transition pipe is installed below the second connecting ring;

[0012] A bearing is installed below the transition pipe, and a connecting pipe is sleeved below the bearing.

[0013] Preferably, the throat, cavitation cavity and cavitation jet nozzle body are in communication with each other, and the cavitation jet nozzle body is designed in a conical structure.

[0014] With the above structural design, the throat, cavitation cavity and cavitation jet nozzle body are interconnected, which increases the flow rate of soy milk, forms a low-pressure environment in the cavitation cavity to generate cavitation bubbles, and enhances the impact and crushing effect of the jet on the soy milk.

[0015] Preferably, a convex ring is installed inside the movable ring, a limiting groove is provided outside the inlet pipe, the convex ring is clamped inside the limiting groove, and the convex ring is rotatably connected to the limiting groove.

[0016] With the above structural design, the convex ring inside the movable ring is clamped into the limiting groove of the flow tube, limiting the axial movement of the movable ring while allowing it to rotate around the flow tube, providing guidance for the stable movement of the protective cover.

[0017] Preferably, a plurality of tooth blocks are provided, and the tooth blocks are distributed in an annular shape on the movable ring.

[0018] With the above structural design, multiple tooth blocks distributed in an annular shape on the outside of the movable ring mesh with the gears, ensuring uniform power transmission when the gears rotate, driving the movable ring to rotate smoothly, and realizing synchronous opening and closing of the protective cover.

[0019] Preferably, a connecting shaft is installed above the gear, a micro waterproof motor is installed on the lower surface of the first connecting ring, and the lower part of the micro waterproof motor is connected to the connecting shaft through an output shaft.

[0020] With the above structural design, the micro waterproof motor on the lower surface of the first connecting ring drives the connecting shaft to rotate through the output shaft, driving the gear to engage with the tooth block of the movable ring, providing power for the movement of the movable ring and the protective cover.

[0021] Preferably, the connecting columns and the protective cover are distributed in a ring shape, and the diameter of the protective cover is larger than the diameter of the fastening bolts, and a sealing gasket is provided on the lower surface of the second connecting ring.

[0022] With the above structural design, the connecting columns are distributed in an annular manner to connect the movable ring and the protective cover, so that the protective cover rotates synchronously with the movable ring. The diameter of the protective cover is larger than the fastening bolts. When it rotates to the corresponding position, it can cover the fastening bolts to prevent contamination or rust.

[0023] Preferably, the number of the fastening bolts is the same as the number of the protective covers, and a thread groove is provided on the upper surface of the transition pipe.

[0024] With the above structural design, the number of fastening bolts is consistent with that of the protective cover, the thread grooves on the upper surface of the transition pipe correspond one to one with the fastening bolts, and the second connecting ring and the transition pipe are fixed by the cooperation of the fastening bolts and the thread grooves.

[0025] Preferably, the number of the thread grooves is the same as the number of the fastening bolts, the center lines of the fastening bolts and the center lines of the thread grooves coincide with each other, and the fastening bolts are threadedly connected to the thread grooves.

[0026] With the above structural design, the threaded groove is coincided with the center line of the fastening bolt and is threaded, the second connecting ring is tightly attached to the transition pipe by tightening the fastening bolt, and the sealing property in the soybean milk conveying process is ensured.

[0027] Preferably, the outer ring upper surface of the bearing piece is fixedly connected with the lower surface of the transition pipe, the outer wall of the connecting pipe is connected with the inner ring of the bearing piece, and the connecting pipe is rotatably connected with the bearing piece.

[0028] With the above structural design, the outer ring of the bearing piece is fixed to the lower surface of the transition pipe, and the inner ring is connected with the outer wall of the connecting pipe, so that the connecting pipe can rotate around the transition pipe, and the angle of the connecting pipe is adjusted to adapt to the field layout.

[0029] Preferably, the upper end of the connecting pipe is provided with a protruding pipe, and the outer surface of the protruding pipe is provided with a sealing ring, the protruding pipe and the sealing ring are sleeved in the inside of the transition pipe, and the sealing ring abuts against the inner wall of the transition pipe.

[0030] With the above structural design, the protruding pipe at the upper end of the connecting pipe and the sealing ring are sleeved in the inside of the transition pipe, and the sealing ring abuts against the inner wall of the transition pipe, so that the sealing property at the connecting position of the two is maintained when the connecting pipe rotates, and the soybean milk is prevented from leaking.

[0031] Compared with the prior art, the beneficial effects of the present application are that the soybean milk cavitation jet impact intensifier nozzle:

[0032] 1. Intensify the effect of soybean milk cavitation treatment and improve product quality: the cavitation jet nozzle body, the cavitation cavity and the throat are connected to form a continuous flow channel, strong cavitation effect is generated in the cavitation cavity, soybean dreg particles and protein aggregates are efficiently broken by micro-jet and shock wave, the delicacy of soybean milk taste and the nutrient dissolution rate are improved, and the problems of coarse particles and easy stratification in traditional processing are solved.

[0033] 2. Increase the flexibility and sealing property of pipeline layout: the transition pipe is rotatably connected with the connecting pipe through the bearing piece, and the sealing structure of the protruding pipe and the sealing ring, so that the angle of the connecting pipe can be freely adjusted to adapt to the field layout, and the interference of the bending of the connecting pipe on other components is avoided.

[0034] 3. Component protection mechanism: the movable ring drives the protective cover to rotate synchronously through the connecting column, when the protective cover is rotated to the corresponding position, because the diameter of the protective cover is larger than that of the fastening bolt, the fastening bolt can be directly shielded, the splashing of soybean milk in the processing process is prevented from adhering to the surface of the fastening bolt to cause pollution or rust, the erosion of external dust and water vapor on the fastening bolt is reduced, the connection stability and service life of the fastening bolt are ensured, and the risk of pipeline sealing failure caused by damage of the fastening bolt is reduced. BRIEF DESCRIPTION OF DRAWINGS

[0035] Figure 1 It is a whole front view structural schematic diagram of the present application.

[0036] Figure 2 For the present invention Figure 1 A in the middle is an enlarged structural diagram;

[0037] Figure 3 This is a structural diagram of the protective cover of the present invention when it is away from the fastening bolts;

[0038] Figure 4 This is a schematic diagram of the structure of the connecting pipe of the present invention when it is disassembled;

[0039] Figure 5 For the present invention Figure 4 The enlarged structural diagram at B in the middle;

[0040] Figure 6 This is a schematic diagram of the position structure of the inlet pipe and the limiting groove of the present invention;

[0041] Figure 7 This is a schematic diagram of the position structure of the movable ring and the convex ring of the present invention;

[0042] Figure 8 This is a schematic diagram of the position structure of the movable ring and the gear block of the present invention;

[0043] Figure 9 Schematic diagram of the meshing structure of the gear and gear block of the present invention;

[0044] Figure 10 This is a schematic diagram of the connecting pipe structure of the present invention.

[0045] In the figure: 1. Cavitation jet nozzle body; 2. Cavitation chamber; 3. Throat; 4. First connecting ring; 5. Inlet pipe; 6. Limiting groove; 7. Movable ring; 8. Gear block; 9. Protruding ring; 10. Connecting shaft; 11. Gear; 12. Micro waterproof motor; 13. Connecting column; 14. Protective cover; 15. Second connecting ring; 16. Fastening bolt; 17. Transition pipe; 18. Threaded groove; 19. Bearing; 20. Connecting pipe; 21. Protruding pipe; 22. Sealing ring. DETAILED DESCRIPTION

[0046] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0047] See also Figures 1-10The present invention provides a technical solution: a soy milk cavitation jet impact intensification nozzle, comprising a cavitation jet nozzle body 1, a cavitation cavity 2, a throat 3, a first connecting ring 4, an inlet pipe 5, a limiting groove 6, a movable ring 7, a tooth block 8, a convex ring 9, a connecting shaft 10, a gear 11, a micro waterproof motor 12, a connecting column 13, a protective cover 14, a second connecting ring 15, a fastening bolt 16, a transition pipe 17, a threaded groove 18, a bearing 19, a connecting pipe 20, a protruding pipe 21 and a sealing ring 22. The cavitation cavity 2 is installed below the cavitation jet nozzle body 1, and the cavitation cavity 2 is installed below the cavitation jet nozzle body 1. A throat 3 is installed below the cavity 2, and the throat 3, the cavitation cavity 2 and the cavitation jet nozzle body 1 are interconnected. The cavitation jet nozzle body 1 is designed in a conical structure. The throat 3, the cavitation cavity 2 and the cavitation jet nozzle body 1 are interconnected, so that the flow rate of the soy milk is increased, and a low-pressure environment is formed in the cavitation cavity 2 to generate cavitation bubbles, thereby enhancing the impact and crushing effect of the jet on the soy milk. A first connecting ring 4 is installed on the throat 3, and an inlet pipe 5 is installed below the throat 3. A movable ring 7 is provided on the outside of the inlet pipe 5, and a tooth block 8 is installed on the outside of the movable ring 7. The inner part of the movable ring 7 A convex ring 9 is installed on the top, and a limiting groove 6 is provided on the outside of the inlet pipe 5. The convex ring 9 is clamped in the inside of the limiting groove 6, and the convex ring 9 is rotatably connected to the limiting groove 6. The convex ring 9 inside the movable ring 7 is clamped into the limiting groove 6 of the flow pipe 5, limiting the axial movement of the movable ring 7 while allowing it to rotate around the inlet pipe 5, providing a guide for the stable movement of the protective cover 14. A gear 11 is provided on the right side of the tooth block 8, and a protective cover 14 is installed below the movable ring 7 through a connecting column 13. A plurality of tooth blocks 8 are provided, and the tooth blocks 8 are distributed in an annular manner on the movable ring 7, and the outer ring of the movable ring 7 is distributed in an annular manner. Multiple tooth blocks 8 are engaged with the gear 11 to ensure that power is evenly transmitted when the gear 11 rotates, driving the movable ring 7 to rotate smoothly, and realizing the synchronous opening and closing of the protective cover 14. A connecting shaft 10 is installed above the gear 11, and a micro waterproof motor 12 is installed on the lower surface of the first connecting ring 4. The bottom of the micro waterproof motor 12 is connected to the connecting shaft 10 through an output shaft. The micro waterproof motor 12 on the lower surface of the first connecting ring 4 drives the connecting shaft 10 to rotate through the output shaft, driving the gear 11 to engage with the tooth block 8 of the movable ring 7, providing power for the movement of the movable ring 7 and the protective cover 14.

[0048] A second connecting ring 15 is installed below the inlet pipe 5, and a fastening bolt 16 is installed on the second connecting ring 15. The connecting column 13 and the protective cover 14 are distributed in an annular shape, and the diameter of the protective cover 14 is larger than the diameter of the fastening bolt 16. A sealing gasket is provided on the lower surface of the second connecting ring 15. The connecting column 13 is distributed in an annular shape to connect the movable ring 7 and the protective cover 14, so that the protective cover 14 rotates synchronously with the movable ring 7. The diameter of the protective cover 14 is larger than the fastening bolt 16. When it is rotated to the corresponding position, it can cover the fastening bolt 16 to prevent contamination or rust. A transition pipe 17 is installed below the second connecting ring 15. The connecting column 13 and the protective cover 14 are distributed in an annular shape, and the diameter of the protective cover 14 is larger than the diameter of the fastening bolt 16. A sealing gasket is provided on the lower surface of the second connecting ring 15. The connecting column 13 is distributed in an annular shape to connect the movable ring 7 and the protective cover 14, so that the protective cover 14 rotates synchronously with the movable ring 7 to prevent The diameter of the protective cover 14 is larger than the fastening bolt 16. When it is rotated to the corresponding position, it can cover the fastening bolt 16 to prevent contamination or rust. The number of the fastening bolts 16 is the same as that of the protective cover 14. A threaded groove 18 is provided on the upper surface of the transition tube 17. The number of the fastening bolts 16 is the same as that of the protective cover 14. The threaded groove 18 on the upper surface of the transition tube 17 corresponds one-to-one with the fastening bolts 16. The second connecting ring 15 and the transition tube 17 are fixed by the cooperation of the fastening bolts 16 and the threaded groove 18. The number of the threaded groove 18 is the same as the number of the fastening bolts 16. The center line of the fastening bolt 16 and the center line of the threaded groove 18 coincide with each other. The fastening bolt 16 is threadedly connected to the threaded groove 18. The threaded groove 18 coincides with the center line of the fastening bolt 16 and is threadedly connected. By tightening the fastening bolt 16, the second connecting ring 15 and the transition tube 17 are tightly fitted to ensure the sealing of the soy milk transportation process.

[0049] A bearing 19 is installed below the transition pipe 17. The upper surface of the outer ring of the bearing 19 is fixedly connected to the lower surface of the transition pipe 17. The outer wall of the connecting pipe 20 is connected to the inner ring of the bearing 19. The connecting pipe 20 is rotatably connected to the bearing 19. The outer ring of the bearing 19 is fixed to the lower surface of the transition pipe 17, and the inner ring is connected to the outer wall of the connecting pipe 20, so that the connecting pipe 20 can rotate around the transition pipe 17 to achieve angle adjustment of the connecting pipe 20 to adapt to the on-site layout. The lower part of the bearing 19 is sleeved with The connecting tube 20 has a protruding tube 21 installed at its upper end, and a sealing ring 22 installed on its outer surface. The protruding tube 21 and the sealing ring 22 are sleeved inside the transition tube 17, and the sealing ring 22 abuts against the inner wall of the transition tube 17. The protruding tube 21 and the sealing ring 22 at the upper end of the connecting tube 20 are sleeved inside the transition tube 17, and the sealing ring 22 abuts against the inner wall of the transition tube 17. When the connecting tube 20 rotates, the sealing of the connection between the two is maintained to prevent soy milk leakage.

[0050] Working principle: When using the soy milk cavitation jet impact intensification nozzle, first, the soy milk enters the throat 3 through the connecting pipe 20, the transition pipe 17 and the inlet pipe 5, and flows through the cavitation cavity 2 and the cavitation jet nozzle body 1 in sequence, forming a low-pressure environment in the cavitation cavity 2, generating a large number of cavitation bubbles. The microjets and shock waves generated when the bubbles collapse break up the dregs particles and protein aggregates in the soy milk, thereby achieving intensified treatment.

[0051] When it is necessary to protect the fastening bolts 16, start the micro waterproof motor 12 on the lower surface of the first connecting ring 4, and its output shaft drives the connecting shaft 10 and the gear 11 to rotate. The gear 11 engages with the tooth blocks 8 distributed in an annular shape on the outside of the movable ring 7, driving the movable ring 7 to rotate along the limiting groove 6 of the inlet pipe 5 through the internal convex ring 9. The protective cover 14 connected to the connecting column 13 below the movable ring 7 rotates synchronously until the protective cover 14 covers the fastening bolts 16 on the second connecting ring 15. The characteristic that the diameter of the protective cover 14 is larger than the fastening bolts 16 is used to prevent soy milk from splashing or dust from adhering.

[0052] If the pipeline layout needs to be adjusted, the connecting pipe 20 can be rotated relative to the transition pipe 17 through the bearing 19. The protruding tube 21 and the sealing ring 22 at the upper end of the connecting pipe 20 are sleeved inside the transition pipe 17. The sealing ring 22 is in close contact with the inner wall of the transition pipe 17 to ensure that the soy milk does not leak during the rotation process. When removing or installing the transition pipe 17, the fastening bolt 16 on the second connecting ring 15 is screwed to connect or separate it with the thread groove 18 on the upper surface of the transition pipe 17, and cooperate with the sealing gasket on the lower surface of the second connecting ring 15 to enhance the sealing performance.

[0053] After the treatment is completed, the micro waterproof motor 12 is reversed to move the protective cover 14 away from the fastening bolts 16, which facilitates subsequent maintenance operations, thereby completing a series of work. Contents not described in detail in this specification belong to the existing technology known to professionals in this field.

[0054] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A soymilk cavitation jet impact intensification nozzle, comprising a cavitation jet nozzle body (1), an inlet pipe (5) and a transition pipe (17), wherein a cavitation chamber (2) is installed below the cavitation jet nozzle body (1), and a throat (3) is installed below the cavitation chamber (2), and characterized in that: A first connecting ring (4) is installed on the throat (3), and an inlet pipe (5) is installed below the throat (3); a movable ring (7) is provided on the outside of the inlet pipe (5), and a gear block (8) is installed on the outside of the movable ring (7); a gear (11) is provided on the right side of the gear block (8); and a protective cover (14) is installed below the movable ring (7) via a connecting column (13); A second connecting ring (15) is installed below the inlet pipe (5), a fastening bolt (16) is installed on the second connecting ring (15), and a transition pipe (17) is installed below the second connecting ring (15); A bearing component (19) is installed below the transition pipe (17), and a connecting pipe (20) is sleeved below the bearing component (19).

2. The soymilk cavitation jet impact intensification nozzle according to claim 1, characterized in that: The throat (3), the cavitation cavity (2) and the cavitation jet nozzle body (1) are interconnected, and the cavitation jet nozzle body (1) is designed in a conical structure.

3. The soymilk cavitation jet impact intensification nozzle according to claim 1, characterized in that: A convex ring (9) is installed inside the movable ring (7), a limiting groove (6) is provided outside the inlet pipe (5), the convex ring (9) is clamped inside the limiting groove (6), and the convex ring (9) is rotatably connected to the limiting groove (6).

4. The soymilk cavitation jet impact intensification nozzle according to claim 3, characterized in that: A plurality of tooth blocks (8) are provided, and the tooth blocks (8) are distributed in an annular manner on the movable ring (7).

5. The soymilk cavitation jet impact intensification nozzle according to claim 1, characterized in that: A connecting shaft (10) is installed above the gear (11), a micro waterproof motor (12) is installed on the lower surface of the first connecting ring (4), and the lower part of the micro waterproof motor (12) is connected to the connecting shaft (10) via an output shaft.

6. The soymilk cavitation jet impact intensification nozzle according to claim 1, characterized in that: The connecting column (13) and the protective cover (14) are distributed in an annular shape, and the diameter of the protective cover (14) is larger than the diameter of the fastening bolt (16). A sealing gasket is provided on the lower surface of the second connecting ring (15).

7. The soymilk cavitation jet impact intensification nozzle according to claim 6, characterized in that: The number of the fastening bolts (16) is the same as the number of the protective covers (14), and a thread groove (18) is provided on the upper surface of the transition pipe (17).

8. The soymilk cavitation jet impact intensification nozzle according to claim 7, characterized in that: The number of the thread grooves (18) is the same as the number of the fastening bolts (16), the center lines of the fastening bolts (16) and the center lines of the thread grooves (18) coincide with each other, and the fastening bolts (16) and the thread grooves (18) are threadedly connected.

9. The soymilk cavitation jet impact intensification nozzle according to claim 1, characterized in that: The upper surface of the outer ring of the bearing member (19) is fixedly connected to the lower surface of the transition pipe (17), the outer wall of the connecting pipe (20) is connected to the inner ring of the bearing member (19), and the connecting pipe (20) is rotatably connected to the bearing member (19).

10. The soymilk cavitation jet impact intensification nozzle according to claim 9, characterized in that: A protruding tube (21) is installed at the upper end of the connecting tube (20), and a sealing ring (22) is installed on the outer surface of the protruding tube (21). The protruding tube (21) and the sealing ring (22) are sleeved inside the transition tube (17), and the sealing ring (22) abuts against the inner wall of the transition tube (17).

Images