Air-cooled intelligent temperature-sensing high-efficiency atomization back pressure reduction water saving and consumption reduction system

Abstract

The application relates to an air-cooling intelligent temperature-sensing high-efficiency atomization back-pressure-reducing water-saving and consumption-reducing system, which effectively solves the problems that the existing atomization sprayer cannot change the angle during spraying and cannot be cleaned with a cleaning tool and the like; the technical solution comprises a movable frame which is slidably arranged on the surface of a frame body and can move up and down, slidable drive frames which are slidably arranged on the two sides of the movable frame, a main frame which is overlapped on one side of the drive frame, a spraying mechanism which is arranged on one side of the main frame, the spraying mechanism comprises a transmission rod, a side frame and a linkage rod, the side frame is integrally arranged on one side of the drive frame, and the transmission rod is slidably arranged on one side of the main frame. After cleaning, liquid on the surface of the cleaning strip can be extruded out, the spraying disc can be controlled to move during rotation, the spraying disc slowly moves, the spraying direction is changed when the spraying disc changes the position, and the spraying disc acts on different positions of an air-cooling island.

Description

An air-cooled intelligent temperature-sensing high-efficiency atomization system for reducing back pressure, saving water and reducing energy consumption. Technical Field

[0001] This invention relates to the field of thermal power generation technology, and in particular to an air-cooled intelligent temperature-sensing high-efficiency atomization back pressure reduction water-saving and energy-saving system. Background Technology

[0002] Dust accumulation on the surface of the air-cooled condenser tube bundles in air-cooled island units reduces heat transfer efficiency and significantly impacts load, especially in northern regions and under harsher air conditions. During summer operation, the vacuum level significantly affects the safe, economical, and reliable operation of air-cooled units. The cleanliness of the heat exchange fins on the air-cooled island directly affects the vacuum level, making the cleaning of these fins particularly crucial. Existing water-saving and energy-reducing systems spray atomized gas directly from below the air-cooled island; however, existing atomizing nozzles cannot be angled during spraying and cannot be used with cleaning tools, resulting in incomplete cleaning of the heat exchange fins.

[0003] In view of the above, we provide an air-cooled intelligent temperature-sensing high-efficiency atomization back pressure reduction water-saving and energy-saving system to solve the above problems. Summary of the Invention

[0004] In response to the above situation, the present invention provides an air-cooled intelligent temperature sensing high-efficiency atomization back pressure reduction water-saving and consumption-reducing system. The main frame is designed to spray and rinse the tube bundles of the air-cooled island when rotating, and the transmission rod can reciprocate during rinsing to complete the rinsing of the air-cooled island.

[0005] An air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reducing water and energy consumption system includes a frame. A movable frame that can move up and down is slidably mounted on the surface of the frame. Slidable drive frames are slidably mounted on both sides of the movable frame. A main frame is attached to one side of the drive frame. A spraying mechanism is mounted on one side of the main frame. The spraying mechanism includes a transmission rod, a side frame, and a linkage rod. The side frame is integrally mounted on one side of the drive frame. The transmission rod is slidably mounted on one side of the main frame. A linkage rod is rotatably mounted on one side of the transmission rod. A pause control mechanism is attached to the outer surface of the linkage rod. The pause control mechanism includes a sloping groove, a rotating disk, a gear, a drive disk, and an outer disk. The sloping groove is formed on the outer surface of the linkage rod. The rotating disk is attached to the surface of the sloping groove. A reciprocating extrusion mechanism is mounted on one side of the outer disk. A pause spraying mechanism is mounted on the other side of the outer disk. The linkage rod is slidably mounted on one side of the side frame.

[0006] The beneficial effects of the above technical solution are as follows:

[0007] This solution utilizes a designed main frame that sprays and washes the tube bundles of the air-cooled island while rotating. During washing, the drive rod reciprocates, causing the cleaning strips to rotate and move back and forth, quickly removing dust from the air-cooled island. Disinfectant is added automatically to the cleaning strips during operation, and liquid is automatically added to their surface. After cleaning, the liquid on the cleaning strips is automatically squeezed out. The spray disc also moves slowly during rotation, changing its spray direction and targeting different parts of the air-cooled island. Furthermore, when the moving frame moves up and down, one side of the drive frame maintains a constant distance from the surface of the air-cooled island. Attached Figure Description

[0008] Figure 1 is a schematic diagram of the overall structure of the present invention;

[0009] Figure 2 is a front view schematic diagram of the frame of the present invention;

[0010] Figure 3 is a bottom view of the drive frame of the present invention;

[0011] Figure 4 is a three-dimensional schematic diagram of the partition in Figure 3 of the present invention;

[0012] Figure 5 is a schematic diagram of a partial side cut of the mobile frame of the present invention;

[0013] Figure 6 is a partial schematic diagram of the drive frame of the present invention;

[0014] Figure 7 is a partial schematic diagram of the present invention as shown in Figure 6;

[0015] Figure 8 is a schematic diagram of a single-side cutting of the main frame of the present invention;

[0016] Figure 9 is a partial schematic diagram of the present invention as shown in Figure 8;

[0017] Figure 10 is a schematic diagram of one side of the side frame of the present invention;

[0018] Figure 11 is an enlarged schematic diagram of point A in Figure 9 of the present invention;

[0019] Figure 12 is a schematic diagram of the top cutting of the main frame of the present invention;

[0020] Figure 13 is a schematic diagram of the single-sided cutting of the drive disc of the present invention.

[0021] In the diagram: 1. Frame; 2. Moving frame; 3. Drive frame; 4. Main frame; 5. Transmission rod; 6. Side frame; 7. Linkage rod; 8. Inclined groove; 9. Rotary disc; 10. Gear; 11. Drive disc; 12. Outer disc; 13. Extrusion block; 14. Press nozzle; 15. Storage bottle; 16. Inner tube; 17. Spray hole; 18. Spray disc; 19. Side channel; 20. Lower channel; 21. Sealing ring; 22. Sticking spring; 23. One-way groove; 24. Side hole; 25. Cleaning bar; 26. Swing bar; 27. Drive block; 28. Torsion spring; 29. ​​Positioning ring; 30. Positioning groove; 31. Periodic groove; 32. Movable valve; 33. Drive rod; 34. Drive ring; 35. Output shaft; 36. Supply pipe; 37. External connection hole; 38. One-way block; 39. Return spring. Detailed Implementation

[0022] The foregoing and other technical contents, features and effects of the present invention will be clearly presented in the following detailed description of the embodiments with reference to Figures 1 to 13. The structural contents mentioned in the following embodiments are all based on the accompanying drawings.

[0023] This embodiment provides an air-cooled intelligent temperature-sensing high-efficiency atomization back pressure reduction water-saving and energy-saving system, as shown in Figures 1-6. Figure 1 of the specification shows the air-cooled island. The frame 1 is installed on the ground. This solution has two sets of drive mechanisms. First, the moving frame 2 is slidably mounted on the frame 1. The output shaft 35 is a two-end gear 10, mounted on a dual-axis motor. The dual-axis motor is shown in Figure 1 of the specification. The dual-axis motor is existing technology and will not be described in detail. The dual-axis motor can output rotation from both sides. The frame 1 has a corresponding rack. When the output shaft 35 rotates, it will drive the entire moving frame 2 to move. The other end of the output shaft 35 is engaged with the drive frame 3. The drive frame 3 is set on both sides. And it slides on the movable frame 2 through a specific groove, that is, while sliding on the movable frame 2, it controls the movement of the two drive frames 3 on both sides, so that the drive frames 3 can complete the extension and retraction. Because the air-cooling island adopts a triangular setting, in order to ensure that one side of the drive frame 3 always has a certain distance from the two sides of the air-cooling island, the movement of the movable frame 2 is controlled to extend and retract the two drive frames 3 on both sides. The two drive frames 3 on both sides adopt a staggered design to facilitate extension and retraction in a small space. A power failure self-locking is set on the basis of the dual-shaft motor (the motor power failure self-locking has been solved and is a prior art). As the name suggests, the output shaft 35 controls the position of the movable frame 2 and the drive frame 3. Let me introduce the movement ratio of the drive frame 3 and the movable frame 2. The drive frame 3 and the movable frame 2 can This is achieved by setting the transmission ratio of the output shaft 35. In this scheme, for every certain distance the moving frame 2 moves, one end of the driving frame 3 slides along the inclined tube surface of the air-cooled island. That is, the moving distance of the moving frame 2 and the moving distance of the driving frame 3 always form a trigonometric function relationship, specifically a ratio of the two sides of a 30-degree right angle. This scheme also includes another motor, positioned above the moving frame 2. This motor is located on one side of the drive rod 33, which is mounted at the output end of this motor, allowing the drive rod 33 to rotate. The drive rod 33 has multiple worm gear segments that mesh with the drive ring 34. Therefore, the rotation of the drive rod 33 causes the drive ring 34 to rotate. The main frame 4 is slidably mounted on the surface of the drive ring 34. Frame 4 is the core of this design. The main frame 4 is slidably mounted on the drive ring 34. When the drive ring 34 rotates, it drives the main frame 4 to rotate as well. The drive ring 34 has corresponding grooves that allow it to rotate the main frame 4. Most of the effects of this design are caused by the rotation of the main frame 4, which will be explained in detail in the next section. The main frame 4 is attached to one side of the movable frame 2, thus the movable frame 2 determines the position of the main frame 4. In this design, the drive rod 33 and the output shaft 35 will not rotate simultaneously. That is, when the drive rod 33 rotates, the output shaft 35 will not rotate, and when the output shaft 35 rotates, the drive rod 33 will not rotate. In other words, when the output shaft 35 adjusts the position of the movable frame 2, the main frame 4 will not rotate.While the main frame 4 rotates, the movable frame 2 does not move.

[0024] As shown in Figure 7-13, the movable frame 2 of this design has two main parts on one side: the first is the main frame 4, and the second is the drive frame 3. The drive frame 3 is a single, integral frame, while the main frame 4 is different; there are several main frames 4. The positions of the main frames 4 are correspondingly set between two adjacent pipes on the air-cooled island, allowing for cleaning of the pipe sides, which is a key aspect of this design. As mentioned in the previous paragraph, the main frame 4 rotates. The following is a detailed description of the main frame 4. Note that a positioning ring 29 (i.e., periodically opened positioning ring 29) is integrally formed on one side of the movable frame 2. Since it is integrally formed with the movable frame 2, it is referred to as the movable frame 2. The positioning ring 29 also ensures that the position of the main frame 4 relative to the movable frame 2 remains unchanged, specifically left and right. The inner arc of this circle has a periodic groove 31, which connects to the transmission rod 5. The transmission rod 5 slides inside one side of the main frame 4. When the main frame 4 rotates, the movement trajectory of the transmission rod 5 is a variable rotation side extending and retracting. The movement trajectory of the transmission rod 5 is very important and is the core of this solution. The movement trajectory of the transmission rod 5 is a variable rotation side extension and retraction. A cleaning strip 25 is provided on the transmission rod 5. The cleaning strip 25 is a sponge strip that can squeeze out water. The transmission rod 5 also has a side hole 24. Since the transmission rod 5 can rotate (the transmission rod 5 is slidably set on the main frame 4, and the interior of the main frame 4 will not rotate relative to the transmission rod 5, only slide relative to it), the main frame 4 will drive the transmission rod. 5 rotates), and the cleaning strip 25 extends back and forth along with the drive rod 5 while rotating, completing the cleaning action. The side hole 24 also rotates back and forth and sprays liquid, completing the cleaning action. Combined, this allows for faster cleaning of dust on the air-cooled island and provides a rotating dust-cleaning effect—this is the first effect brought by the drive rod 5. Here, we introduce the side frame 6. The side frame 6 is a frame that extends from one side of the drive frame 3, and its position remains stationary when the drive rod 5 moves. When the cleaning strip 25 rotates, the side frame 6 squeezes the cleaning strip 25, squeezing out the liquid from its surface. The linkage rod 7 is slidably mounted on one side of the side frame 6, and one side of the linkage rod 7 is rotatably mounted on the drive rod 5. Therefore, the linkage rod 7 also moves along the side frame 6. The linkage rod 7 and transmission rod 5 move back and forth on one side. They are sealed and cannot be disengaged, allowing the linkage rod 7 to reciprocate and be limited on the side frame 6. A slanted groove 8 is provided on the linkage rod 7. The rotating disk 9 is rotatably mounted on one side of the side frame 6, with its inner arc protrusion overlapping the slanted groove 8. Therefore, the rotating disk 9 moves in a small-amplitude reciprocating rotation. A gear 10 meshes on one side of the rotating disk 9, causing the drive disk 11 to also rotate slightly. This slight rotation of the drive disk 11 causes the outer disk 12 to rotate slowly. (The rotating disk 9, gear 10, drive disk 11, and outer disk 12 are all limited and rotated on one side of the side frame 6 and cannot be disengaged.) A one-way block 38 is slidably mounted on the outer surface of the drive disk 11.Rotating the one-way block 38 in one direction can drive the outer disk 12 to rotate. Rotating in the other direction causes the one-way block 38 to be squeezed and moved, making it slip on the one-way groove 23 (the return spring 39 resets the one-way block 38, keeping it constantly engaged with the outer disk 12). This translates into the linkage rod 7 moving back and forth, causing the outer disk 12 to pause before rotating again. This rotation of the outer disk 12 has two effects: firstly, the squeezing block 13 on one side of the outer disk 12 can squeeze and press the nozzle 14 (the nozzle 14 uses existing technology and is a common type of nozzle on the market; since it is an existing structure, it will not be described in detail; the nozzle 14 requires a pressing action, and the array arrangement...). The press nozzle 14 corresponds to the position of the press nozzle 14, so that the press nozzle 14 is pressed at intervals. The storage bottle 15 can be filled with degreasing substances such as dish soap, or with disinfecting substances such as 84 disinfectant. After the press nozzle 14 is pressed, the inner tube 16 connected to it reaches the spray hole 17. The spray hole 17 corresponds to the rotation position of the cleaning strip 25, so these cleaning substances are added to the cleaning strip (acting on the side of the tube). That is, the outer disc 12 intermittently controls the press nozzle 14 to press, so that the cleaning strip adds substances and the cleaning is more thorough. The outer disc 12 also has a sloping arc plate on the top, and there is also a corresponding opposite arc plate on one side of the spray disc 18. When the outer ring rotates, it can make the spray disc 18 spray. The spraying disc 18 moves away from the outer disc 12, and as it moves, the spraying direction changes. When the spray disc 18 moves away from the outer disc 12, the sealing ring 21, pulled by the clamping spring 22, presses against the lower channel 20, blocking the lower channel 20 (the sealing ring 21 is made of rubber, and the clamping spring 22 is in a compressed state in the attached diagram of this solution). Conversely, when the spray disc 18 approaches the outer disc 12, the clamping spring 22 is squeezed by the pushing action of the drive disc 11, causing the outer side of the sealing ring 21 to block the side channel 19 (the side channel 19 is a groove with an angle less than one full circle, and the outer arc of the sealing ring 21 corresponds to the width of the side channel 19, which can just block the side channel 19). The rotation of the outer disc 12 can drive the spray disc 18 to slowly apply pressure, and after being pulled to the maximum distance, the spraying disc 18 can pass through the lower channel 20. The spray plate 18 is reset by a spring (a first spring exists between the spray plate 18 and the side frame 6, and the first spring is always in a stretched state during movement). The spray plate 18 can change the spray direction. The liquid supply of the spray plate 18 is inserted into the linkage pipe in the middle (sealed sliding). The supply pipe 36 supplies liquid to the linkage pipe, thereby supplying liquid to the spray plate. The spray plate 18 can spray the air-cooled island and the cleaning strip 25. The swing strip 26 is made of a combination of rigid material and sponge. The straight part is rigid material, and the curved part is sponge (the sponge can directly pass over the side frame 6). The swing strip 26 only works with the upper and lower sides of the transmission rod 5 to drive and squeeze the rotation. The upper and lower sides of the transmission rod 5 have extension ends. The swing strip 26 also has a torsion spring on the main frame 4.The torsion spring keeps the swing bar 26 in contact with the drive block 27. The drive block 27 is rotatably mounted on the upper and lower sides of the transmission rod 5, with a torsion spring 28 between them. The elastic force of the torsion spring is much smaller than that of the torsion spring 28, so the drive block 27 can drive the swing bar 26 to rotate. The swing of the swing bar 26 can knock off the dust on the surface of the pipe. Finally, let's introduce the external equipment of this solution. The external equipment of this solution is the external connection port 37 and the supply pipe 36. Since this solution requires water for spraying, one end of the supply pipe 36 needs to be extended to the spraying system of the air-cooled island and supplied with water by a water pump. This solution only shows one section of the entity. In fact, all the supply pipes 36 in this solution need to be connected to the water supply system. The same goes for the external connection port 37, which needs to be connected to an external water pipe. Within the water supply system, this solution does not require external display connection. One side of the drive frame 3 extends and overlaps the periodic groove 31, allowing the main frame 4 to control the movable valve 32 to move back and forth when rotating. The back-and-forth movement of the movable valve 32 can also change the spray direction. Due to the movable structure of this solution, a small section of the supply pipe 36 connected to the linkage rod 7 is a flexible hose, and the other end of the movable frame 2 is also a flexible hose; the rest is a rigid pipe. A movable frame 2 that can move up and down is slidably installed on the surface of the frame body 1. Slidable drive frames 3 are slidably installed on both sides of the movable frame 2. The main frame 4 overlaps on one side of the drive frame 3, and a spraying mechanism is installed on one side of the main frame 4. The spraying mechanism includes a transmission rod 5, a side frame 6, and a linkage rod 7. The side frame 6 is integrally installed on the drive frame 3. On one side of frame 3, transmission rod 5 is slidably mounted on one side of main frame 4. A linkage rod 7 is rotatably mounted on one side of transmission rod 5. A pause control mechanism is attached to the outer surface of linkage rod 7. The pause control mechanism includes a sloping groove 8, a rotating disk 9, a gear 10, a drive disk 11, and an outer disk 12. Sloping groove 8 is formed on the outer surface of linkage rod 7, and rotating disk 9 is attached to the surface of sloping groove 8. A reciprocating extrusion mechanism is mounted on one side of outer disk 12, and a pause spraying mechanism is mounted on the other side of outer disk 12. Linkage rod 7 is slidably mounted on one side of side frame 6. Gear 10 meshes on one side of rotating disk 9, and drive disk 11 meshes on the other side of gear 10. The reciprocating extrusion mechanism includes an extrusion block 13, a pressing nozzle 14, and a storage bottle 15. Storage bottle 15 is fixedly mounted on the side frame. On the upper surface of the side frame 6, a press nozzle 14 is threadedly connected to one side of the storage bottle 15. The output end of the press nozzle 14 is connected to an inner tube 16, and the other end of the inner tube 16 is connected to a spray hole 17. The spray hole 17 is located in the middle of the side frame 6. The squeezing block 13 is fixedly installed on one side of the outer plate 12. The pause spraying mechanism includes a spray plate 18, a side channel 19, a lower channel 20, and a sealing ring 21. The sealing ring 21 is slidably installed on one side of the spray plate 18. A retaining spring 22 is installed between the sealing ring 21 and the spray plate 18. The side channel 19 is located on the side of the spray plate 18, and the lower channel 20 is located on one side of the spray plate 18. The spray plate 18 is slidably installed on one side of the side frame 6. A one-way block 38 is slidably installed on the outer surface of the drive plate 11.A return spring 39 is provided between the one-way block 38 and the drive plate 11. A one-way groove 23 is provided at the inner arc of the outer plate 12. The one-way block 38 is overlapped on the one-way groove 23. A side hole 24 is provided on the outer surface of the transmission rod 5. A cleaning strip 25 is integrally provided on the outer surface of the transmission rod 5. Swing strips 26 are rotatably provided on the upper and lower sides of the main frame 4. Drive blocks 27 are rotatably provided on both the upper and lower sides of the transmission rod 5. A torsion spring 28 is provided between the transmission rod 5 and the drive block 27. A positioning ring 29 is integrally provided on one side of the moving frame 2. A positioning groove 30 is provided at the inner arc of the positioning ring 29. The transmission rod 5 overlaps on the surface of the positioning groove 30. A periodic groove 31 is provided on the outer surface of the main frame 4. The periodic groove 31 overlaps on the surface of the main frame 4. A movable valve 32 is slidably mounted on one side of the drive frame 3. A drive mechanism is mounted on the upper surface of the movable frame 2, comprising a drive rod 33 and a drive ring 34. The drive ring 34 is rotatably mounted on the upper surface of the movable frame 2, and a main frame 4 is slidably mounted on its surface. The drive rod 33 overlaps with the surface of the drive ring 34. Movable mechanisms are mounted on both sides of the movable frame 2, each including an output shaft 35. One end of the output shaft 35 engages with the drive frame 3, and the other end engages with the frame body 1. A supply mechanism is mounted on the upper surface of the drive frame 3, comprising a supply pipe 36. One end of the supply pipe 36 is connected to a transmission rod 5. An external connection hole 37 is mounted on the upper surface of the drive frame 3.

[0025] The above description is only for illustrating the present invention and should be understood as not being limited to the above embodiments. Various modifications that conform to the spirit of the present invention are within the protection scope of the present invention.

Claims

1. An air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reduction water-saving and energy-saving system, comprising a frame (1), characterized in that, The surface of the frame (1) is slidably provided with a movable frame (2) that can move up and down. Both sides of the movable frame (2) are slidably provided with a drive frame (3). One side of the drive frame (3) is connected to a main frame (4). One side of the main frame (4) is provided with a spraying mechanism. The spraying mechanism includes a transmission rod (5), a side frame (6), and a linkage rod (7). The side frame (6) is integrally provided on one side of the drive frame (3). The transmission rod (5) is slidably provided on one side of the main frame (4). One side of the transmission rod (5) is rotatably provided with a linkage rod (7). The outer surface of the linkage rod (7) is connected to a stop control mechanism. The stop control mechanism includes a slant groove (8), a rotating disk (9), a gear (10), and a drive disk (11). 1) and outer disk (12), the inclined groove (8) is opened on the outer surface of the linkage rod (7), the surface of the inclined groove (8) is connected to the rotating disk (9), one side of the outer disk (12) is provided with a reciprocating extrusion mechanism, the other side of the outer disk (12) is provided with a pause spraying mechanism, the linkage rod (7) is slidably set on one side of the side frame (6); one side of the rotating disk (9) is meshed with a gear (10), the other side of the gear (10) is meshed with a drive disk (11), the reciprocating extrusion mechanism includes an extrusion block (13), a pressing nozzle (14) and a storage bottle (15), the storage bottle (15) is fixedly set on the upper surface of the side frame (6), one side of the storage bottle (15) is threadedly connected to the pressing nozzle (14), so The output end of the press nozzle (14) is connected to an inner tube (16), and the other end of the inner tube (16) is connected to a spray hole (17). The spray hole (17) is located in the middle of the side frame (6), and the squeezing block (13) is fixedly located on one side of the outer plate (12). The pause spraying mechanism includes a spray plate (18), a side channel (19), a lower channel (20), and a sealing ring (21). The sealing ring (21) is slidably located on one side of the spray plate (18), and a clamping spring (22) is provided between the sealing ring (21) and the spray plate (18). The side channel (19) is located on the side of the spray plate (18), and the lower channel (20) is located on one side of the spray plate (18). The spray plate (18) is connected to an inner tube (16), and the other end of the inner tube (16) is connected to a spray hole (17). The spray plate (18) is located in the middle of the side frame (6), and the squeezing block (13) is fixedly located on one side of the outer plate (12). 8) Slidingly disposed on one side of the side frame (6); a one-way block (38) is slidably disposed on the outer surface of the drive plate (11), and a return spring (39) is disposed between the one-way block (38) and the drive plate (11); a one-way groove (23) is opened at the inner arc of the outer plate (12), and the one-way block (38) is overlapped on the one-way groove (23); a side hole (24) is opened on the outer surface of the transmission rod (5), and a cleaning strip (25) is integrally disposed on the outer surface of the transmission rod (5); swing strips (26) are rotatably disposed on the upper and lower sides of the main frame (4); a drive block (27) is rotatably disposed on both the upper and lower sides of the transmission rod (5), and a torsion spring (28) is disposed between the transmission rod (5) and the drive block (27).

2. The air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reduction water-saving and energy-saving system according to claim 1, characterized in that, A positioning ring (29) is integrally provided on one side of the mobile frame (2), and a positioning groove (30) is provided at the inner arc of the positioning ring (29), and a transmission rod (5) is attached to the surface of the positioning groove (30).

3. The air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reduction water-saving and energy-saving system according to claim 1, characterized in that, The outer surface of the main frame (4) is provided with a periodic groove (31), and an active valve (32) is provided on the surface of the periodic groove (31). The active valve (32) is slidably disposed on one side of the drive frame (3).

4. The air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reduction water-saving and energy-saving system according to claim 1, characterized in that, The upper surface of the movable frame (2) is provided with a driving mechanism, which includes a driving rod (33) and a driving ring (34). The driving ring (34) is rotatably disposed on the upper surface of the movable frame (2). The main frame (4) is slidably disposed on the surface of the driving ring (34). The driving rod (33) overlaps the surface of the driving ring (34).

5. The air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reduction water-saving and energy-saving system according to claim 1, characterized in that, The movable frame (2) will be provided with a moving mechanism on both sides. The moving mechanism includes an output shaft (35). One end of the output shaft (35) is engaged with a drive frame (3), and the other side of the output shaft (35) is engaged with a frame body (1).

6. The air-cooled intelligent temperature-sensing high-efficiency atomizing back pressure reduction water-saving and energy-saving system according to claim 1, characterized in that, The upper surface of the drive frame (3) is provided with a supply mechanism, which includes a supply pipe (36). One end of the supply pipe (36) is connected to a transmission rod (5), and the upper surface of the drive frame (3) is provided with an external connection hole (37).

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