Novel hydrocyclone with secondary pressurization function

Abstract

The novel hydrocyclone with the secondary pressurization function structurally comprises a vortex mechanism, a threaded plate, a feeding pipe and a discharging port, the feeding pipe is fixedly embedded in the side face of the vortex mechanism, the threaded plate is welded to the outer side of the vortex mechanism, and the discharging port is located in the lowermost end of the vortex mechanism. Under the vertical elastic force of the spring rod, it is ensured that the internal pressure is kept stable when the liquid flows out of the sedimentation mechanism, the situation that the liquid rotational flow is affected by pressure reduction when the liquid is discharged is avoided, and when the liquid rotational flow is slow, under the rotational inertia of the balls, the liquid is prevented from flowing out of the sedimentation mechanism. The stress plate continues to drive the liquid to rotate at a certain speed, then the pressurizer can drive the liquid to accelerate rotational flow, the pressure of the liquid is increased, the pressure of the rotational flow effect is kept through secondary pressurization, and the situation that when the liquid rotates downwards along the inner wall of the vortex body, the pressure is reduced, and rotational flow is affected is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of hydrocyclones, and more specifically, to a novel hydrocyclone with a secondary pressurization function. Background Art

[0002] A hydrocyclone can separate liquids of different densities. The liquid enters from the side and rotates along the inner wall of the cyclone under pressure, generating a centrifugal force that causes the liquid to surge upward again at the bottom of the cyclone, thus forming a swirling upward state in the middle position to achieve the effect of hydro-rotational flow separation, and rotating and flowing under the pressure of the liquid to achieve the effect of cyclone separation.

[0003] However, after the liquid enters the cyclone, the pressure of the liquid is an impact force. The inertial force formed by the flow effect during rotation drives the liquid to flow on the inner wall. Since it needs to flow downward, the inertial force is easily reduced, and secondary pressurization cannot be formed inside the cyclone. Its cyclone separation effect becomes weaker as it moves downward. Moreover, when separating the liquid, the liquid with a higher density needs to be discharged from the bottom. When discharging, a fixed vent will be formed at the bottom due to the internal pressure. The size state of the vent is fixed, and the cyclone pressure of the liquid is easily reduced when discharging at the vent position, which is likely to weaken the swirling state of the vortex at the bottom. Summary of the Invention

[0004] The technical solution adopted by the present invention to achieve the technical purpose is: a novel hydrocyclone with a secondary pressurization function, whose structure includes a vortex mechanism, a threaded plate, a feed pipe, and a discharge port. The feed pipe is embedded on the side of the vortex mechanism, the threaded plate is welded on the outside of the vortex mechanism, the discharge port is located at the lowermost end of the vortex mechanism. The vortex mechanism is provided with a vortex body, a sedimentation mechanism, an overflow pipe, a pressure booster, and a cone. The sedimentation mechanism is attached to the inner side of the lower end of the cone. The cone is welded to the lower end of the vortex body. The pressure booster is embedded inside the connection between the vortex body and the cone. The overflow pipe is welded inside the upper end of the vortex body. The overflow pipe and the sedimentation mechanism are on the same central axis. The feed pipe is embedded on the side of the vortex body, and the discharge port is located below the sedimentation mechanism. The cone is in a state of inclining inwards by 10 degrees, and the feed pipe is tangent to the inner edge of the vortex body.

[0005] As a further improvement of the present invention, the sedimentation mechanism is provided with a pressure mechanism, a bottom plate, a hollow groove, and an inclined ring. The hollow groove is located inside the inclined ring. The bottom plate is embedded at the upper end inside the inclined ring. The pressure mechanism is clamped inside the inclined ring. The upper end of the pressure mechanism is slidably matched with the middle position of the bottom plate. The bottom plate is made of aluminum alloy and is installed in an arc shape, having the effect of guiding the liquid towards the middle position. The inclined ring is made of rubber and has the characteristic of being easily extruded and deformed.

[0006] As a further improvement of the present invention, the pressure mechanism is provided with a support block, a force-receiving block, a threaded rod, a rubber strip, a spring rod, and a fixing structure. The force-receiving block is embedded at the upper end of the spring rod. The rubber strip is attached to the sides of the force-receiving block and the support block. The spring rod is installed in the middle on the upper side of the support block. The fixing structure is embedded at the lower end of the support block. The threaded rod is in extrusion fit in the middle of the fixing structure. The outer side of the fixing structure is clamped inside the inclined ring. The threaded rod passes through the inside of the inclined ring. The threaded rod passes through the inside of the lower end of the cone and is connected to the outside, and the threaded rod is in threaded fit with the inside of the cone. The rubber strip has a sealing effect on the spring rod.

[0007] As a further improvement of the present invention, the fixing structure is provided with a connecting block, a circular rod, a track plate, a horizontal plate, and a movable block. The circular rod is embedded on the side of the movable block. The circular rod is in limit sliding fit inside the track plate. The track plate is installed on the upper side of the connecting block. The connecting block is embedded in the middle upper end of the horizontal plate. The horizontal plate is clamped inside the inclined ring. The circular rod is embedded at the lower end of the support block. Four connecting rods are provided on the outer side of the horizontal plate, and the connecting rods are distributed annularly. Four track plates are provided and are in a vertical state, having the effect of vertically limiting the sliding of the circular rod.

[0008] As a further improvement of the present invention, the supercharger is provided with a force-receiving plate, a ball, and a sliding plate. The ball is clamped on the outer side of the sliding plate. The force-receiving plate is embedded on the inner side of the sliding plate. The ball is in limit sliding fit inside the eddy current body and the inner side of the cone. The force-receiving plates are distributed in an annular state and at intervals, and are arranged in increasing order in sequence when distributed. The force-receiving plates are inclined at 15 degrees with respect to the vertical center line on the inner side of the sliding plate.

[0009] As a further improvement of the present invention, the force-receiving plate is provided with a bearing rod, a blocking rod, an inclined plate, and a triangular plate. The blocking rod is embedded on the side of the inclined plate. The bearing rod is installed on the side of the inclined plate. The triangular plate is attached to the side of the inclined plate. The bearing rod is embedded on the inner side of the sliding plate. A spring is provided on the side of the blocking rod, which has the characteristic of large elasticity. The triangular plate is made of rubber material and has the characteristics of easy deformation and large elasticity. Beneficial effects

[0010] 1. In the present invention, when the internal pressure becomes small, the pressure mechanism rebounds under the support of the inclined ring, making the notch in the middle of the bottom plate smaller to block the liquid, so that the liquid can only be discharged under a certain pressure. When the pressure becomes larger or smaller, it is automatically adjusted through the elastic force of the pressure mechanism, so that the outflow of the liquid is maintained under a certain pressure, avoiding the influence of the reduced pressure on the swirl centrifugal effect inside the cone.

[0011] 2. In the present invention, the threaded rod translates to push the movable block in the fixed structure upward, thereby driving the support block to drive the spring rod to displace upward, so that the impact pressure of the liquid on the inner wall of the cone on the force-receiving block requires greater force to push the spring rod to compress, achieving the effect of adjusting the pressure on the force-receiving block. Under the vertical elastic force of the spring rod, the resistance to the outflow of the liquid is maintained, ensuring the stability of the internal pressure when the liquid flows out at the sedimentation mechanism position, and avoiding the decrease in pressure when the liquid is discharged from affecting the liquid swirl.

[0012] 3. When the liquid swirls slowly in the present invention, under the rotational inertia of the ball, the force-receiving plate continues to drive the liquid to swirl at a certain speed, and the supercharger has inertia force and the impact force of the liquid, which will be faster than the liquid rotation rate. Therefore, the supercharger can drive the liquid to swirl faster, thereby increasing the pressure of the liquid, and then secondarily pressurizing to maintain the pressure of the swirl effect, avoiding the decrease in pressure when the liquid swirls downward along the inner wall of the eddy current body from affecting the swirl. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 It is a schematic structural diagram of a novel hydrocyclone with a secondary pressurization function of the present invention.

[0014] Figure 2 It is a schematic side view structure diagram of an eddy current mechanism of the present invention.

[0015] Figure 3 It is a schematic side view structure diagram of a sedimentation mechanism of the present invention.

[0016] Figure 4 It is a schematic side view structure diagram of a pressure mechanism of the present invention.

[0017] Figure 5 It is a schematic side view structure diagram of a fixed structure of the present invention.

[0018] Figure 6 It is a three-dimensional structure schematic diagram of a supercharger of the present invention.

[0019] Figure 7 It is a schematic side view structure diagram of a force-receiving plate of the present invention.

[0020] In the figure: eddy current mechanism - 1, threaded plate - 2, feed pipe - 3, discharge port - 4, eddy current body - 11, sedimentation mechanism - 12, overflow pipe - 13, supercharger - 14, cone - 15, pressure mechanism - w1, bottom plate - w2, hollow groove - w3, inclined ring - w4, support block - w11, stress block - w12, threaded rod - w13, rubber strip - w14, spring rod - w15, fixing structure - w16, connecting block - t1, circular rod - t2, track plate - t3, horizontal plate - t4, movable block - t5, stress plate - s1, ball - s2, sliding plate - s3, bearing rod - s11, blocking rod - s12, inclined plate - s13, triangular plate - s14. Detailed implementation mode

[0021] The present invention will be further described below in conjunction with the accompanying drawings: Embodiment 1

[0022] As shown in the attached Figure 1 to the attached Figure 5 figure: A novel hydrocyclone with a secondary pressurization function of the present invention has a structure including an eddy current mechanism 1, a threaded plate 2, a feed pipe 3, and a discharge port 4. The feed pipe 3 is fixedly embedded on the side of the eddy current mechanism 1. The threaded plate 2 is welded on the outside of the eddy current mechanism 1. The discharge port 4 is located at the lowermost end of the eddy current mechanism 1. The eddy current mechanism 1 is provided with an eddy current body 11, a sedimentation mechanism 12, an overflow pipe 13, a supercharger 14, and a cone 15. The sedimentation mechanism 12 is attached to the inner side of the lower end of the cone 15. The cone 15 is welded to the lower end of the eddy current body 11. The supercharger 14 is fixedly embedded inside the connection between the eddy current body 11 and the cone 15. The overflow pipe 13 is welded inside the upper end of the eddy current body 11. The overflow pipe 13 and the sedimentation mechanism 12 are on the same central axis. The feed pipe 3 is fixedly embedded on the side of the eddy current body 11. The discharge port 4 is located below the sedimentation mechanism 12. The cone 15 is in a state of inclining inwards by 10 degrees. The feed pipe 3 is tangent to the inner edge of the eddy current body 11. Thus, the liquid rushes into the inner edge of the eddy current body 11 from the feed pipe 3 and rotates downward along the inner wall of the eddy current body 11, thereby driving the supercharger 14 to rotate accordingly. And when the liquid rotates and flows inside the cone 15, it is blocked by the position of the sedimentation mechanism 12. Thus, an upward vortex is formed in the middle position of the cone 15, enabling the liquid with a small density to gush out upwards into the overflow pipe 13 inside the vortex, and the liquid with a large density rotates and squeezes along the inner wall of the cone 15 towards the position of the sedimentation mechanism 12. Thus, the liquid with a large density flows out from the discharge port 4 through the position of the sedimentation mechanism 12, achieving the effect of swirling and separating the liquid.

[0023] Among them, the sedimentation mechanism 12 is provided with a pressure mechanism w1, a bottom plate w2, a hollow groove w3, and an inclined ring w4. The hollow groove w3 is located inside the inclined ring w4. The bottom plate w2 is fixedly embedded at the upper end inside the inclined ring w4. The pressure mechanism w1 is engaged inside the inclined ring w4. The upper end of the pressure mechanism w1 is slidably matched with the middle position of the bottom plate w2. The bottom plate w2 is made of aluminum alloy and is installed in an arc shape, having the effect of guiding the liquid towards the middle position. The inclined ring w4 is made of rubber and has the characteristic of being easily extruded and deformed. Thus, the liquid moves along the inside of the cone 15 towards the position of the bottom plate w2, forming an upward eddy current in the middle position. Furthermore, the liquid with a large density squeezes the upper end of the pressure mechanism w1 in the middle of the bottom plate w2 under pressure, causing the pressure mechanism w1 to expand and contract inside the hollow groove w3. Then, under pressure, the liquid with a large density flows out downward from the middle position. When the internal pressure becomes small, the pressure mechanism w1 rebounds under the support of the inclined ring w4, making the gap in the middle of the bottom plate w2 smaller to block the liquid, so that the liquid can only be discharged under a certain pressure. Whether the pressure becomes larger or smaller is automatically adjusted through the elastic force of the pressure mechanism w1, so that the outflow of the liquid is maintained under a certain pressure, avoiding the influence of the reduced pressure on the swirl centrifugal effect inside the cone 15.

[0024] Among them, the pressure mechanism w1 is provided with a support block w11, a stress block w12, a threaded rod w13, a rubber strip w14, a spring rod w15, and a fixing structure w16. The stress block w12 is fixedly embedded at the upper end of the spring rod w15. The rubber strip w14 is attached to the sides of the stress block w12 and the support block w11. The spring rod w15 is installed in the middle on the upper side of the support block w11. The fixing structure w16 is fixedly embedded at the lower end of the support block w11. The threaded rod w13 is in extrusion fit in the middle of the fixing structure w16. The outside of the fixing structure w16 is engaged inside the inclined ring w4. The threaded rod w13 penetrates through the inside of the inclined ring w4. The threaded rod w13 penetrates through the lower end inside the cone 15 and is connected to the outside, and the threaded rod w13 is in threaded fit with the inside of the cone 15. The rubber strip w14 has a sealing effect on the spring rod w15. Thus, when the threaded rod w13 is rotated externally for threaded translation, the inclined surface of the threaded rod w13 pushes the support block w11 to move up and down, and then the support block w11 drives the spring rod w15 to move upward. The impact pressure of the liquid on the inner wall of the cone 15 on the stress block w12 needs to be greater to push the spring rod w15 to compress, achieving the effect of adjusting the pressure received by the stress block w12. Then, the liquid impacts the stress block w12, causing the spring rod w15 to compress. Thus, a gap is generated between the stress block w12 and the middle of the bottom plate w2 to discharge the liquid. The size of the gap depends on the height and the elasticity of the spring rod w15. Thus, the liquid flows out from the hollow groove w3 towards the discharge port 4 below.

[0025] Among them, the fixed structure w16 is provided with a connecting block t1, a circular rod t2, an orbital plate t3, a horizontal plate t4, and a movable block t5. The circular rod t2 is fixedly embedded on the side of the movable block t5. The circular rod t2 is in a limiting sliding fit inside the orbital plate t3. The orbital plate t3 is installed on the upper side of the connecting block t1. The connecting block t1 is fixedly embedded in the middle upper end of the horizontal plate t4. The horizontal plate t4 is clamped inside the inclined ring w4. The circular rod t2 is fixedly embedded at the lower end of the support block w11. Four connecting rods are provided on the outer side of the horizontal plate t4 and are distributed annularly. There are four orbital plates t3 and they are in a vertical state, having the effect of vertically limiting the sliding of the circular rod t2, so that the liquid flows out from the hollow groove w3 to the gaps between the connecting rods on the outer side of the horizontal plate t4. Moreover, the threaded rod w13 pushes the movable block t5 to move. Supported by the orbital plate t3, the circular rod t2 on the outer side of the movable block t5 moves vertically inside the orbital plate t3, ensuring that the movable block t5 moves up and down while maintaining a vertical state, avoiding the force block w12 deviating from the central axis position of the bottom plate w2, and making the pressure received by the spring rod w15 a vertical pressure.

[0026] Specific usage method and function of this embodiment: In the present invention, the liquid rushes into the inner edge of the vortex body 11 from the feed pipe 3 and rotates downward along the inner wall of the vortex body 11, thereby driving the booster 14 to rotate accordingly. And the liquid moves along the inner side of the cone 15 towards the bottom plate w2 position, forming an upward vortex in the middle position. Then, the liquid with a large density squeezes the upper end of the pressure mechanism w1 in the middle of the bottom plate w2 under pressure, causing the pressure mechanism w1 to expand and contract inside the hollow groove w3. Then, under pressure, the liquid with a large density flows out downward from the middle position. When the internal pressure becomes smaller, the pressure mechanism w1 rebounds under the support of the inclined ring w4, making the notch in the middle of the bottom plate w2 smaller to block the liquid, so that the liquid can only be discharged under a certain pressure. Whether the pressure becomes larger or smaller is automatically adjusted through the elastic force of the pressure mechanism w1, so that the outflow of the liquid is maintained under a certain pressure, avoiding the influence of the reduced pressure on the swirling centrifugal effect inside the cone 15.

[0027] In the present invention, the threaded rod w13 is manually rotated externally for threaded translation, and the translation of the threaded rod w13 pushes the movable block t5 in the fixed structure w16 to move upward. Supported by the track plate t3, the circular rod t2 outside the movable block t5 moves vertically within the track plate t3 to ensure that the movable block t5 moves vertically for lifting, avoiding the force-receiving block w12 deviating from the central axis position of the bottom plate w2, so that the pressure on the spring rod w15 is a vertical pressure. Then, the support block w11 drives the spring rod w15 to move upward, making it necessary for the impact pressure of the liquid on the inner wall of the cone 15 on the force-receiving block w12 to be greater to push the spring rod w15 to compress, achieving the effect of adjusting the pressure on the force-receiving block w12. Subsequently, the liquid impacts the force-receiving block w12, causing the spring rod w15 to compress, and thus a gap is generated between the force-receiving block w12 and the bottom plate w2 to discharge the liquid. The size of the gap depends on the height and the elasticity of the spring rod w15. Thus, the liquid flows out from the hollow groove w3 to the position of the discharge port 4 below. Under the vertical elastic force of the spring rod w15, the resistance to the outflow of the liquid is maintained, ensuring the stability of the internal pressure when the liquid flows out at the sedimentation mechanism 12 position and avoiding the reduction of pressure during liquid discharge from affecting the liquid swirl. Embodiment 2

[0028] As shown in the attached Figure 6 to the attached Figure 7 figure: Among them, the supercharger 14 is provided with a force-receiving plate s1, a ball s2, and a sliding plate s3. The ball s2 is engaged outside the sliding plate s3, and the force-receiving plate s1 is embedded inside the sliding plate s3. The ball s2 is in limited sliding fit inside the vortex fluid 11 and the inner side of the cone 15. The force-receiving plate s1 is distributed in an annular state and at intervals, and is arranged in increasing order successively. The force-receiving plate s1 is inclined at 15 degrees to the vertical center line inside the sliding plate s3. Thus, the liquid rotates counterclockwise and moves towards the acute angle direction on the inclined side of the force-receiving plate s1, then pushes the force-receiving plate s1 to follow the liquid agitation, causing the sliding plate s3 to rotate on the inner wall of the vortex fluid 11 through the ball s2. When the liquid swirl is slow, due to the rotational inertia of the ball s2, the force-receiving plate s1 continues to drive the liquid to swirl at a certain speed. And the supercharger 14 has inertia force and the impact force of the liquid, which will be faster than the liquid rotation rate. Furthermore, the supercharger 14 can drive the liquid to accelerate the swirl, thereby increasing the pressure of the liquid, and then performing secondary pressurization to avoid the pressure reduction when the liquid swirls downward along the inner wall of the vortex fluid 11.

[0029] Among them, the force-bearing plate s1 is provided with a bearing rod s11, a blocking rod s12, an inclined plate s13, and a triangular plate s14. The blocking rod s12 is embedded on the side surface of the inclined plate s13. The bearing rod s11 is installed on the side surface of the inclined plate s13. The triangular plate s14 is attached to the side surface of the inclined plate s13. The bearing rod s11 is embedded inside the sliding plate s3. A spring is provided on the side surface of the blocking rod s12, which has the characteristic of large elasticity. The triangular plate s14 is made of rubber and has the characteristics of easy deformation and large elasticity. Therefore, after the triangular plate s14 is impacted by the liquid, it pushes the inclined plate s13 to tilt around the bearing rod s11. Furthermore, the blocking rod s12 keeps the inclined plate s13 under the elasticity of the spring with a certain elastic tilting force. Furthermore, whether the triangular plate s14 is impacted by the liquid or the side surface of the inclined plate s13 is impacted by the liquid, the force-bearing plate s1 maintains a certain inclined guiding force on the liquid, ensuring that the liquid remains in a rotating eddy state and preventing the booster 14 from blocking and damaging the downward swirling stable state of the liquid.

[0030] Specific usage method and function of this embodiment: In the present invention, the liquid rotates counterclockwise and moves towards the acute angle direction of the inclined side of the force-bearing plate s1, and then pushes the force-bearing plate s1 to stir along with the liquid. After the triangular plate s14 is impacted by the liquid, it pushes the inclined plate s13 to tilt around the bearing rod s11. Furthermore, the blocking rod s12 keeps the inclined plate s13 under the elasticity of the spring with a certain elastic tilting force, so that the force-bearing plate s1 maintains a certain inclined guiding force on the liquid, ensuring that the liquid remains in a rotating eddy state and preventing the booster 14 from blocking and damaging the downward swirling stable state of the liquid. Then, it drives the ball s2 outside the sliding plate s3 to rotate on the inner wall of the eddy fluid 11. When the liquid swirl is slow, due to the rotational inertia of the ball s2, the force-bearing plate s1 continues to drive the liquid to swirl at a certain speed. Moreover, the booster 14 has an inertial force and the impact force of the liquid, which will be faster than the liquid rotation rate. Therefore, the booster 14 can drive the liquid to swirl faster, thereby increasing the pressure of the liquid. Furthermore, it secondarily pressurizes to maintain the pressure of the swirling effect and prevent the pressure from decreasing when the liquid swirls downward along the inner wall of the eddy fluid 11, which affects the swirl.

[0031] Using the technical solution of the present invention, or those skilled in the art being inspired by the technical solution of the present invention to design a similar technical solution and achieving the above technical effects shall all fall within the protection scope of the present invention.

Claims

1. A new type of hydrocyclone with a secondary pressurization function, the structure of which includes a vortex mechanism (1), a threaded plate (2), a feed pipe (3), and a discharge port (4), and is characterized in that: The feed pipe (3) is fixedly embedded on the side of the eddy current mechanism (1), the threaded plate (2) is welded on the outside of the eddy current mechanism (1), and the discharge port (4) is located at the lowermost end of the eddy current mechanism (1). The eddy current mechanism (1) is provided with an eddy current body (11), a sedimentation mechanism (12), an overflow pipe (13), a supercharger (14), and a cone (15). The sedimentation mechanism (12) is attached to the inner side of the lower end of the cone (15). The cone (15) is welded to the lower end of the eddy current body (11). The supercharger (14) is fixedly embedded on the inner side of the connection between the eddy current body (11) and the cone (15). The overflow pipe (13) is welded inside the upper end of the eddy current body (11). The overflow pipe (13) and the sedimentation mechanism (12) are located on the same central axis. The feed pipe (3) is fixedly embedded on the side of the eddy current body (11), and the discharge port (4) is located below the sedimentation mechanism (12).

2. The novel hydrocyclone with a secondary pressurization function according to claim 1, wherein: The sedimentation mechanism (12) is provided with a pressure mechanism (w1), a bottom plate (w2), a hollow groove (w3), and an inclined ring (w4). The hollow groove (w3) is located inside the inclined ring (w4). The bottom plate (w2) is fixedly embedded at the upper end inside the inclined ring (w4). The pressure mechanism (w1) is clamped inside the inclined ring (w4), and the upper end of the pressure mechanism (w1) is in sliding fit with the middle position of the bottom plate (w2).

3. The novel hydrocyclone with a secondary pressurization function according to claim 2, characterized in that: The pressure mechanism (w1) is provided with a support block (w11), a stress block (w12), a threaded rod (w13), a rubber strip (w14), a spring rod (w15), and a fixing structure (w16). The stress block (w12) is fixedly embedded at the upper end of the spring rod (w15). The rubber strip (w14) is attached to the sides of the stress block (w12) and the support block (w11). The spring rod (w15) is installed at the middle position on the upper side of the support block (w11). The fixing structure (w16) is fixedly embedded at the lower end of the support block (w11). The threaded rod (w13) is in extrusion fit in the middle of the fixing structure (w16). The outside of the fixing structure (w16) is clamped inside the inclined ring (w4), and the threaded rod (w13) penetrates through the inside of the inclined ring (w4).

4. A novel hydrocyclone with a secondary pressurization function according to claim 3, characterized in that: The fixing structure (w16) is provided with a connecting block (t1), a circular rod (t2), a track plate (t3), a horizontal plate (t4), and a movable block (t5). The circular rod (t2) is fixedly embedded on the side of the movable block (t5). The circular rod (t2) is in limited sliding fit inside the track plate (t3). The track plate (t3) is installed on the upper side of the connecting block (t1). The connecting block (t1) is fixedly embedded at the upper middle of the horizontal plate (t4). The horizontal plate (t4) is clamped inside the inclined ring (w4). The circular rod (t2) is fixedly embedded at the lower end of the support block (w11).

5. A novel hydrocyclone with a secondary pressurization function according to claim 1, characterized in that: The supercharger (14) is provided with a stress plate (s1), a ball (s2), and a sliding plate (s3). The ball (s2) is clamped on the outside of the sliding plate (s3). The stress plate (s1) is fixedly embedded on the inside of the sliding plate (s3). The ball (s2) is in limited sliding fit inside the eddy current body (11) and the cone (15).

6. A novel hydrocyclone with a secondary pressurization function according to claim 5, characterized in that: The force-bearing plate (s1) is provided with a bearing rod (s11), a blocking rod (s12), an inclined plate (s13), and a triangular plate (s14). The blocking rod (s12) is embedded and fixed on the side surface of the inclined plate (s13). The bearing rod (s11) is installed on the side surface of the inclined plate (s13). The triangular plate (s14) is attached to the side surface of the inclined plate (s13). The bearing rod (s11) is embedded and fixed inside the sliding plate (s3).

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