Energy-saving circulating water treatment device based on online monitoring

Abstract

The application relates to the technical field of circulating water treatment equipment, in particular to an energy-saving circulating water treatment device based on online monitoring, which comprises a circulating water treatment tank, a driving mechanism arranged on the circulating water treatment tank and a stirring structure, the stirring structure comprises a round shaft connected with the driving mechanism, a connecting shell arranged on the outer surface of the round shaft and a scraper, and a detection mechanism connected with the scraper is arranged on the connecting shell; the detection mechanism comprises a telescopic electric cylinder, a guide frame and a telescopic shaft, wherein one end of the telescopic shaft is fixed with the outer wall of the scraper. The energy-saving circulating water treatment device based on online monitoring can not only rotate and scrape in the circumferential direction along with the round shaft, but also can radially stretch and shrink under the driving of the electric cylinder, so that the root cause of the defects that the gap between the traditional fixed scraper and the tank wall increases and the scale scraping effect decreases after the traditional fixed scraper is abraded is solved, the scraper can always be in the best pressure adhesion with the inner wall, the scraping effect is ensured to be long-term stable, and meanwhile, the telescopic action itself is helpful for peeling off thick scale layers.

Description

Technical Field

[0001] This application relates to the field of circulating water treatment equipment technology, and in particular to an energy-saving circulating water treatment device based on online monitoring. Background Technology

[0002] The main tasks of circulating water treatment involve two aspects: corrosion and scale inhibition, and sterilization and algae removal. Initially, the water quality of circulating water was controlled by manually adding various corrosion and scale inhibitors and bactericides and algaecides, as well as by manual wastewater discharge. However, with the continuous use of dosing equipment, the following problem has been discovered in actual use: after prolonged use, a large amount of scale builds up on the inner wall of the dosing tank, which is difficult to remove with ordinary flushing.

[0003] A search revealed that the new circulating water treatment chemical dosing equipment, with announcement number CN213865607U, includes a chemical tank. A partition is fixedly installed on the inner wall of the tank. A motor is installed inside the tank, below the partition, and a mounting bracket is fixed to the outer wall of the motor on the inner wall of the tank. This dosing equipment structure, through a tank cleaning mechanism, addresses the issue of scale buildup on the inner wall of the tank after prolonged use. The scale is pushed into a scale discharge tank by the combined action of two scrapers, and then conveyed to the outside of the tank by a spiral shaft, facilitating cleaning and collection by staff.

[0004] However, the above solutions have drawbacks: insufficient scraping efficiency, unadjustable contact pressure between the scraper and the inner wall of the medicine tank, increased gap after long-term wear leading to decreased scraping effect, and limited ability to clean different types of scale layers due to the scraper's unidirectional rotation relying solely on the motor. Furthermore, it cannot clean scale layers of varying thicknesses accordingly, resulting in unsatisfactory scraping effect and efficiency. Therefore, an energy-saving circulating water treatment device based on online monitoring is proposed to address the aforementioned problems. Summary of the Invention

[0005] In order to improve the effect of circulating water treatment, this application provides an energy-saving circulating water treatment device based on online monitoring, which has the advantages of adaptive fitting, efficient scale removal and high flexibility, and solves the problems mentioned above.

[0006] This application provides an energy-saving circulating water treatment device based on online monitoring, which adopts the following technical solution:

[0007] An energy-saving circulating water treatment device based on online monitoring includes a circulating water treatment tank, a drive mechanism and a stirring structure disposed on the circulating water treatment tank. The stirring structure includes a round shaft connected to the drive mechanism, a connecting shell disposed on the outer surface of the round shaft and a scraper. A detection mechanism connected to the scraper is disposed on the connecting shell.

[0008] The detection mechanism includes a telescopic electric cylinder, a guide frame, and a telescopic shaft. One end of the telescopic shaft is fixed to the outer wall of the scraper, and the other end is rotatably mounted with a guide wheel that rolls with the guide frame. A guide groove is provided inside the guide frame, and a pressure module is installed between the connecting shell and the scraper.

[0009] The scraper is internally equipped with a striking component that works in conjunction with the detection mechanism, and the top side of the circulating water treatment tank is equipped with a guide component that works in conjunction with the detection mechanism and drives the striking component. The striking component includes a first abutment, a guide plate, a swing frame, and a striking block. The swing frame is hinged to the inside of the scraper, and a guide shaft is rotatably mounted on one side of the swing frame. The swing frame has a wave-shaped guide groove inside that rolls with the guide shaft. The bottom side of the first abutment is connected and fixed to the guide plate, and its top side abuts against the guide component to drive the guide plate to reciprocate, thereby realizing the back-and-forth swing of the swing frame.

[0010] Optionally: the bottom end of the circular shaft extends to the outside of the circulating water treatment tank and is connected to the drive mechanism; the interior of the connecting shell and the scraper are both hollow, and the connecting shell is fixed to the outer surface of the circular shaft.

[0011] Optionally: The telescopic electric cylinder is fixed inside the connecting shell, one end of the telescopic shaft extends to the outside of the connecting shell, the guide groove is inclined, and the telescopic electric cylinder drives the guide frame to extend and retract, thereby realizing the reciprocating adjustment of the telescopic shaft.

[0012] Optionally: The first abutting member consists of a ball, a telescopic rod and a return spring, wherein the telescopic rod includes a telescopic sleeve and a screw, and the telescopic sleeve and the screw are threaded together, and the two ends of the telescopic sleeve and the screw are respectively connected to the ball and the guide plate.

[0013] Optionally: The striking block is bolted to one side of the swing frame, and the number of swing frames, striking blocks and guide shafts in the striking assembly are multiple, and the multiple swing frames are distributed in a straight line at equal intervals inside the scraper.

[0014] Optionally: The guide assembly includes a toothed ring and a guide seat fixed to the bottom side of the toothed ring. The bottom side of the guide seat is provided with a horizontal guide surface and a wavy guide surface. The ball bearing in the first abutment member rolls and engages with the horizontal guide surface and the wavy guide surface respectively through the drive of the detection mechanism.

[0015] Optionally: A pressurizing mechanism is provided on the connecting shell and the circular shaft, and the pressurizing mechanism consists of a pressurizing component and a nozzle. The pressurizing component includes a pressurizing element and a guide cam provided on the connecting shell, and a gear that meshes with a gear ring is fixed on the top side of the guide cam.

[0016] Optionally: The pressurizing component is provided with a pressurizing cylinder and a second abutting component, wherein the second abutting component has the same structure as the first abutting component, and the top side of the second abutting component abuts against the bottom side of the guide cam.

[0017] Optionally: The side of the guide cam that abuts against the second abutment is provided with an inclined surface of different heights on the left and right sides, wherein the second abutment is connected to the piston inside the booster cylinder, and the second abutment drives the piston inside the booster cylinder to reciprocate up and down through the inclined surface of the guide cam.

[0018] Optionally: Two valve pipes are installed on the outer wall of the booster cylinder, and one of the valve pipes is connected to the nozzle, and the nozzle is fixed to the outer surface of the cylindrical shaft.

[0019] In summary, this application includes at least one of the following beneficial technical effects:

[0020] 1. In this invention, the scraper can not only perform circumferential scraping by rotating with the circular shaft, but also extend and retract radially under the drive of the electric cylinder. This solves the fundamental defect that the gap between the scraper and the tank wall increases and the scraping effect decreases after the traditional fixed scraper wears down. This allows the scraper to always adhere to the inner wall with the best pressure, ensuring that the scraping effect is stable in the long term. At the same time, the extension and retraction action itself helps to peel off thicker scale layers.

[0021] 2. The present invention, through the inclined design of the guide groove, enables the scraper to perform radial extension and retraction movement to knock and vibrate. The high-frequency, low-amplitude vibration can effectively loosen the crystalline scale or biological slime that is tightly bound to the substrate, greatly improving the thoroughness of cleaning.

[0022] 3. In this invention, during the extension and retraction of the scraper, the pressure module can detect the pressure change between the connecting shell and the scraper, thereby enabling the monitoring of scale thickness during the circulating water treatment process. This facilitates timely understanding of the scale condition inside the tank and provides a basis for subsequent maintenance and treatment.

[0023] 4. In the process of scraper extension and retraction, the first abutting member and the guide seat abut against each other to knock the scraper, prevent impurities from adhering to the scraper, and further enhance the cleaning of the inner wall of the tank in conjunction with the scraper, thereby improving the cleaning effect and operating efficiency of the entire circulating water treatment tank. Attached Figure Description

[0024] Figure 1 This is a three-dimensional structural view of this application;

[0025] Figure 2 This is a quarter-section view of the structure of this application;

[0026] Figure 3 This is a schematic diagram of the structure of this application;

[0027] Figure 4 This is a three-dimensional view of part of the structure of this application;

[0028] Figure 5 This is a schematic cross-sectional view of the connecting shell in this application;

[0029] Figure 6 This is a cross-sectional view of the testing organization in this application;

[0030] Figure 7 This application Figure 6 A magnified structural diagram of structure A is shown below;

[0031] Figure 8 This is a bottom view of the structure of the guide seat in this application.

[0032] Explanation of reference numerals in the attached figures:

[0033] 1. Circulating water treatment tank; 2. Drive mechanism; 3. Stirring structure; 31. Round shaft; 32. Connecting shell; 33. Scraper; 4. Detection mechanism; 41. Telescopic electric cylinder; 42. Guide frame; 43. Telescopic shaft; 44. Guide wheel; 45. Guide groove one; 46. Pressure module; 5. Impact assembly; 51. First abutment; 52. Guide plate; 53. Guide groove two; 54. Swing frame; 55. Impact block; 56. Guide shaft; 6. Guide assembly; 61. Gear ring; 62. Guide seat; 621. Horizontal guide surface; 622. Wave guide surface; 7. Pressurization assembly; 71. Pressurization component; 711. Pressurization cylinder; 712. Second abutment; 713. Valve pipe; 72. Guide cam; 73. Gear; 8. Nozzle. Detailed Implementation

[0034] The following is in conjunction with the appendix Figures 1-8 This application will be described in further detail.

[0035] This application discloses an energy-saving circulating water treatment device based on online monitoring. Please refer to... Figures 1-8 An energy-saving circulating water treatment device based on online monitoring includes a circulating water treatment tank 1, a drive mechanism 2 mounted on the circulating water treatment tank 1, and a stirring structure 3. The stirring structure 3 includes a circular shaft 31 connected to the drive mechanism 2, a connecting shell 32 disposed on the outer surface of the circular shaft 31, and a scraper 33. The bottom end of the circular shaft 31 extends to the outside of the circulating water treatment tank 1 and connects to the drive mechanism 2. The connecting shell 32 and the scraper 33 are both hollow, and the connecting shell 32 is fixed to the outer surface of the circular shaft 31. It should be noted that an inlet pipe and a circulating drain pipe are respectively installed on the outer wall of the circulating water treatment tank 1. During use, the scraper 33 can directly contact the inner wall of the circulating water treatment tank 1 as it rotates with the circular shaft 31, scraping away scale, impurities, etc., adhering to the tank wall, preventing these substances from accumulating on the tank wall and affecting the treatment effect and normal operation of the equipment.

[0036] To achieve online detection of the cleaning process, a detection mechanism 4 connected to the scraper 33 is provided on the connecting shell 32 in this embodiment. Specifically, the detection mechanism 4 includes a telescopic electric cylinder 41, a guide frame 42, and a telescopic shaft 43. One end of the telescopic shaft 43 is fixed to the outer wall of the scraper 33, and the other end is rotatably mounted with a guide wheel 44 that rolls with the guide frame 42. A guide groove 45 is provided inside the guide frame 42. A pressure module 46 is installed between the connecting shell 32 and the scraper 33. In this embodiment, the telescopic electric cylinder 41 is fixed inside the connecting shell 32. The connecting shell 32 can provide a certain degree of protection for the telescopic electric cylinder 41, preventing it from being directly impacted or corroded by the circulating water and from being collided with other debris inside the tank, thus extending the service life of the telescopic electric cylinder 41 and reducing the equipment failure rate. One end of the telescopic shaft 43 extends to the outside of the connecting shell 32, which can efficiently transmit its reciprocating motion to the scraper 33, causing the scraper 33 to produce corresponding telescopic or reciprocating striking actions, thereby enhancing the cleaning effect on the inner wall of the circulating water treatment tank 1.

[0037] It should be noted that the guide groove 45 is inclined and the guide frame 42 is extended and retracted by the telescopic electric cylinder 41, thereby realizing the reciprocating adjustment of the telescopic shaft 43. In addition, by precisely controlling the extension and retraction stroke and speed of the telescopic electric cylinder 41, the reciprocating adjustment amplitude and frequency of the telescopic shaft 43 can be precisely controlled, thereby precisely controlling the movement state of the scraper 33 and meeting the requirements of the scraper 33 under different cleaning conditions. Furthermore, since the detection mechanism 4 is located in a circulating water treatment environment, it is susceptible to water erosion and chemical corrosion. Therefore, the detection mechanism 4 needs to take waterproof and corrosion-resistant measures, such as sealing the telescopic electric cylinder 41, guide frame 42, telescopic shaft 43, pressure module 46, and other components, and using corrosion-resistant materials to manufacture key components, to ensure that the detection mechanism 4 can work stably for a long time in harsh environments.

[0038] Furthermore, the pressure module 46 can detect pressure changes between the connecting shell 32 and the scraper 33 in real time. During the cleaning process, the pressure changes when the scraper 33 comes into contact with and interacts with scale or impurities on the inner wall of the tank. By monitoring these pressure changes, the adhesion of scale or impurities on the inner wall of the tank and the cleaning effect can be indirectly understood, providing key data for online detection. Moreover, the pressure data detected by the pressure module 46 can be fed back to the control system, which adjusts the motion parameters of the telescopic electric cylinder 41, such as telescopic speed and stroke, based on this data, thereby achieving intelligent control of the cleaning process and improving cleaning efficiency and quality.

[0039] For example, when pressure data indicates that the scale on the inner wall of the tank is thick and the cleaning resistance is high, the control system can increase the extension stroke of the telescopic electric cylinder 41 or increase the extension speed to enhance the cleaning force of the scraper 33; conversely, when the cleaning resistance is low, the movement range of the telescopic electric cylinder 41 can be appropriately reduced to achieve energy saving and precise cleaning.

[0040] To further improve cleaning, in this embodiment, the scraper 33 is internally equipped with a striking component 5 that works in conjunction with the detection mechanism 4, and the top side of the circulating water treatment tank 1 is equipped with a guide component 6 that works in conjunction with the detection mechanism 4 and is used to drive the striking component 5. It should be noted that the scraper 33 can provide a certain degree of protection for the striking component 5, preventing it from directly contacting the circulating water and impurities and chemicals in the water, reducing corrosion and wear, extending the service life of the striking component 5, and reducing the equipment failure rate.

[0041] The striking component 5 in this embodiment includes a first abutment 51, a guide plate 52, a swing frame 54, and a striking block 55. The swing frame 54 is hinged inside the scraper 33, and a guide shaft 56 is rotatably mounted on one side of the swing frame 54. The swing frame 54 has a wave-shaped guide groove 53 that rolls with the guide shaft 56. The bottom side of the first abutment 51 is connected and fixed to the guide plate 52, and its top side abuts with the guide component 6 to drive the guide plate 52 to reciprocate, thereby realizing the back-and-forth swing of the swing frame 54. The back-and-forth swing of the swing frame 54 drives the striking block 55 to perform a reciprocating striking action. The striking block 55 can strike the inner wall of the circulating water treatment tank 1, causing the scale and impurities attached to the tank wall to vibrate and fall off, further enhancing the cleaning effect. Especially for some stubborn scale, the striking action can remove it more effectively.

[0042] It should be noted that the first abutment 51 consists of a ball bearing, a telescopic rod, and a return spring. The telescopic rod includes a telescopic sleeve and a screw, with the telescopic sleeve and screw threaded together. The two ends of the telescopic sleeve and screw are respectively connected to the ball bearing and the guide plate 52. In this embodiment, the striking block 55 is bolted to one side of the swing frame 54, and the return spring surrounds and is fixed to the outer surface of the telescopic sleeve, with its bottom side fixed to the top side of the scraper 33. The length of the telescopic rod can be adjusted by rotating the screw, thereby changing the overall height and elastic characteristics of the first abutment 51. This adjustability allows the first abutment 51 to adapt to changes in the position and pressure of the guide assembly 6 under different working conditions, ensuring the normal driving of the striking assembly 5.

[0043] Specifically, the number of swing frames 54, striking blocks 55 and guide shafts 56 in the striking assembly 5 are multiple, and the multiple swing frames 54 are distributed in a straight line at equal intervals inside the scraper 33; the multiple striking blocks 55 can strike different positions on the tank wall at the same time, expanding the cleaning range, improving cleaning efficiency, and covering a larger tank wall area in one cleaning process.

[0044] It should be noted that the shape of the striking block 55 can be changed and adjusted according to needs. Different shapes of striking blocks 55 will produce different effects when striking the tank wall. For example, a round striking block 55 can make the striking force more evenly distributed on the tank wall and reduce local stress concentration. A special-shaped striking block 55 may be more suitable for removing scale or impurities of a specific shape. While the scraper 33 rotates and scrapes the tank wall, the striking component 5 strikes, making the scale easier to fall off under the dual action of scraping and striking, improving cleaning efficiency and quality. At the same time, the vibration signal generated by the striking component 5 during the striking process can be received and analyzed by the detection mechanism 4. Combined with data such as pressure, the cleaning effect can be evaluated more comprehensively.

[0045] To drive the striking component 5, the guide component 6 includes a toothed ring 61 and a guide seat 62 fixed to the bottom side of the toothed ring 61. The bottom side of the guide seat 62 is provided with a horizontal guide surface 621 and a wave guide surface 622. The ball bearings in the first abutting member 51 roll and cooperate with the horizontal guide surface 621 and the wave guide surface 622 respectively through the drive of the detection mechanism 4.

[0046] In this embodiment, a pressurizing mechanism is provided on the connecting shell 32 and the round shaft 31. The pressurizing mechanism consists of a pressurizing component 7 and a nozzle 8. The pressurizing component 7 includes a pressurizing element 71 and a guide cam 72 provided on the connecting shell 32. A gear 73 that meshes with a gear ring 61 is fixed on the top side of the guide cam 72. Specifically, a pressurizing cylinder 711 and a second abutting element 712 are provided on the pressurizing element 71. The second abutting element 712 has the same structure as the first abutting element 51, and the top side of the second abutting element 712 abuts against the bottom side of the guide cam 72.

[0047] It should be noted that the side of the guide cam 72 that abuts against the second abutment 712 is provided with inclined surfaces of different heights on the left and right. The second abutment 712 is connected to the piston inside the booster cylinder 711, and the second abutment 712 drives the piston inside the booster cylinder 711 to reciprocate up and down through the inclined surfaces of the guide cam 72. When the guide cam 72 rotates, its inclined surfaces push the second abutment 712 to move up and down, converting the rotational motion of the guide cam 72 into the linear reciprocating motion of the second abutment 712, thus providing power for the piston movement inside the booster cylinder 711.

[0048] Specifically, two valve pipes 713 are installed on the outer wall of the booster cylinder 711, and one of the valve pipes 713 is connected to the spray pipe 8. The spray pipe 8 is fixed to the outer surface of the round shaft 31, so that the spray pipe 8 can spray and clean the inner wall of the circulating water treatment tank 1 in all directions, expanding the cleaning range, avoiding the occurrence of cleaning dead corners, and improving the comprehensiveness and uniformity of cleaning.

[0049] Combined with appendix Figures 1-8The working principle of the above embodiments is as follows:

[0050] First, the drive mechanism 2 drives the circular shaft 31 to rotate, which in turn causes the stirring structure 3 connected to the circular shaft 31 to rotate as a whole. The connecting shell 32 and the scraper 33 rotate with the circular shaft 31 to stir the water in the circulating water treatment tank 1. The telescopic electric cylinder 41 drives the guide frame 42 to extend and retract. Since the guide groove 45 is inclined, when the guide frame 42 extends and retracts, the guide wheel 44 rolls in the guide groove 45, which drives the telescopic shaft 43 to reciprocate and adjust, thereby causing the scraper 33 to produce telescopic movement. At the same time, the reciprocating adjustment of the telescopic shaft 43 can drive the scraper 33 to reciprocate and knock, thereby shaking off impurities on the inner wall of the tank. In addition, the pressure module 46 can detect the pressure change between the connecting shell 32 and the scraper 33, thereby realizing the control of scale thickness during the circulating water treatment process.

[0051] Furthermore, during the rotation of the stirring structure 3, the extension and retraction of the telescopic electric cylinder 41 allows the scraper 33 to move, thereby causing the ball bearings on the top side of the first abutment 51 to roll and engage with the horizontal guide surface 621 and the wave guide surface 622 in the guide assembly 6. When the ball bearings roll from the horizontal guide surface 621 to the wave guide surface 622, the first abutment 51 is squeezed, causing the guide plate 52 to reciprocate. The movement of the guide plate 52 causes the guide shaft 56 to roll in the wave-shaped guide groove 53 inside the swing frame 54, thereby driving the swing frame 54 to swing back and forth. The swing frame 54 drives the striking block 55 to swing, thereby striking the scraper 33, preventing impurities from adhering to the scraper 33, and also further enhancing the cleaning of the inner wall of the tank in conjunction with the scraper 33.

[0052] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. An energy-saving circulating water treatment device based on online monitoring, comprising a circulating water treatment tank (1), a drive mechanism (2) disposed on the circulating water treatment tank (1), and a stirring structure (3), characterized in that: The stirring structure (3) includes a round shaft (31) connected to the driving mechanism (2), a connecting shell (32) disposed on the outer surface of the round shaft (31) and a scraper (33). The connecting shell (32) is provided with a detection mechanism (4) connected to the scraper (33). The detection mechanism (4) includes a telescopic electric cylinder (41), a guide frame (42) and a telescopic shaft (43). One end of the telescopic shaft (43) is fixed to the outer wall of the scraper (33), and the other end is rotatably mounted with a guide wheel (44) that rolls with the guide frame (42). A guide groove (45) is provided inside the guide frame (42). A pressure module (46) is installed between the connecting shell (32) and the scraper (33). The scraper (33) is provided with a striking component (5) for use with the detection mechanism (4), and the top side of the circulating water treatment tank (1) is provided with a guide component (6) for use with the detection mechanism (4) and for driving the striking component (5); the striking component (5) includes a first abutment (51), a guide plate (52), a swing frame (54) and a striking block (55), wherein the swing frame (54) is hinged to the inside of the scraper (33), and a guide shaft (56) is rotatably installed on one side of the swing frame (54). The swing frame (54) has a guide groove (53) with a wave-shaped shape that rolls with the guide shaft (56) inside. The bottom side of the first abutment (51) is connected and fixed to the guide plate (52), and its top side abuts and cooperates with the guide component (6) to drive the guide plate (52) to reciprocate, thereby realizing the swing of the swing frame (54) back and forth; The telescopic electric cylinder (41) is fixed inside the connecting shell (32), one end of the telescopic shaft (43) extends to the outside of the connecting shell (32), the guide groove (45) is set in an inclined shape, and the telescopic electric cylinder (41) drives the guide frame (42) to extend and retract, thereby realizing the reciprocating adjustment of the telescopic shaft (43); The first abutting member (51) is composed of a ball, a telescopic rod and a return spring. The telescopic rod includes a telescopic sleeve and a screw, and the telescopic sleeve and the screw are threaded together. The two ends of the telescopic sleeve and the screw are respectively connected to the ball and the guide plate (52). The striking block (55) is bolted to one side of the swing frame (54). The number of swing frames (54), striking blocks (55) and guide shafts (56) in the striking assembly (5) are multiple, and the multiple swing frames (54) are distributed in a straight line at equal intervals inside the scraper (33). The guide assembly (6) includes a toothed ring (61) and a guide seat (62) fixed to the bottom side of the toothed ring (61). The bottom side of the guide seat (62) is provided with a horizontal guide surface (621) and a wave guide surface (622). The ball bearing in the first abutment member (51) rolls with the horizontal guide surface (621) and the wave guide surface (622) respectively by the drive of the detection mechanism (4).

2. The energy-saving circulating water treatment device based on online monitoring according to claim 1, characterized in that: The bottom end of the circular shaft (31) extends to the outside of the circulating water treatment tank (1) and is connected to the drive mechanism (2). The interior of the connecting shell (32) and the scraper (33) are both hollow, and the connecting shell (32) is fixed to the outer surface of the circular shaft (31).

3. The energy-saving circulating water treatment device based on online monitoring according to claim 1, characterized in that: A pressurizing mechanism is provided on the connecting shell (32) and the round shaft (31), and the pressurizing mechanism consists of a pressurizing component (7) and a nozzle (8). The pressurizing component (7) includes a pressurizing element (71) and a guide cam (72) provided on the connecting shell (32). A gear (73) that meshes with a gear ring (61) is fixed on the top side of the guide cam (72).

4. The energy-saving circulating water treatment device based on online monitoring according to claim 3, characterized in that: The pressurizing component (71) is provided with a pressurizing cylinder (711) and a second abutting component (712), wherein the second abutting component (712) has the same structure as the first abutting component (51), and the top side of the second abutting component (712) abuts against the bottom side of the guide cam (72).

5. The energy-saving circulating water treatment device based on online monitoring according to claim 4, characterized in that: The guide cam (72) has a slope of different heights on the side that abuts against the second abutment (712). The second abutment (712) is connected to the piston inside the booster cylinder (711), and the second abutment (712) drives the piston inside the booster cylinder (711) to reciprocate up and down through the slope of the guide cam (72).

6. The energy-saving circulating water treatment device based on online monitoring according to claim 5, characterized in that: Two valve pipes (713) are installed on the outer wall of the booster cylinder (711), and one of the valve pipes (713) is connected to the nozzle (8). The nozzle (8) is fixed to the outer surface of the round shaft (31).

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