Energy-saving and environment-friendly descaling and decontamination water treatment intelligent equipment

Abstract

This application relates to the field of water treatment equipment technology, specifically an energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal. It includes a treatment module composed of a reaction separation device, a mixing device, a filtration device, a sludge treatment device, and pipelines. The mixing device includes a mixing tank, a stirring rod, and a drive assembly. The drive assembly consists of a drive motor and transmission gears. The mixing tank is equipped with a stabilizing mechanism, a pressurizing component, and a cooling ring. A liquid delivery pipe is installed between the pressurizing component and the cooling ring. The stabilizing mechanism includes a telescopic electric cylinder and a stabilizing component. The telescopic electric cylinder drives the stabilizing component. This energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal automatically clamps the stirring rod when high-speed stirring is required, utilizing the ball bearings on the bonding block to provide radial support, significantly reducing the swing amplitude of the stirring rod and improving stirring accuracy and equipment lifespan.

Description

Technical Field

[0001] This application relates to the field of water treatment equipment technology, and in particular to an energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal. Background Technology

[0002] In industrial production, daily life, and small-scale processing scenarios, the discharge and reuse of scale- and rust-containing water bodies are becoming increasingly prominent issues. Scale and rust residues such as calcium carbonate and iron oxide, as well as small amounts of organic matter and heavy metal ions, contained in industrial circulating water, domestic sewage, and small-scale industrial wastewater not only waste water resources but also corrode and clog pipes and equipment, reduce equipment operating efficiency, and increase maintenance costs. Furthermore, the discharge of untreated scale- and rust-containing water bodies pollutes the ecological environment, which is inconsistent with the current trend of energy-saving and environmentally friendly industrial development and environmental regulations.

[0003] Currently, existing descaling and rust removal water treatment equipment is mainly divided into two categories: chemical treatment and physical treatment. However, regardless of whether it is a chemical method, a physical method, or a combination of both, a common engineering challenge exists at the equipment level: the operational stability of the mixing equipment. Specifically, in order to efficiently complete the mixing reaction of water and chemical agents in the mixing tank, it is usually necessary to use an agitator to stir the medium in the tank at high speed. Because the mixing tank is usually quite tall and the agitator extends for a long distance, centrifugal force during high-speed rotation causes the agitator to produce violent radial oscillation. This oscillation not only causes accelerated wear of the shaft seal and reduced sealing performance, but also leads to uneven stress on the impeller blades and fatigue fracture of the agitator shaft, seriously affecting the operational reliability and service life of the equipment.

[0004] While existing technologies have attempted to reduce the shaking of mixing devices by adding shock-absorbing sealing plates, these methods are complex in structure and have limited effectiveness, failing to address the root cause of the high-speed stirring rod's stability problem. Furthermore, under high-speed stirring conditions, the continuous friction between the stirring rod and the seals generates a significant amount of heat. If this heat cannot be dissipated in time, it will cause premature failure of the mechanical seal, further exacerbating equipment malfunctions.

[0005] The existing technologies mentioned above suffer from insufficient operational stability, resulting in low descaling and rust removal efficiency and short equipment lifespan. Therefore, providing an energy-saving and environmentally friendly intelligent descaling and rust removal water treatment device that can effectively suppress radial oscillation of the stirring rod during high-speed stirring and simultaneously cool the friction area, thereby significantly improving the equipment's operational stability, lifespan, and treatment efficiency, has become an urgent technical problem to be solved in this field. Summary of the Invention

[0006] To address the shortcomings of existing technologies, and in order to effectively suppress the radial oscillation of the stirring rod during high-speed stirring and simultaneously cool the friction area, thereby significantly improving the equipment's operational stability, service life, and processing efficiency, this application provides an energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal. This device has advantages such as effectively suppressing the radial oscillation of the stirring rod and simultaneously cooling the friction area, thus solving the aforementioned problems.

[0007] This application provides an energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal, which adopts the following technical solution:

[0008] An energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal includes a treatment module consisting of a reaction separation device, a mixing device, a filtration device, a sludge treatment device, and pipelines. The mixing device includes a mixing tank, a stirring rod, and a drive assembly, wherein the drive assembly consists of a drive motor and transmission gears.

[0009] The mixing tank is equipped with a stabilizing mechanism, a pressurizing component, and a cooling ring, wherein a liquid delivery pipe is installed between the pressurizing component and the cooling ring;

[0010] The stabilizing mechanism includes a telescopic electric cylinder and a stabilizing component. The telescopic electric cylinder is used to drive the stabilizing component, and a connecting rod connected to the stabilizing component is installed on its output end.

[0011] The stabilizing component includes a cover, a mounting base, a guide rod, a bonding block, and a second ball bearing. The bonding block and the second ball bearing are respectively installed at both ends of the guide rod. The guide rod passes through the interior of the mounting base. The interior of the cover is provided with a conical extrusion slope. The second ball bearing rolls in cooperation with the extrusion slope. A return spring is wound around the outer surface of the guide rod. The first ball bearing is rotatably installed on the side of the bonding block away from the guide rod.

[0012] Optional: The reaction separation equipment, mixing equipment, filtration equipment, and sludge treatment equipment are all connected by pipelines;

[0013] The top end of the stirring rod extends to the top side of the mixing tank and penetrates the inside of the cover. A sealing cover is installed on the top flange of the mixing tank. A mounting bracket is installed on the top bolt of the sealing cover. The cooling ring is embedded inside the sealing cover, and the bottom end of the stirring rod penetrates both the cooling ring and the inside of the sealing cover.

[0014] Optionally: the mounting base is bolted to the top side of the sealing cover, and the bonding block is adjusted by telescopic electric cylinder to achieve bonding with the outer surface of the stirring rod; the number of stabilizing components is three, and the three stabilizing components are distributed equidistantly in a ring around the top side of the stirring rod.

[0015] Optionally: The mounting frame is provided with a transmission assembly that is gap-connected to the transmission gear. The transmission assembly includes a transmission seat sleeved on the outer surface of the top end of the stirring rod, an abutment block slidably installed inside the transmission seat, a lifting seat splined on the outer surface of the top side of the transmission seat, and a linkage seat. A connecting arm is hinged between the lifting seat and the abutment block. The linkage seat is rotatably installed inside the mounting frame.

[0016] Optionally, a connecting rod 2 is also installed on the output end of the telescopic electric cylinder. The other end of the connecting rod 2 is fixed with a connecting sleeve sleeved on the outer surface of the lifting seat. By telescopically extending and retracting the telescopic electric cylinder, the connecting rod 2 drives the lifting seat to move downward, so that the connecting arm pushes the abutment block to abut against the inner side of the transmission gear, and then the rotation of the transmission gear drives the transmission seat and the linkage seat to rotate.

[0017] Optionally: The transmission seat has a guide groove inside, one side of the abutment block is slidably connected to the guide groove, and a return spring is installed between the inner wall of the guide groove and the outer wall of the abutment block.

[0018] Optionally: The linkage seat has a guide groove inside that works with the pressurizing component. The guide groove is wavy and circular in shape, and its two ends are connected. When the linkage seat rotates, it will drive the pressurizing component synchronously, which will work with the stabilizing mechanism to stabilize the stirring rod.

[0019] Optionally: the transmission seat has a convex shape and both it and the linkage seat are hollow inside; the abutment block has a T-shape and its cross-section is adapted to the inner side of the transmission gear.

[0020] Optionally, the pressurization assembly includes a pressurization cylinder with a hollow interior, a pressurization piston slidably disposed inside the pressurization cylinder, and a valve pipe fixed to the outer wall of the pressurization cylinder. The pressurization piston extends to the outside of the pressurization cylinder, and a guide rod is fixed to its top side. A roller that rolls with the guide groove is rotatably mounted at the end of the guide rod.

[0021] Optionally, the two ends of the infusion tube are fixedly connected to the outer wall of the cooling ring and the end of the valve tube, respectively, and the number of valve tubes is two.

[0022] In summary, this application includes at least one of the following beneficial technical effects:

[0023] 1. This invention uses a telescopic electric cylinder to drive a stabilizing component, which automatically clamps the stirring rod when high-speed stirring is required. The ball bearings on the bonding block provide radial support, which significantly reduces the swing amplitude of the stirring rod and improves the stirring accuracy and equipment life.

[0024] 2. In this invention, the mixing equipment uses the rotation of the stirring rod to fully mix the reagent with the scale- and rust-containing water. Combined with the efficient separation function of the reaction separation equipment, it can quickly remove impurities such as scale and rust from the water. The filtration equipment further purifies the water, ensuring that the treated water meets the standards and can be directly recycled, thus improving the utilization rate of water resources. It is suitable for the treatment of various water bodies such as industrial circulating water and domestic sewage.

[0025] 3. In this invention, the stabilizing mechanism limits the stirring rod in multiple directions through three ring-shaped stabilizing components. With the rolling cooperation of ball bearing one and ball bearing two, the friction and shaking during the rotation of the stirring rod are reduced, and the wear of the components is avoided.

[0026] 4. In this invention, the circulating cooling effect of the cooling ring can effectively reduce the working temperature of the mixing tank and stirring rod, preventing the equipment from aging due to high temperature; the setting of reset spring one and reset spring two ensures that each moving part can be flexibly reset, reducing the failure rate and extending the overall service life of the equipment. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the overall structure of this application;

[0028] Figure 2 This is a cross-sectional view of the mixing device of this application;

[0029] Figure 3 This is a schematic diagram of the structure of the driver component of this application;

[0030] Figure 4 This is a cross-sectional view of the stabilizing mechanism in this application;

[0031] Figure 5 This is a cross-sectional view of the stabilization component and transmission component of this application;

[0032] Figure 6 This application Figure 5 A magnified structural diagram of structure A is shown below;

[0033] Figure 7 This is a cross-sectional view of the supercharger assembly of this application.

[0034] Explanation of reference numerals in the attached figures:

[0035] 1. Processing module; 11. Reaction separation equipment; 12. Mixing equipment; 121. Mixing tank; 122. Stirring rod; 123. Drive assembly; 1231. Drive motor; 1232. Transmission gears; 124. Sealing cover; 125. Mounting bracket; 13. Filtration equipment; 14. Sludge treatment equipment; 15. Pipeline; 2. Stabilizing mechanism; 21. Telescopic electric cylinder; 22. Connecting rod one; 23. Connecting rod two; 231. Connecting sleeve; 24. Stabilizing assembly; 241. Cover; 242. Installation 1. Seat; 243. Guide rod; 244. Adhesive block; 245. Ball bearing 1; 246. Extrusion slope; 247. Return spring 1; 248. Ball bearing 2; 3. Transmission assembly; 31. Transmission seat; 32. Abutment block; 33. Lifting seat; 34. Guide groove; 35. Connecting arm; 36. Return spring 2; 37. Linkage seat; 38. Guide groove; 4. Pressurization assembly; 41. Pressurization cylinder; 42. Pressurization piston; 43. Valve pipe; 44. Guide rod; 45. Roller; 5. Cooling ring; 6. Infusion tube. Detailed Implementation

[0036] The following is in conjunction with the appendix Figures 1-7 This application will be described in further detail.

[0037] This application discloses an energy-saving and environmentally friendly intelligent water treatment device for descaling and rust removal, comprising a treatment module 1 consisting of a reaction separation device 11, a mixing device 12, a filtration device 13, a sludge treatment device 14, and several pipelines 15. Specifically, the reaction separation device 11, the mixing device 12, the filtration device 13, and the sludge treatment device 14 are all connected sequentially through pipelines 15 to form a complete water treatment production line. Specifically, the mixing device 12 uses the rotation of the stirring rod 122 to fully mix the reagent with the scale- and rust-containing water. Combined with the efficient separation function of the reaction separation device 11, it can quickly remove scale, rust, and other impurities from the water. The filtration device 13 further purifies the water, ensuring that the treated water meets the standards and can be directly recycled, thus improving the utilization rate of water resources. It is suitable for the treatment of various water bodies such as industrial circulating water and domestic sewage.

[0038] The mixing device 12 includes a mixing tank 121, a stirring rod 122 disposed inside the mixing tank 121, and a drive assembly 123 for driving the stirring rod 122 to rotate. The drive assembly 123 consists of a drive motor 1231 and a transmission gear 1232 mounted on the output shaft of the drive motor 1231. The transmission gear 1232 consists of two gears of different sizes, and the larger gear connected to the stirring rod 122 has a groove on its top side for engagement with subsequent transmission.

[0039] In this embodiment, a sealing cover 124 is mounted on the top of the mixing tank 121 via a flange, and a mounting bracket 125 is bolted to the top side of the sealing cover 124. The top end of the stirring rod 122 passes through the sealing cover 124 and the mounting bracket 125 sequentially, and extends above the mounting bracket 125. A drive motor 1231 is mounted on one side of the mounting bracket 125.

[0040] To ensure stable operation and long service life, the mixing tank 121 is also equipped with a stabilizing mechanism 2, a pressurizing component 4, and a cooling ring 5. The stabilizing mechanism 2 is installed on the top side of the sealing cover 124 to suppress the radial oscillation of the stirring rod 122 during high-speed stirring. The cooling ring 5 is embedded inside the sealing cover 124, with the stirring rod 122 passing through its central hole. The pressurizing component 4 is installed on the top side of the mounting bracket 125, and the pressurizing component 4 and the cooling ring 5 are connected via a liquid delivery pipe 6.

[0041] The stabilizing mechanism 2 includes a telescopic electric cylinder 21 and a stabilizing assembly 24. The telescopic electric cylinder 21 is fixed to the top side of the mounting bracket 125, and a connecting rod 22 and a connecting rod 23 are mounted on its output end. The connecting rod 22 is used to drive the stabilizing assembly 24. Specifically, the stabilizing assembly 24 includes a cover 241, a mounting base 242, a guide rod 243, a contact block 244, and a ball bearing 248. The mounting base 242 is fixed to the top side of the sealing cover 124 by bolts. The cover 241 is located above the mounting base 242, and its interior has a conical extrusion ramp 246. The guide rod 243 passes through the interior of the mounting base 242 and can slide radially. One end of the guide rod 243 is fixed with the contact block 244, and the other end is equipped with a ball bearing 248. The ball bearing 248 rolls in engagement with the extrusion ramp 246. A return spring 247 is fitted onto the outer surface of the guide rod 243. One end of the return spring 247 abuts against the mounting base 242, and the other end abuts against the mating block 244, providing a preload force for radial reset. Multiple ball bearings 245 are rotatably mounted on the side of the mating block 244 away from the guide rod 243. These ball bearings 245 are used for rolling contact with the outer surface of the stirring rod 122 to reduce friction. It should be noted that the infusion tube 6 penetrates the interior of the cover 241, and a sliding opening is provided inside the cover 241 for its own height adjustment.

[0042] Preferably, the number of stabilizing components 24 is three or more, and the three stabilizing components 24 are equidistantly distributed in a ring around the circumference of the stirring rod 122. The telescopic electric cylinder 21 drives the cover 241 through the connecting rod 22, which in turn directly drives all the guide rods 243, causing the bonding block 244 to move radially inward, thereby achieving selective bonding with the outer surface of the stirring rod 122. When stabilization is required, the telescopic electric cylinder 21 extends, the cover 241 presses down, and the pressing inclined surface 246 pushes the ball bearing 248 and the guide rods 243 to move centripetally. The ball bearing 245 on the bonding block 244 gently abuts against the stirring rod 122, providing radial support. When stabilization is not required, the telescopic electric cylinder 21 retracts, and the return spring 247 disengages the bonding block 244 from the stirring rod 122.

[0043] To assist in stabilizing the stirring rod 122 and synchronously drive the pressurization component 4 during high-speed stirring, this embodiment also includes a transmission component 3. The transmission component 3 is mounted on the mounting bracket 125 and is clearance-connected to the transmission gear 1232.

[0044] Specifically, the transmission assembly 3 includes a transmission seat 31, an abutment block 32, a lifting seat 33, and a linkage seat 37. It should be noted that the transmission seat 31 is convex in shape and is fitted onto the outer surface of the top end of the stirring rod 122. It is connected to the stirring rod 122 via a flat key or spline, allowing the transmission seat 31 to rotate synchronously with the stirring rod 122 while allowing axial relative sliding. A radially extending guide groove 34 is provided inside the transmission seat 31. The abutment block 32 is slidably installed within the guide groove 34. The abutment block 32 is T-shaped, and its transverse cross-section is adapted to the inner side of the transmission gear 1232 so that it can mesh with the inner side of the transmission gear 1232 when radially extended. A return spring 36 is installed between the inner wall of the guide groove 34 and the abutment block 32 to keep the abutment block 32 in a retracted state when not subjected to external force.

[0045] In this embodiment, the lifting seat 33 is splinedly mounted on the top outer surface of the transmission seat 31, meaning that the lifting seat 33 can rotate with the transmission seat 31 and slide up and down axially. The lifting seat 33 and the abutment block 32 are hinged together by a connecting arm 35. The two ends of the connecting arm 35 are respectively hinged to the bottom of the lifting seat 33 and the outer end of the abutment block 32, forming a simple linkage mechanism: when the lifting seat 33 moves down, the connecting arm 35 pushes the abutment block 32 to extend radially outward; when the lifting seat 33 moves up, the return spring 36 retracts the abutment block 32 and simultaneously drives the lifting seat 33 to return to its original position.

[0046] The linkage seat 37 is rotatably mounted inside the mounting bracket 125, located below the transmission seat 31, and is fixedly connected to or integrally formed with the transmission seat 31, allowing the linkage seat 37 to rotate synchronously with the transmission seat 31. The interior of the linkage seat 37 is hollow, through which the stirring rod 122 passes. A guide groove 38 is formed on the outer circumferential surface of the linkage seat 37. The guide groove 38 is wavy in shape and distributed in a ring, with its two ends connected to form a closed ring wave track. The guide groove 38 is used to cooperate with the roller 45 of the pressurizing component 4. When the linkage seat 37 rotates, the wavy guide groove 38 drives the piston of the pressurizing component 4 to reciprocate.

[0047] A connecting rod 23 is also installed on the output end of the telescopic electric cylinder 21. The other end of the connecting rod 23 is fixed with a connecting sleeve 231 that is sleeved on the outer surface of the lifting seat 33. By telescopically extending or retracting the telescopic electric cylinder 21, the connecting rod 23 drives the lifting seat 33 to move downward or upward along the axial direction. Specifically: when the telescopic electric cylinder 21 extends, the lifting seat 33 is pressed down, and the connecting arm 35 pushes the abutment block 32 to extend radially outward, so that the abutment block 32 meshes with the inner side of the transmission gear 1232. At this time, the rotational power of the transmission gear 1232 is transmitted to the transmission seat 31 through the abutment block 32, thereby driving the linkage seat 37 and the stirring rod 122 to rotate synchronously. At the same time, since the stabilizing mechanism 2 is also driven by the same telescopic electric cylinder 21, when the telescopic electric cylinder 21 extends, the contact block 244 will also hold the stirring rod 122 tightly. Conversely, when the telescopic electric cylinder 21 retracts, the abutment block 32 disengages from the transmission gear 1232, the contact block 244 also releases the stirring rod 122, and the stirring rod 122 returns to a free rotation state.

[0048] In this embodiment, the pressurization assembly 4 includes a pressurization cylinder 41, a pressurization piston 42, and valve pipes 43. The pressurization cylinder 41 is hollow and fixed to the side of the mounting bracket 125. The pressurization piston 42 is slidably disposed inside the pressurization cylinder 41, and the piston rod of the pressurization piston 42 extends to the outside of the pressurization cylinder 41. A guide rod 44 is fixed to the top side of the pressurization piston 42, and a roller 45 is rotatably mounted at the end of the guide rod 44. The roller 45 rolls into contact with the guide groove 38 on the linkage seat 37. Two valve pipes 43 are fixed on the outer wall of the pressurization cylinder 41. One valve pipe 43 serves as an inlet pipe, and the other serves as an outlet pipe. Both valve pipes are equipped with one-way valves (not shown in the figure) to ensure unidirectional liquid flow.

[0049] The cooling ring 5 is embedded inside the sealing cap 124 and surrounds the stirring rod 122. The cooling ring 5 has an annular cavity inside, and its outer wall has an inlet and an outlet. The two ends of the delivery pipe 6 are fixedly connected to the outer wall of the cooling ring 5 and the end of the valve pipe 43, respectively. Specifically, one delivery pipe 6 connects the outlet valve pipe 43 of the pressurizing component 4 to the inlet of the cooling ring 5, and the other delivery pipe 6 connects the outlet of the cooling ring 5 to the inlet valve pipe 43 of the pressurizing component 4, forming a closed coolant circulation loop. The cooling ring 5 is pre-filled with a heat-conducting medium such as deionized water or cooling oil.

[0050] When the linkage seat 37 rotates, the wavy contour of the guide groove 38 forces the roller 45 and guide rod 44 to reciprocate up and down, thereby driving the booster piston 42 to reciprocate within the booster cylinder 41. During the movement of the booster piston 42, the coolant is drawn from the cooling ring 5 and then forced back in, or forced into the cooling ring 5 from a reservoir, through the action of the one-way valve, achieving coolant circulation. This circulation effectively removes the heat generated by high-speed friction between the stirring rod 122 and the bonding block 244, while also cooling the sealing cover 124 area, extending the equipment's lifespan.

[0051] Combined with appendix Figures 1-7 The working principle of the above embodiments is as follows:

[0052] The working process of this equipment is divided into two modes: low-speed stirring and high-speed stirring, which are automatically switched by the controller.

[0053] In the low-speed normal operation stirring mode, the telescopic electric cylinder 21 is in the retracted state. At this time, in the stabilizing component 24, the contact block 244 is away from the stirring rod 122 under the action of the return spring 247, the ball 245 is not in contact with the stirring rod 122, and the stirring rod 122 rotates freely. In the transmission component 3, the abutment block 32 is in the retracted state under the action of the return spring 36 and is disengaged from the transmission gear 1232. The power of the drive motor 1231 cannot be transmitted to the transmission seat 31. The stirring rod 122 is driven by the drive motor 1231 and the transmission gear 1232. In this mode, the stirring rod 122 runs at a low speed and is mainly used for normal mixing. The stabilizing mechanism 2 and the pressurizing component 4 do not work, resulting in low energy consumption and little wear.

[0054] When in high-speed stirring mode, the telescopic electric cylinder 21 extends and drives the stabilizing mechanism 2 and the transmission assembly 3 simultaneously through connecting rod 1 22 and connecting rod 23. The cover 241 of the stabilizing mechanism 2 presses down, and the squeezing inclined surface 246 pushes the ball 2 248 and the guide rod 243 to move centripetally. The ball 1 245 on the contact block 244 gently contacts the outer surface of the stirring rod 122, providing radial support and effectively suppressing the centrifugal swing of the stirring rod 122 during high-speed rotation.

[0055] At the same time, the lifting seat 33 of the transmission assembly 3 is pressed down by the connecting sleeve 231, and the connecting arm 35 pushes the abutment block 32 to extend radially and fit against the inner side of the transmission gear 1232. At this time, the linkage seat 37 rotates synchronously with the transmission seat 31, and its guide groove 38 drives the roller 45 of the booster assembly 4 to reciprocate. The booster piston 42 starts to pump coolant, so that the cooling medium in the cooling ring 5 circulates and forces cooling of the contact area between the stirring rod 122 and the sealing cover 124.

[0056] When the high-speed mixing ends, the telescopic electric cylinder 21 retracts, the stabilizing component 24 automatically releases, the abutting block 32 of the transmission component 3 disengages from the transmission gear 1232, the booster component 4 stops pumping, and the equipment returns to low-speed mode.

[0057] 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 and environmentally friendly intelligent water treatment device for descaling and rust removal, comprising a treatment module (1) consisting of a reaction separation device (11), a mixing device (12), a filtration device (13), a sludge treatment device (14), and pipelines (15), characterized in that: The mixing device (12) includes a mixing tank (121), a stirring rod (122), and a drive assembly (123), wherein the drive assembly (123) consists of a drive motor (1231) and a transmission gear (1232); The mixing tank (121) is provided with a stabilizing mechanism (2), a pressurizing component (4) and a cooling ring (5), wherein an infusion pipe (6) is installed between the pressurizing component (4) and the cooling ring (5). The stabilizing mechanism (2) includes a telescopic electric cylinder (21) and a stabilizing component (24). The telescopic electric cylinder (21) is used to drive the stabilizing component (24), and a connecting rod (22) connected to the stabilizing component (24) is installed on its output end. The stabilizing component (24) includes a cover (241), a mounting base (242), a guide rod (243), a bonding block (244), and a second ball bearing (248). The bonding block (244) and the second ball bearing (248) are respectively installed at both ends of the guide rod (243). The guide rod (243) passes through the interior of the mounting base (242). The interior of the cover (241) is provided with a conical extrusion slope (246). The second ball bearing (248) rolls with the extrusion slope (246). A return spring (247) is wound around the outer surface of the guide rod (243). The first ball bearing (245) is rotatably installed on the side of the bonding block (244) away from the guide rod (243).

2. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 1, characterized in that: The reaction separation device (11), mixing device (12), filtration device (13) and sludge treatment device (14) are all connected by pipeline (15); The top end of the stirring rod (122) extends to the top side of the mixing tank (121) and penetrates the inside of the cover (241). A sealing cover (124) is installed on the top flange of the mixing tank (121). A mounting bracket (125) is bolted on the top side of the sealing cover (124). The cooling ring (5) is embedded in the sealing cover (124), and the bottom end of the stirring rod (122) penetrates the cooling ring (5) and the sealing cover (124) respectively.

3. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 2, characterized in that: The mounting base (242) is bolted to the top side of the sealing cover (124). The bonding block (244) is adjusted by telescopic electric cylinder (21) to achieve bonding with the outer surface of the stirring rod (122). There are three stabilizing components (24), and the three stabilizing components (24) are distributed in a ring at equal intervals around the top side of the stirring rod (122).

4. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and derusting according to claim 2, characterized in that: The mounting frame (125) is provided with a transmission assembly (3) that is gap-connected to the transmission gear (1232). The transmission assembly (3) includes a transmission seat (31) sleeved on the outer surface of the top end of the stirring rod (122), an abutment block (32) slidably installed inside the transmission seat (31), a lifting seat (33) splined on the outer surface of the top side of the transmission seat (31), and a linkage seat (37). A connecting arm (35) is hinged between the lifting seat (33) and the abutment block (32). The linkage seat (37) is rotatably installed inside the mounting frame (125).

5. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 4, characterized in that: A connecting rod 2 (23) is also installed on the output end of the telescopic electric cylinder (21). The other end of the connecting rod 2 (23) is fixed with a connecting sleeve (231) sleeved on the outer surface of the lifting seat (33). By telescopically extending and retracting the telescopic electric cylinder (21), the connecting rod 2 (23) drives the lifting seat (33) to move down, so that the connecting arm (35) pushes the abutting block (32) to abut against the inner side of the transmission gear (1232), and then the rotation of the transmission gear (1232) drives the transmission seat (31) and the linkage seat (37) to rotate.

6. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 4, characterized in that: The transmission seat (31) has a guide groove (34) inside. One side of the abutment block (32) is slidably connected to the guide groove (34). A reset spring (36) is installed between the inner wall of the guide groove (34) and the outer wall of the abutment block (32).

7. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 4, characterized in that: The linkage seat (37) has a guide groove (38) inside that works with the pressurizing component (4). The guide groove (38) is wavy and circular, and its two ends are connected. When the linkage seat (37) rotates, it will drive the pressurizing component (4) synchronously, and then work with the stabilizing mechanism (2) to stabilize the stirring rod (122).

8. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 4, characterized in that: The transmission seat (31) has a convex shape and both it and the linkage seat (37) are hollow. The abutment block (32) has a T-shaped shape and its cross-section is adapted to the inner side of the transmission gear (1232).

9. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 7, characterized in that: The booster assembly (4) includes a booster cylinder (41) with a hollow interior, a booster piston (42) slidably disposed inside the booster cylinder (41), and a valve pipe (43) fixed to the outer wall of the booster cylinder (41). The booster piston (42) extends to the outside of the booster cylinder (41) and a guide rod (44) is fixed on its top side. The end of the guide rod (44) is rotatably mounted with a roller (45) that rolls with the guide groove (38).

10. The energy-saving and environmentally friendly intelligent water treatment equipment for descaling and rust removal according to claim 9, characterized in that: The two ends of the infusion tube (6) are fixedly connected to the outer wall of the cooling ring (5) and the end of the valve tube (43), respectively, and there are two valve tubes (43).

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