Ultrasonic cavitation rapid dehydration device

Abstract

The invention discloses an ultrasonic cavitation rapid dehydration device, and particularly relates to the technical field of ultrasonic dehydration. The ultrasonic cavitation rapid dehydration device comprises a supporting base and further comprises a protection assembly, a transmission mechanism, a separation mechanism provided with an ultrasonic dehydration structure, a stirring mechanism, a supporting mechanism and an adjusting mechanism. The transmission mechanism is matched with the separation mechanism and the stirring mechanism, the dehydration tank and the stirring frame are synchronously driven by a single power source to form reverse rotation, materials are driven to turn over in the circumferential direction, meanwhile, reverse shearing and forced scattering effects are formed on the materials, material caking is rapidly broken, the effective contact area of the materials and an ultrasonic field is effectively increased, and the material separation efficiency is improved. And in cooperation with the cavitation effect generated by the ultrasonic generator at the bottom of the dehydration tank, the binding force of water molecules and materials is efficiently destroyed, synchronous deep removal of free water and bound water of the materials is achieved, and the dehydration efficiency and the dehydration uniformity are effectively improved.

Description

Technical Field

[0001] This invention relates to the field of ultrasonic dehydration technology, and in particular to an ultrasonic cavitation rapid dehydration device. Background Technology

[0002] In many industries such as food processing, chemical production, sludge treatment, and deep processing of agricultural and sideline products, material dehydration is an essential core process. Dehydration efficiency, dehydration depth, and energy consumption directly affect product quality and production costs. Currently, commonly used dehydration methods in the industry mainly include thermal drying dehydration, centrifugal dehydration, and mechanical filter press dehydration. While thermal drying dehydration can achieve a relatively deep dehydration effect, it consumes extremely high energy and can easily cause irreversible damage to the nutritional components and structure of heat-sensitive materials. Centrifugal dehydration can only remove free water from the surface of the material, and its effect on removing bound water inside the material is extremely poor, ultimately making it difficult to meet process requirements. Mechanical filter press dehydration easily causes material to clump together, resulting in poor dehydration uniformity and potential damage to the material structure, affecting subsequent processing and use.

[0003] Ultrasonic cavitation dehydration technology, with its advantages of non-thermal processing and efficient disruption of the binding force between water molecules and materials, is gradually being applied in the field of material dehydration. However, existing ultrasonic dehydration devices still have many shortcomings: First, most existing systems employ static ultrasonic processing, which can lead to material agglomeration and accumulation. The ultrasonic field cannot fully contact the material's interior, resulting in excessive surface dehydration and poor internal dehydration, making it difficult to guarantee dehydration efficiency and uniformity. Second, the continuous operation of the drive motor generates significant heat, which can cause performance degradation and shorten the equipment's lifespan. Existing devices require an independent cooling system, increasing both equipment cost and energy consumption, and making the overall structure more complex. Third, the material dispersing, turning, and conveying actions of existing devices require multiple power sources for separate drive, resulting in a cumbersome transmission structure, high equipment failure rate, and high maintenance costs, making it difficult to meet the demands of continuous industrial production. Summary of the Invention

[0004] The main objective of this invention is to provide an ultrasonic cavitation rapid dehydration device, which can effectively solve the problems of low dehydration efficiency, poor dehydration uniformity, poor removal of bound water from materials, severe heat generation during operation, high energy consumption, complex structure, and poor operational stability of existing dehydration devices.

[0005] To achieve the above objectives, the technical solution adopted by the present invention is as follows: An ultrasonic cavitation rapid dehydration device includes a support base, a protective component, a transmission mechanism, a separation mechanism with an ultrasonic dehydration structure, a stirring mechanism, a support mechanism, and an adjustment mechanism. The transmission mechanism cooperates with the separation mechanism and the stirring mechanism to make the stirring structure rotate with the material in the opposite direction of rotation. At the same time, the support mechanism and the adjustment mechanism cooperate to enable the material to reciprocate vertically, thereby shaking and dispersing the material. The protective component cooperates with the separation mechanism to use the separated liquid water to cool the drive source of the transmission mechanism and protect the transmission mechanism.

[0006] Preferably, the separation mechanism includes a dehydration tank, a fixed shaft and a cylinder respectively fixedly installed on the inner and outer walls of the dehydration tank, and an ultrasonic generator fixedly installed at the bottom of the dehydration tank.

[0007] Preferably, the separation mechanism further includes a driven gear one fixedly sleeved on the outer wall of the fixed shaft, the transmission mechanism includes a main shaft and a synchronous shaft for driving the driven gear one and both having synchronous pulleys fixedly sleeved on their outer walls, a rectangular groove is provided inside the cylinder, a tension spring is fixedly installed at the bottom of the rectangular groove, the stirring mechanism includes a placement plate, a rectangular insert rod is fixedly installed at the bottom of the placement plate and slidably inserted into the rectangular groove, and a drainage groove is provided at the top, a synchronous belt is sleeved on the outer walls of the two synchronous pulleys, and a transmission gear three that meshes with the driven gear one is fixedly sleeved on the outer wall of the synchronous shaft.

[0008] Preferably, the mixing mechanism further includes a mixing frame for mixing materials and a rotating shaft and a driven gear two for transmission. The mixing frame and the driven gear two are both fixedly sleeved on the outer wall of the rotating shaft. The rotating shaft is rotatably connected to the placement plate. The transmission mechanism further includes a transmission gear one and a transmission gear two for transmitting the driven gear two. The transmission gear two meshes with the transmission gear one and the driven gear two.

[0009] Preferably, the transmission mechanism further includes a motor and a fixed frame fixedly installed on the top of the support base, and a transmission rod rotatably connected to the fixed frame. The main rotating shaft and the transmission rod are respectively fixedly connected to the transmission gear and the synchronous shaft. The main rotating shaft is fixedly connected to the output end of the motor.

[0010] Preferably, the adjusting mechanism includes a rotating rod rotatably connected to the dehydration tank and having a cam and a driven bevel gear fixedly installed at both ends, the cam abutting against the bottom of the shelf.

[0011] Preferably, the support mechanism includes a reinforcing collar rotatably sleeved on the outer wall of the dehydration tank and two reinforcing brackets fixedly installed on the outer wall of the reinforcing collar. A protective shell is fixedly installed at the bottom of the reinforcing collar, and a transmission bevel gear meshing with the driven bevel gear is fixedly installed at the bottom of the protective shell.

[0012] Preferably, the protective assembly includes a protective cover for protecting the mixing mechanism and a water inlet pipe fixedly installed on the top of the protective cover. One end of the water inlet pipe is fixedly installed with a water inlet head for water inlet, and the water inlet head is directly opposite the liquid outlet pipe at the bottom of the dehydration tank. The inner wall of the protective cover has a water storage tank communicating with the water inlet pipe, and the top has a heat dissipation hole for heat dissipation. The outer wall of the protective cover is connected to a water outlet pipe, and one end of the water outlet pipe is connected to an external water pump.

[0013] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention utilizes a transmission mechanism, a separation mechanism, and a stirring mechanism to synchronously drive the dehydration tank and the stirring frame to rotate in opposite directions via a single power source. While causing the material to circumferentially tumble, it also creates a reverse shearing and forced dispersion effect on the material, quickly breaking up material agglomerates and effectively increasing the effective contact area between the material and the ultrasonic field. Combined with the cavitation effect generated by the ultrasonic generator at the bottom of the dehydration tank, it efficiently destroys the binding force between water molecules and the material, achieving synchronous and deep removal of both free water and bound water in the material, effectively improving dehydration efficiency and uniformity.

[0014] 2. This invention utilizes the rotational power of the dehydration tank itself, driven by a bevel gear set, to continuously rotate the cam. This, combined with a tension spring, causes the material to undergo a high-frequency reciprocating shaking motion in the vertical direction. This, along with circumferential tumbling and reverse stirring, creates a multi-dimensional synergistic effect, keeping the material in a loose, suspended state. This allows ultrasonic cavitation to fully penetrate every pore of the material, further shortening the dehydration time. Simultaneously, the reinforcing collar and support provide stable radial support for the dehydration tank, effectively preventing shaking and vibration malfunctions during equipment operation and significantly improving the stability and safety of the device.

[0015] 3. This invention, through the cooperation of protective components and separation mechanisms, can directly collect the liquid water separated during the dehydration process and guide it into the water storage tank of the protective cover to cool the drive motor. Combined with the heat dissipation holes, air convection is formed to enhance the heat dissipation effect. There is no need to configure additional cooling water sources and independent cooling systems, realizing the resource utilization of dehydration products, effectively reducing equipment energy consumption and operating costs. At the same time, the protective cover can isolate external dust, water vapor and impurities, preventing the precision parts of the transmission mechanism from being contaminated and causing jamming and wear failures, effectively extending the fault-free operation time and service life of the equipment. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a cross-sectional structural diagram of the protective component of the present invention; Figure 3 This is a three-dimensional structural schematic diagram of the transmission mechanism of the present invention; Figure 4 for Figure 3 An enlarged schematic diagram of part A in the middle; Figure 5 This is a cross-sectional structural diagram of the separation mechanism of the present invention; Figure 6 This is a three-dimensional structural diagram of the mixing mechanism of the present invention; Figure 7 This is a schematic diagram showing the cooperation between the support mechanism and the adjustment mechanism of the present invention.

[0017] In the diagram: 1. Support base; 2. Protective components; 201. Protective cover; 202. Water storage tank; 203. Water inlet pipe; 204. Water inlet pipe head; 205. Heat dissipation hole; 3. Transmission mechanism; 301. Motor; 302. Main shaft; 303. Fixing frame; 304. Transmission gear one; 305. Transmission gear two; 306. Synchronous shaft; 307. Synchronous belt; 308. Transmission gear three; 4. Separation mechanism; 400. Ultrasonic generator; 401. Dehydration tank; 402. Fixing shaft; 403. Driven gear one; 404. Cylinder; 405. Rectangular groove; 406. Tension spring; 5. Stirring mechanism; 501. Shelf plate; 502. Rectangular insert rod; 503. Drainage groove; 504. Rotating shaft; 505. Driven gear two; 506. Stirring frame; 6. Support mechanism; 601. Reinforcing collar; 602. Reinforcing bracket; 603. Protective shell; 604. Transmission bevel gear; 7. Adjusting mechanism; 701. Rotating rod; 702. Cam; 703. Driven bevel gear. Detailed Implementation

[0018] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0019] like Figure 1 As shown, an ultrasonic cavitation rapid dehydration device includes a support base 1, a protective component 2, a transmission mechanism 3, a separation mechanism 4 equipped with an ultrasonic dehydration structure, a stirring mechanism 5, a support mechanism 6, and an adjustment mechanism 7. The transmission mechanism 3 cooperates with the separation mechanism 4 and the stirring mechanism 5 to make the stirring structure rotate with the material in the opposite direction of rotation. At the same time, the support mechanism 6 and the adjustment mechanism 7 cooperate to enable the material to move back and forth vertically, thereby shaking and dispersing the material. The protective component 2 cooperates with the separation mechanism 4 to use the separated liquid water to cool the drive source of the transmission mechanism 3, while also protecting the transmission mechanism 3.

[0020] In this embodiment, the transmission mechanism 3 provides a unified power source for the entire device, synchronously driving the separation mechanism 4 and the stirring mechanism 5 to rotate in opposite directions. In conjunction with the adjustment mechanism 7, the material is driven to perform a vertical reciprocating shaking action, realizing a multi-dimensional synergistic effect of circumferential tumbling, reverse shearing and dispersing, and vertical shaking and loosening of the material. This effectively solves the problems of easy agglomeration of materials and insufficient dehydration contact in traditional dewatering devices. Meanwhile, the liquid water separated during the dehydration process is recovered through the protective component 2, and the drive source of the transmission mechanism 3 is cooled by water. No additional cooling system is required. This not only improves the stability of the device operation and extends the service life of the equipment, but also realizes the resource utilization of energy and materials, effectively improving the dehydration efficiency and operating economy of the device.

[0021] like Figure 3-6 As shown, in one embodiment, the separation mechanism 4 includes a dehydration tank 401 and a fixed shaft 402 and a cylinder 404 respectively fixedly installed on the inner and outer walls of the dehydration tank 401, and an ultrasonic generator 400 fixedly installed at the bottom of the dehydration tank 401. The separation mechanism 4 also includes a driven gear 403 fixedly sleeved on the outer wall of the fixed shaft 402. The transmission mechanism 3 includes a main shaft 302 and a synchronous shaft 306 for driving the driven gear 403 and both of which are fixedly sleeved on the outer walls of the synchronous pulleys. A rectangular groove 405 is opened inside the cylinder 404. A tension spring 406 is fixedly installed at the bottom of the rectangular groove 405. The stirring mechanism 5 includes a placement plate 501. A rectangular insert rod 502 that slides into the rectangular groove 405 is fixedly installed at the bottom of the placement plate 501, and a drainage groove 503 is opened at the top. A synchronous belt 307 is sleeved on the outer wall of the two synchronous pulleys. A transmission gear 308 that meshes with the driven gear 403 is fixedly sleeved on the outer wall of the synchronous shaft 306.

[0022] In this embodiment, the main shaft 302 is driven to rotate by the motor 301. Through the synchronous transmission of the synchronous pulley and synchronous belt 307, the synchronous shaft 306 rotates at the same frequency as the main shaft 302. Then, through the meshing of the transmission gear 308 and the driven gear 403, the fixed shaft 402 is driven to rotate the dehydration tank 401 as a whole, causing the material inside the tank to rotate circumferentially synchronously with the dehydration tank 401, ensuring that all parts of the material can fully contact the ultrasonic field. Simultaneously, the placement plate 501 is slidably inserted into the rectangular groove 405 inside the cylinder 404 via the rectangular insert rod 502, allowing it to rotate with the dehydration tank. The water tank 401 rotates synchronously to ensure the consistency of material movement and can slide freely vertically along the rectangular groove 405. The tension spring 406 provides a continuous and stable reset force for the shelf 501, which not only ensures the smooth reciprocating motion of the shelf 501 and avoids jamming, but also provides a stable structural foundation for the vertical shaking of materials. The drainage groove 503 on the surface of the shelf 501 can quickly collect the dehydrated liquid water and guide it to the bottom of the dehydration tank 401 for discharge, avoiding secondary accumulation of water in the material layer and effectively improving the dehydration rate and final dehydration rate.

[0023] like Figure 3 , 4 As shown in Figure 6, in one embodiment, the mixing mechanism 5 further includes a mixing frame 506 for mixing materials, a rotating shaft 504 for transmission, and a driven gear 505. The mixing frame 506 and the driven gear 505 are both fixedly sleeved on the outer wall of the rotating shaft 504. The rotating shaft 504 is rotatably connected to the placement plate 501. The transmission mechanism 3 further includes a transmission gear 304 and a transmission gear 305 for transmitting the driven gear 505. The transmission gear 305 meshes with the transmission gear 304 and the driven gear 505. The transmission mechanism 3 also includes a motor 301 and a fixed frame 303 fixedly installed on the top of the support base 1, and a transmission rod rotatably connected to the fixed frame 303. The main rotating shaft 302 and the transmission rod are fixedly connected to the transmission gear 305 and the synchronous shaft 306, respectively. The main rotating shaft 302 is fixedly connected to the output end of the motor 301.

[0024] In this embodiment, the main rotating shaft 302 synchronously drives the transmission gear 304 to rotate, and through the reversing transmission of the transmission gear 305, the driven gear 505 drives the rotating shaft 504 to rotate, so that the rotation direction of the stirring rack 506 is completely opposite to the rotation direction of the dehydration tank 401. While the material rotates circumferentially with the dehydration tank 401, the stirring rack 506 forms a reverse shearing and forced dispersing effect on the material, which can quickly break up the material agglomerates and prevent the material from accumulating into clumps, thus preventing the internal bound water from contacting the ultrasonic field. This effectively expands the effective contact area between the material and the ultrasonic cavitation effect, and effectively enhances the uniformity and depth of ultrasonic dehydration.

[0025] like Figure 5 , 7As shown, in one embodiment, the adjusting mechanism 7 includes a rotating rod 701 rotatably connected to the dehydration tank 401 and having a cam 702 and a driven bevel gear 703 fixedly installed at both ends, respectively. The cam 702 abuts against the bottom of the shelf 501. The supporting mechanism 6 includes a reinforcing collar 601 rotatably sleeved on the outer wall of the dehydration tank 401 and two reinforcing brackets 602 fixedly installed on the outer wall of the reinforcing collar 601. A protective shell 603 is fixedly installed at the bottom of the reinforcing collar 601, and a transmission bevel gear 604 meshing with the driven bevel gear 703 is fixedly installed at the bottom of the protective shell 603.

[0026] In this embodiment, the rotation of the dehydration tank 401 drives the transmission bevel gear 604, which is fixed to the bottom of the reinforcing collar 601, to rotate synchronously. Through the vertical meshing of the transmission bevel gear 604 and the driven bevel gear 703, the drive rod 701 drives the cam 702 to rotate continuously. The protrusion of the cam 702 intermittently lifts the placement plate 501. With the return force of the tension spring 406, the placement plate 501 drives the material to achieve high-frequency vertical reciprocating lifting and lowering motion. Based on circumferential flipping and reverse stirring, the vertical lifting of the material is further realized. The ultrasonic cavitation disperses the material, keeping it in a loose, suspended state. This allows the micro-jets and shock waves generated by ultrasonic cavitation to fully act on every pore of the material, further shortening the dehydration time and effectively improving dehydration efficiency. At the same time, the reinforcing collar 601 and the reinforcing bracket 602 provide stable radial support for the high-speed rotating dehydration tank 401, preventing radial swaying and vibration during operation. The protective shell 603 provides sealing protection for the bevel gear transmission structure, effectively improving the stability and safety of the device operation and extending the service life of the equipment.

[0027] like Figure 2 , 3 As shown, in one embodiment, the protective component 2 includes a protective cover 201 for protecting the mixing mechanism 5 and a water inlet pipe 203 fixedly installed on the top of the protective cover 201. One end of the water inlet pipe 203 is fixedly installed with a water inlet head 204 for water inlet. The water inlet head 204 is directly opposite the liquid outlet pipe at the bottom of the dehydration tank 401. The inner wall of the protective cover 201 is provided with a water storage tank 202 communicating with the water inlet pipe 203, and the top is provided with a heat dissipation hole 205 for heat dissipation. The outer wall of the protective cover 201 is connected with a water outlet pipe, one end of which is connected to an external water pump.

[0028] In this embodiment, by opening the valve on the outer wall of the liquid outlet pipe at the bottom of the dehydration tank 401 (the valve, water outlet pipe, and water pump are all common knowledge and are not identified in the figure), the discharged dehydrated liquid water is collected quickly and leak-free through the water inlet head 204, and then stably introduced into the water storage tank 202 on the inner wall of the protective cover 201 through the water inlet pipe 203. The room temperature water generated during the dehydration process continuously absorbs the large amount of heat generated during the operation of the motor 301 and the transmission mechanism 3, achieving efficient water cooling of the drive source. No additional cooling water source and cooling system are required, realizing the resource utilization of the dehydrated product and achieving effective energy saving and environmental protection. Simultaneously, the heat dissipation holes 205 on the top of the protective cover 201 form a convection of hot and cold air, further enhancing the heat dissipation effect. This can control the operating temperature of the motor 301 within a safe threshold, reducing the probability of performance degradation, insulation aging, and shortened service life caused by long-term high-temperature operation of the motor. In addition, the protective cover 201 can completely isolate external dust, moisture, and impurities, preventing precision components such as transmission gears and bearings from becoming contaminated and experiencing jamming or wear failures. This effectively protects the long-term stable operation of the transmission mechanism 3 and extends the service life of the equipment.

[0029] Working principle: After the device is started, the motor 301, fixed to the top of the support base 1, serves as the sole power source for the entire device, driving the main shaft 302 to rotate continuously. Power is transmitted synchronously through two transmission paths: In the first transmission path, the main shaft 302 drives the synchronous shaft 306 to rotate at the same frequency via a synchronous pulley and synchronous belt 307. Through the meshing of transmission gear 308 and driven gear 403, the fixed shaft 402 is driven to rotate the dehydration tank 401 as a whole, causing the tank placed on the shelf 501 to rotate. The dehydrated material undergoes circumferential tumbling with the dehydration tank 401. Simultaneously, during the rotation of the dehydration tank 401, the meshing of the transmission bevel gear 604 and the driven bevel gear 703 drives the rotating rod 701 to continuously rotate the cam 702. The protrusion of the cam 702 intermittently lifts the placement plate 501, and with the restoring force of the tension spring 406, the placement plate 501 reciprocates vertically along the rectangular groove 405 via the rectangular insert rod 502, causing the material to undergo high-frequency vertical shaking and dispersion. In the second transmission path, the main rotating shaft 302 synchronously drives the first transmission gear 304 to rotate. Through the reversing transmission of the second transmission gear 305, the driven gear 505 drives the rotating shaft 504 to rotate, causing the stirring rack 506 and the dehydration tank 401 to rotate in completely opposite directions. This creates a reverse shearing and forced dispersion effect on the material during the tumbling and shaking process, ensuring the material remains completely loose and preventing clumping and accumulation.

[0030] While the material is moving in multiple dimensions, the ultrasonic generator 400 fixed at the bottom of the dehydration tank 401 continuously emits high-frequency ultrasonic waves into the tank. The ultrasonic waves form an alternating compression and sparsity pressure field in the mixture of material and water, generating a strong ultrasonic cavitation effect. The local high temperature and pressure, high-speed micro-jet and shock wave generated at the moment of cavitation bubble collapse can forcibly destroy the binding force between water molecules and material, so that the adsorbed water and bound water inside the material can quickly leave the material pores, achieving efficient deep dehydration. The dehydrated liquid water is quickly collected through the drainage groove 503 on the shelf 501 and discharged from the liquid outlet pipe at the bottom of the dehydration tank 401.

[0031] The liquid water discharged after dehydration is collected through the water inlet head 204 and introduced into the water storage tank 202 on the inner wall of the protective cover 201 through the water inlet pipe 203. The room temperature water continuously absorbs the heat generated by the operation of the motor 301, realizing water cooling of the drive source. The air convection in the heat dissipation hole 205 further enhances the heat dissipation effect. At the same time, the protective cover 201 provides a sealed protection for the transmission mechanism 3, isolating it from external impurities.

[0032] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. An ultrasonic cavitation rapid dehydration device, comprising a support base (1), characterized in that: It also includes a protective component (2), a transmission mechanism (3), a separation mechanism (4) with an ultrasonic dehydration structure, a stirring mechanism (5), a support mechanism (6), and an adjustment mechanism (7). The transmission mechanism (3) cooperates with the separation mechanism (4) and the stirring mechanism (5) to make the stirring structure rotate with the material in the opposite direction of rotation. At the same time, the support mechanism (6) and the adjustment mechanism (7) cooperate to make the material move vertically back and forth, thereby shaking the material. The protective component (2) cooperates with the separation mechanism (4) to use the separated liquid water to cool the driving source of the transmission mechanism (3) and protect the transmission mechanism (3).

2. The ultrasonic cavitation rapid dehydration device according to claim 1, characterized in that: The separation mechanism (4) includes a dehydration tank (401), a fixed shaft (402) and a cylinder (404) fixedly installed on the inner and outer walls of the dehydration tank (401), and an ultrasonic generator (400) fixedly installed at the bottom of the dehydration tank (401).

3. The ultrasonic cavitation rapid dehydration device according to claim 2, characterized in that: The separation mechanism (4) further includes a driven gear (403) fixedly sleeved on the outer wall of the fixed shaft (402). The transmission mechanism (3) includes a main shaft (302) and a synchronous shaft (306) for transmitting the driven gear (403) and both of which are fixedly sleeved on the outer wall of the synchronous wheel. A rectangular groove (405) is provided inside the cylinder (404). A tension spring (406) is fixedly installed at the bottom of the rectangular groove (405). The stirring mechanism (5) includes a placement plate (501). A rectangular insert rod (502) that slides into the rectangular groove (405) is fixedly installed at the bottom of the placement plate (501). A drainage groove (503) is provided at the top. A synchronous belt (307) is sleeved on the outer wall of the two synchronous wheels. A transmission gear (308) that meshes with the driven gear (403) is fixedly sleeved on the outer wall of the synchronous shaft (306).

4. The ultrasonic cavitation rapid dehydration device according to claim 3, characterized in that: The mixing mechanism (5) further includes a mixing frame (506) for mixing materials and a rotating shaft (504) and a driven gear two (505) for transmission. The mixing frame (506) and the driven gear two (505) are both fixedly sleeved on the outer wall of the rotating shaft (504). The rotating shaft (504) is rotatably connected to the placement plate (501). The transmission mechanism (3) further includes a transmission gear one (304) and a transmission gear two (305) for transmitting the driven gear two (505). The transmission gear two (305) meshes with the transmission gear one (304) and the driven gear two (505).

5. The ultrasonic cavitation rapid dehydration device according to claim 4, characterized in that: The transmission mechanism (3) also includes a motor (301) and a fixed frame (303) fixedly installed on the top of the support base (1), and a transmission rod rotatably connected to the fixed frame (303). The main rotating shaft (302) and the transmission rod are fixedly connected to the transmission gear (305) and the synchronous shaft (306) respectively. The main rotating shaft (302) is fixedly connected to the output end of the motor (301).

6. The ultrasonic cavitation rapid dehydration device according to claim 3, characterized in that: The adjustment mechanism (7) includes a rotating rod (701) that is rotatably connected to the dehydration tank (401) and has a cam (702) and a driven bevel gear (703) fixedly installed at both ends, and the cam (702) abuts against the bottom of the shelf (501).

7. The ultrasonic cavitation rapid dehydration device according to claim 6, characterized in that: The support mechanism (6) includes a reinforcing collar (601) rotatably sleeved on the outer wall of the dehydration tank (401) and two reinforcing brackets (602) fixedly installed on the outer wall of the reinforcing collar (601). A protective shell (603) is fixedly installed at the bottom of the reinforcing collar (601), and a transmission bevel gear (604) meshing with the driven bevel gear (703) is fixedly installed at the bottom of the protective shell (603).

8. The ultrasonic cavitation rapid dehydration device according to claim 5, characterized in that: The protective component (2) includes a protective cover (201) for protecting the stirring mechanism (5) and a water inlet pipe (203) fixedly installed on the top of the protective cover (201). One end of the water inlet pipe (203) is fixedly installed with a water inlet head (204) for water inlet. The water inlet head (204) is directly facing the liquid outlet pipe at the bottom of the dehydration tank (401). The inner wall of the protective cover (201) is provided with a water storage tank (202) communicating with the water inlet pipe (203), and the top is provided with a heat dissipation hole (205) for heat dissipation. The outer wall of the protective cover (201) is connected with a water outlet pipe, and one end of the water outlet pipe is connected to an external water pump.

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