A flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment

Abstract

The present invention belongs to the technical field of high-frequency vibration dehydration and de-mediation, and specifically refers to a flange-type vibrator high-frequency vibration dehydration and de-mediation device, comprising a vibration base, a motor frame, a vibration body screening mechanism, and a rotary pressure-type auxiliary vibration mechanism, wherein the motor frame is mounted on one side of the vibration base, the vibration body screening mechanism is mounted on the upper wall of the vibration base, the rotary pressure-type auxiliary vibration mechanism is mounted on the vibration body screening mechanism, the vibration body screening mechanism comprises a screening mechanism, a feeding mechanism, and a driving mechanism, the screening mechanism is mounted on the upper wall of the vibration base, the feeding mechanism is mounted on the inner wall of one end of the screening mechanism, and the driving mechanism is mounted on the bottom wall of the screening mechanism. The present invention provides a flange-type vibrator high-frequency vibration dehydration and de-mediation device that can accelerate the evaporation rate of moisture on the surface of materials with high humidity, reduce the probability of screen clogging during material screening, and limit the jumping height of materials that jump on the screen.

Description

Technical Field

[0001] The invention belongs to the technical field of high-frequency vibration dehydration and media removal, and in particular relates to a flange-type vibrator high-frequency vibration dehydration and media removal device. Background Art

[0002] A flange vibrator uses mechanical vibration principles to generate excitation force. It primarily consists of a motor, reducer, eccentric shaft, vibrator body, and flange connections. During high-frequency vibration dehydration and demediation, the flange vibrator generates excitation force that acts on the screen surface, causing the material to vibrate at high frequencies. This high-frequency vibration helps separate moisture and media (such as fine particles and slurry) from the main material.

[0003] The existing high-frequency vibration dehydration and de-mediation equipment has the following problems:

[0004] 1. Materials with excessive humidity tend to adhere to the screen, causing clogging of the screen holes, which not only reduces the screening efficiency but also damages the screen;

[0005] 2. The jumping forward movement of the material on the screen causes some fine particles to be missed, thereby reducing the screening effect of the material;

[0006] Therefore, it cannot meet the existing requirements for the use of high-frequency vibration dehydration and de-mediation equipment. Summary of the Invention

[0007] In view of the above situation, in order to overcome the defects of the existing technology, the present solution provides a flange-type vibrator high-frequency vibration dehydration and de-mediation equipment that can accelerate the evaporation rate of moisture on the surface of materials with high humidity, reduce the probability of screen clogging during material screening, and limit the jumping height of materials jumping on the screen.

[0008] The technical solution adopted in this scheme is as follows: This scheme proposes a flange-type vibrator high-frequency vibration dehydration and de-mediation equipment, including an excitation base, a motor frame, an excitation body screening mechanism and a transfer-pressure auxiliary vibration mechanism, the motor is mounted on one side of the excitation base, the excitation body screening mechanism is arranged on the upper wall of the excitation base, the transfer-pressure auxiliary vibration mechanism is arranged on the excitation body screening mechanism, the excitation body screening mechanism includes a screening mechanism, a feeding mechanism and a driving mechanism, the screening mechanism is arranged on the upper wall of the excitation base, the feeding mechanism is arranged on the inner wall of one end of the screening mechanism, the driving mechanism is arranged on the bottom wall of the screening mechanism, the transfer-pressure auxiliary vibration mechanism includes a linkage mechanism, an air compression mechanism, a heat conduction mechanism, a pressure relief mechanism and a heating mechanism, the linkage mechanism is arranged on the feeding mechanism, the air compression mechanism is arranged at both ends of the excitation base below the screening mechanism, the heat conduction mechanism is arranged at one end of the screening mechanism close to the feeding mechanism, the pressure relief mechanism is arranged on the heat conduction mechanism, and the heating mechanism is arranged at one end of the heat conduction mechanism close to the air compression mechanism.

[0009] As a further optimization of the present invention, the screening mechanism includes a screening spring, a screening box, a screen and a discharge port, multiple groups of the screening springs are arranged on the upper wall of the excitation base, the screening box is arranged on the upper wall of the screening springs, the screening box is an upper open and inclined box, the screen is arranged on the inner wall of the screening box opening, and the discharge port is arranged on the side wall of the high side of the screening box; the discharge mechanism includes a discharge box and a discharge port, the discharge box is arranged on the inner wall of the screening box on one side of the screen, the discharge box is opened at the upper end, and the The discharge port is arranged on the side of the discharge box close to the screen; the driving mechanism includes a driving motor, a driving flexible shaft, a driving plate, a driving shaft and an exciting eccentric wheel, the driving motor is arranged on the inner wall of the end of the motor frame away from the exciting base, the driving plate is symmetrically arranged on the bottom walls of both ends of the screening box, the driving shaft passes through the inner wall of the end of the driving plate away from the screening box, the driving shaft rotates between the driving plates, the driving flexible shaft is arranged between the power end of the driving motor and the driving shaft, and multiple groups of exciting eccentric wheels are arranged on the outside of the driving shaft.

[0010] During use, the material is poured into the discharge box, and the driving motor drives the driving flexible shaft to rotate through the power end, and the driving flexible shaft drives the exciting eccentric wheel to rotate through the driving shaft. The rotation of the exciting eccentric wheel generates a vibration force with a fixed frequency and amplitude, so that the screening box continuously vibrates by utilizing the deformation of the screening spring, and the material inside the discharge box slides to the surface of the screen through the discharge port. As the screening box drives the screen to vibrate, the screened material falls into the screen box, and the operator discharges the material inside the screening box through the discharge port, and the material that has not been screened slides out with the inclination angle of the screen.

[0011] The transmission mechanism is connected with the air filter press, and the air filter presses the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter presses the air filter press, and the air filter press The air intake valve is connected to the side of the hot air box away from the compressed air sleeve; the heat-conducting mechanism includes a heat-conducting frame and a heat-conducting copper tube, and the heat-conducting frame is symmetrically arranged on the inner walls at both ends of the top of the screening box. The heat-conducting copper tube passes through the excitation base, the screening box and the hot air box and is arranged between the heat-conducting frame, and the heat-conducting copper tube is connected to the hot air box; the pressure relief mechanism includes a pressure relief copper tube and a micro pressure relief valve, multiple groups of the pressure relief copper tubes are connected and arranged at one end of the heat-conducting copper tube close to the heat-conducting frame, and multiple groups of the micro pressure relief valves are connected and arranged on the side of the pressure relief copper tube close to the screen; the heating mechanism includes an iron rod, a heating coil, a connecting tube and a guide port, the connecting tube is connected and arranged on the side wall of the heat-conducting copper tube inside the hot air box, the heat-conducting copper tubes are arranged relatively, the iron rod is arranged between the connecting tubes, the heating coil is arranged between the connecting tubes outside the iron rod, and multiple groups of the guide ports are arranged on the side wall of the connecting tube outside the heating coil.

[0012] When in use, the heating coil heats the iron rod. When the temperature of the iron rod rises, it heats the air inside the hot air box. The hot air box heats the heat-conducting copper tube connected to the connecting tube through the guide port. When the temperature of the heat-conducting copper tube rises, it heats the material screened on the upper wall of the screen, accelerates the evaporation of moisture on the surface of the material, and reduces the chance of adhesion between the material and the screen.

[0013] Specifically, a controller is provided on the side wall of the motor frame above the driving motor.

[0014] Wherein, the controller is electrically connected to the driving motor and the heating coil respectively.

[0015] Preferably, the model of the controller is SYC89C52RC-401.

[0016] The beneficial effects achieved by adopting the above structure are as follows:

[0017] Compared with the existing technology, this solution adopts a combination of an eccentric wheel excitation structure, a humidity heating structure and a linked air compression mechanism. Through the provided excitation body screening mechanism and the rotary pressure auxiliary vibration mechanism, the moisture on the surface of the material can be removed during the material screening process, the humidity of the material can be reduced, and the material can be better screened. The drive shaft is used to drive the air compression piston to compress the gas in the hot air box to increase the pressure inside the hot air box. When the gas pressure inside the hot air box reaches the pressure relief threshold of the micro pressure relief valve, the micro pressure relief valve is turned on, and the micro pressure relief valve sprays the energetic gas inside the hot air box to the screen, thereby clearing the material blocked inside the screen, thereby improving the screening efficiency of the screen for the material to a certain extent. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the overall structure of this scheme;

[0019] Figure 2 This is the main perspective view of this scheme;

[0020] Figure 3 This is a bottom-up perspective view of this scheme;

[0021] Figure 4 This is a schematic diagram of the combined structure of the heat conduction mechanism, pressure relief mechanism and heating mechanism of this solution;

[0022] Figure 5 for Figure 4 A bottom-up stereogram;

[0023] Figure 6 This is the main view of this scheme;

[0024] Figure 7 This is the left view of this scheme;

[0025] Figure 8 This is the right view of this scheme;

[0026] Figure 9 This is a top view of the scheme;

[0027] Figure 10 for Figure 9 AA section view;

[0028] Figure 11 for Figure 5 A magnified structural view of part I;

[0029] Figure 12 for Figure 3 A magnified structural view of Part II;

[0030] Figure 13 for Figure 1 A magnified structural view of Part III;

[0031] Figure 14 for Figure 3 Enlarged structural view of part IV.

[0032] Among them, 1. Excitation base, 2. Motor frame, 3. Excitation body screening mechanism, 4. Screening mechanism, 5. Screening spring, 6. Screening box, 7. Screen, 8. Discharge port, 9. Unloading mechanism, 10. Unloading box, 11. Unloading port, 12. Driving mechanism, 13. Driving motor, 14. Driving flexible shaft, 15. Driving plate, 16. Driving shaft, 17. Excitation eccentric wheel, 18. Transformation and pressure type auxiliary vibration mechanism, 19. Linkage mechanism, 20. Linkage eccentric wheel, 21. Rotating block, 22. Linkage flexible shaft, 23. Linkage frame, 24. Air compression mechanism, 25. Guide sleeve, 26. Hot air box, 27. Air compression sleeve, 28. Air compression piston, 29. Heat conduction mechanism, 30. Heat conduction frame, 31. Heat conduction copper tube, 32. Pressure relief mechanism, 33. Pressure relief copper tube, 34. Miniature pressure relief valve, 35. Heating mechanism, 36. Iron rod, 37. Heating coil, 38. Connecting tube, 39. Diversion port, 40. Controller, 41. One-way air inlet valve.

[0033] The accompanying drawings are used to provide further understanding of the present solution and constitute a part of the specification. Together with the embodiments of the present solution, they are used to explain the present solution and do not constitute a limitation to the present solution. DETAILED DESCRIPTION

[0034] The technical solutions in the embodiments of this solution will be clearly and completely described below in conjunction with the drawings in the embodiments of this solution. Obviously, the described embodiments are only part of the embodiments of this solution, not all of the embodiments; based on the embodiments in this solution, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of this solution.

[0035] In the description of this solution, it should be understood that terms such as "up", "down", "front", "back", "left", "right", "top", "bottom", "inside", and "outside" indicating directions or positional relationships are based on the directions or positional relationships shown in the accompanying drawings. They are only for the convenience of describing this solution and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, they should not be understood as limitations on this solution.

[0036] like Figures 1-14As shown, the present invention proposes a flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment, including a vibration base 1, a motor frame 2, a vibration body screening mechanism 3 and a rotary pressure type auxiliary vibration mechanism 18, wherein the motor frame 2 is arranged on one side of the vibration base 1, the vibration body screening mechanism 3 is arranged on the upper wall of the vibration base 1, the rotary pressure type auxiliary vibration mechanism 18 is arranged on the vibration body screening mechanism 3, the vibration body screening mechanism 3 includes a screening mechanism 4, a feeding mechanism 9 and a driving mechanism 12, the screening mechanism 4 is arranged on the upper wall of the vibration base 1, and the feeding mechanism 9 is arranged on one side of the screening mechanism 4. The inner wall of the end, the driving mechanism 12 is arranged on the bottom wall of the screening mechanism 4, the conversion and pressure type auxiliary vibration mechanism 18 includes a linkage mechanism 19, an air compression mechanism 24, a heat conduction mechanism 29, a pressure relief mechanism 32 and a heating mechanism 35, the linkage mechanism 19 is arranged on the unloading mechanism 9, the air compression mechanism 24 is arranged at both ends of the vibration base 1 below the screening mechanism 4, the heat conduction mechanism 29 is arranged at one end of the screening mechanism 4 close to the unloading mechanism 9, the pressure relief mechanism 32 is arranged on the heat conduction mechanism 29, and the heating mechanism 35 is arranged at one end of the heat conduction mechanism 29 close to the air compression mechanism 24.

[0037] The screening mechanism 4 includes a screening spring 5, a screening box 6, a screen 7 and a discharge port 8. Multiple groups of the screening springs 5 are arranged on the upper wall of the excitation base 1, and the screening box 6 is arranged on the upper wall of the screening spring 5. The screening box 6 is a box body with an upper end opening and an inclined arrangement. The screen 7 is arranged on the inner wall of the opening of the screening box 6, and the discharge port 8 is arranged on the side wall of the high side of the screening box 6; the discharge mechanism 9 includes a discharge box 10 and a discharge port 11. The discharge box 10 is arranged on the inner wall of the screening box 6 on one side of the screen 7, and the discharge box 10 is arranged with an upper end opening. The discharge port 11 is arranged on the discharge box 10 near the screen. One side of the net 7; the driving mechanism 12 includes a driving motor 13, a driving flexible shaft 14, a driving plate 15, a driving shaft 16 and an exciting eccentric wheel 17, the driving motor 13 is arranged on the inner wall of the end of the motor frame 2 away from the exciting base 1, the driving plate 15 is symmetrically arranged on the bottom walls at both ends of the screening box 6, the driving shaft 16 is penetrated by the inner wall of the end of the driving plate 15 away from the screening box 6, the driving shaft 16 is rotatably arranged between the driving plates 15, the driving flexible shaft 14 is arranged between the power end of the driving motor 13 and the driving shaft 16, and multiple groups of exciting eccentric wheels 17 are arranged on the outside of the driving shaft 16.

[0038] The linkage mechanism 19 includes a linkage eccentric wheel 20, a rotating block 21, a linkage flexible shaft 22 and a linkage frame 23. The linkage eccentric wheel 20 is arranged on the side of the drive shaft 16 away from the drive motor 13. The rotating block 21 is rotatably arranged on the side wall of one end of the linkage eccentric wheel 20 away from the drive shaft 16. The linkage flexible shaft 22 is arranged on the side of the rotating block 21 away from the linkage eccentric wheel 20. The linkage frame 23 is arranged on the side of the linkage flexible shaft 22 away from the rotating block 21. The air compression mechanism 24 includes a guide sleeve 25, a hot air box 26, a compressed air sleeve 27, a compressed air piston 28 and a one-way air inlet valve 41, the hot air box 26 is symmetrically arranged on the inner wall of the excitation base 1 at both ends below the screening box 6, multiple groups of the guide sleeves 25 are arranged on the inner wall of the excitation base 1 on one side of the hot air box 26, multiple groups of the compressed air sleeves 27 are arranged on the side of the hot air box 26 close to the guide sleeve 25, the compressed air sleeve 27 is connected to the hot air box 26, the compressed air piston 28 passes through the guide sleeve 25 and is slidably arranged inside the compressed air sleeve 27, the compressed air piston 28 is away from the end of the compressed air sleeve 27 and is rotatably connected to the linkage frame 23, the one-way air inlet valve 41 is provided. The air valve 41 is connected to the side of the hot air box 26 away from the compressed air sleeve 27; the heat-conducting mechanism 29 includes a heat-conducting frame 30 and a heat-conducting copper tube 31, and the heat-conducting frame 30 is symmetrically arranged on the inner walls of the two ends of the top of the screen box 6. The heat-conducting copper tube 31 passes through the excitation base 1, the screen box 6 and the hot air box 26 and is arranged between the heat-conducting frame 30. The heat-conducting copper tube 31 is connected to the hot air box 26; the pressure relief mechanism 32 includes a pressure relief copper tube 33 and a micro pressure relief valve 34. Multiple groups of the pressure relief copper tubes 33 are connected to the heat-conducting copper tube 31 near the heat-conducting frame 30. At one end, multiple groups of the micro pressure relief valves 34 are connected and arranged on one side of the pressure relief copper tube 33 close to the screen 7; the heating mechanism 35 includes an iron rod 36, a heating coil 37, a connecting tube 38 and a guide port 39, the connecting tube 38 is connected and arranged on the side wall of the heat-conducting copper tube 31 inside the hot air box 26, the heat-conducting copper tube 31 is arranged relatively, the iron rod 36 is arranged between the connecting tubes 38, the heating coil 37 is arranged between the connecting tubes 38 outside the iron rod 36, and multiple groups of the guide ports 39 are arranged on the side wall of the connecting tube 38 outside the heating coil 37.

[0039] A controller 40 is provided on the side wall of the motor frame 2 above the driving motor 13 .

[0040] The controller 40 is electrically connected to the driving motor 13 and the heating coil 37 respectively.

[0041] The model of the controller 40 is SYC89C52RC-401.

[0042] In specific use, in Example 1, the thermal insulation coating is applied to the areas where the heat-conducting copper tube 31 and the pressure-relief copper tube 33 are not in contact with other components, and the thermal insulation coating is not applied to the side of the heat-conducting copper tube 31 and the pressure-relief copper tube 33 close to the screen 7;

[0043] When the material needs to be screened, the material is poured into the discharge box 10. When the humidity on the surface of the material is high, the controller 40 controls the heating coil 37 to start and dehumidify the material.

[0044] The controller 40 controls the drive motor 13 to start, and the drive motor 13 drives the drive flexible shaft 14 to rotate through the power end, and the drive flexible shaft 14 drives the exciting eccentric wheel 17 to rotate through the drive shaft 16. The rotation of the exciting eccentric wheel 17 generates a vibration force with a fixed frequency and amplitude, so that the screening box 6 continuously vibrates by utilizing the deformation of the screening spring 5, and the material inside the discharge box 10 slides to the surface of the screen 7 through the discharge port 11. As the screening box 6 drives the screen 7 to vibrate, the screened material falls into the inside of the screening box 6, and the operator discharges the material inside the screening box 6 through the discharge port 8. The material that has not been screened slides out with the inclination angle of the screen 7;

[0045] The heating coil 37 heats the iron rod 36. When the temperature of the iron rod 36 rises, it heats the air inside the hot air box 26. The hot air box 26 heats the heat-conducting copper tube 31 connected to the connecting tube 38 through the guide port 39. When the temperature of the heat-conducting copper tube 31 rises, it heats the material screened on the upper wall of the screen 7, thereby accelerating the evaporation of moisture on the surface of the material, reducing the probability of adhesion between the material and the screen 7, and improving the screening efficiency of the screen 7 for the material.

[0046] The second embodiment is based on the above embodiment. The screen 7 is prone to blockage during the material screening process under high-frequency vibration. At this time, when the driving shaft 16 drives the rotating block 21 away from the hot gas box 26 through the linkage eccentric wheel 20, the rotating block 21 drives the linkage frame 23 to tilt to one side of the linkage eccentric wheel 20 through the linkage flexible shaft 22, and the linkage frame 23 pulls the compression piston 28. The compression piston 28 slides along the guide sleeve 25 away from the compression sleeve 27. The compression piston 28 draws external gas into the hot gas box 26 under the action of the one-way air intake of the one-way air intake valve 41. Subsequently, when the driving shaft 16 drives the rotating block 21 to approach the hot gas box 26, the rotating block 21 drives the linkage frame 23 to move toward one end of the hot gas box 26 through the linkage flexible shaft 22. The linkage frame 23 drives the compression piston 28 to slide along the guide sleeve 25 into the compression sleeve 27. The compression piston 28 compresses the gas inside the hot gas box 26, thereby increasing the energy of the gas inside the hot gas box 26.

[0047] The pressure relief threshold of the micro pressure relief valve 34 is preset. When the gas pressure inside the hot gas box 26 reaches the pressure relief threshold of the micro pressure relief valve 34, the micro pressure relief valve 34 is turned on. At this time, the gas with a high flow rate and energy inside the heat-conducting copper tube 31 and the pressure relief copper tube 33 is discharged through the micro pressure relief valve 34. The gas with a high flow rate and energy is sprayed toward the screen 7, thereby clearing the material blocked inside the screen 7 and ensuring the screening efficiency of the screen 7.

[0048] By setting multiple groups of pressure relief copper tubes 33 on the inner wall of the heat-conducting copper tube 31, the material jumping on the surface of the screen 7 can be restricted, its jumping height can be limited, and the probability of fine particles being missed can be reduced; just repeat the above operation when using it next time.

[0049] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that includes a list of elements includes not only those elements but also other elements not explicitly listed, or elements inherent to such process, method, article, or apparatus.

[0050] The above description of the present solution and its implementation methods is non-limiting. The drawings show only one implementation method of the present solution, and the actual structure is not limited thereto. In short, if a person skilled in the art is inspired by this and, without departing from the purpose of the present solution, designs a similar structure and embodiment without creatively designing, they shall fall within the scope of protection of the present solution.

Claims

1. A flange-type vibrator high-frequency vibration dehydration and de-mediuming device, comprising a vibration base (1) and a motor frame (2), characterized in that: It also includes an exciting body screening mechanism (3) and a rotation-pressure auxiliary vibration mechanism (18), wherein the motor frame (2) is arranged on one side of the exciting base (1), the exciting body screening mechanism (3) is arranged on the upper wall of the exciting base (1), and the rotation-pressure auxiliary vibration mechanism (18) is arranged on the exciting body screening mechanism (3). The exciting body screening mechanism (3) includes a screening mechanism (4), a feeding mechanism (9) and a driving mechanism (12), wherein the screening mechanism (4) is arranged on the upper wall of the exciting base (1), the feeding mechanism (9) is arranged on the inner wall of one end of the screening mechanism (4), and the driving mechanism (12) is arranged on the bottom of the screening mechanism (4). The rotary pressure auxiliary vibration mechanism (18) comprises a linkage mechanism (19), an air compression mechanism (24), a heat conduction mechanism (29), a pressure relief mechanism (32) and a heating mechanism (35), wherein the linkage mechanism (19) is arranged on the material discharge mechanism (9), the air compression mechanism (24) is arranged at both ends of the excitation base (1) below the screening mechanism (4), the heat conduction mechanism (29) is arranged at one end of the screening mechanism (4) close to the material discharge mechanism (9), the pressure relief mechanism (32) is arranged on the heat conduction mechanism (29), and the heating mechanism (35) is arranged at one end of the heat conduction mechanism (29) close to the air compression mechanism (24); The screening mechanism (4) comprises a screening box (6) and a screen (7); The air compression mechanism (24) includes a hot air box (26); The heat-conducting mechanism (29) includes a heat-conducting frame (30) and a heat-conducting copper tube (31), wherein the heat-conducting frame (30) is symmetrically arranged on the inner walls at both ends of the top of the screening box (6), and the heat-conducting copper tube (31) passes through the excitation base (1), the screening box (6) and the hot air box (26) and is arranged between the heat-conducting frame (30), and the heat-conducting copper tube (31) is connected to the hot air box (26); The pressure relief mechanism (32) comprises a pressure relief copper tube (33) and a micro pressure relief valve (34). Multiple groups of the pressure relief copper tubes (33) are connected and arranged at one end of the heat-conducting copper tube (31) close to the heat-conducting frame (30). Multiple groups of the micro pressure relief valves (34) are connected and arranged at one side of the pressure relief copper tube (33) close to the screen (7).

2. The flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment according to claim 1, characterized in that: The screening mechanism (4) further includes screening springs (5) and a discharge port (8), wherein a plurality of groups of the screening springs (5) are arranged on the upper wall of the excitation base (1), and the screening box (6) is arranged on the upper wall of the screening springs (5). The screening box (6) is a box body with an upper opening and an inclined arrangement, and the screen (7) is arranged on the inner wall of the opening of the screening box (6). The discharge port (8) is arranged on the side wall of the high side of the screening box (6).

3. The flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment according to claim 2, characterized in that: The unloading mechanism (9) comprises an unloading box (10) and an unloading port (11). The unloading box (10) is arranged on the inner wall of the sieve box (6) on one side of the sieve (7). The unloading box (10) is opened at the top, and the unloading port (11) is arranged on the side of the unloading box (10) close to the sieve (7).

4. The flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment according to claim 3, characterized in that: The driving mechanism (12) includes a driving motor (13), a driving flexible shaft (14), a driving plate (15), a driving shaft (16) and an exciting eccentric wheel (17), wherein the driving motor (13) is arranged on the inner wall of one end of the motor frame (2) away from the exciting base (1), the driving plate (15) is symmetrically arranged on the bottom walls of both ends of the screening box (6), the driving shaft (16) is penetrated and arranged on the inner wall of one end of the driving plate (15) away from the screening box (6), the driving shaft (16) is rotatably arranged between the driving plates (15), the driving flexible shaft (14) is arranged between the power end of the driving motor (13) and the driving shaft (16), and a plurality of sets of exciting eccentric wheels (17) are arranged on the outside of the driving shaft (16).

5. The flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment according to claim 4, characterized in that: The linkage mechanism (19) comprises a linkage eccentric wheel (20), a rotating block (21), a linkage flexible shaft (22) and a linkage frame (23), wherein the linkage eccentric wheel (20) is arranged on a side of the drive shaft (16) away from the drive motor (13), the rotating block (21) is rotatably arranged on a side wall of one end of the linkage eccentric wheel (20) away from the drive shaft (16), the linkage flexible shaft (22) is arranged on a side of the rotating block (21) away from the linkage eccentric wheel (20), and the linkage frame (23) is arranged on a side of the linkage flexible shaft (22) away from the rotating block (21).

6. The flange-type vibrator high-frequency vibration dehydration and de-mediuming equipment according to claim 5, characterized in that: The air compression mechanism (24) further comprises a guide sleeve (25), an air compression sleeve (27), an air compression piston (28) and a one-way air inlet valve (41); the hot air box (26) is symmetrically arranged on the inner walls at both ends of the excitation base (1) below the screening box (6); multiple groups of the guide sleeves (25) are arranged on the inner wall of the excitation base (1) on one side of the hot air box (26); multiple groups of the air compression sleeves (27) are arranged on the side of the hot air box (26) close to the guide sleeve (25); the air compression sleeve (27) is connected to the hot air box (26); the air compression piston (28) penetrates the guide sleeve (25) and is slidably arranged inside the air compression sleeve (27); the end of the air compression piston (28) away from the air compression sleeve (27) is rotatably connected to the linkage frame (23); and the one-way air inlet valve (41) is connected to the side of the hot air box (26) away from the air compression sleeve (27).

7. The flange-type vibrator high-frequency vibration dehydration and de-mediation equipment according to claim 6, characterized in that: The heating mechanism (35) includes an iron rod (36), a heating coil (37), a connecting tube (38) and a guide port (39); the connecting tube (38) is connected to and arranged on the side wall of the heat-conducting copper tube (31) inside the hot air box (26); the heat-conducting copper tubes (31) are arranged opposite to each other; the iron rod (36) is arranged between the connecting tubes (38); the heating coil (37) is arranged between the connecting tubes (38) outside the iron rod (36); and a plurality of guide ports (39) are arranged on the side wall of the connecting tube (38) outside the heating coil (37).

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