Intelligent power plant flue gas automatic treatment structure

Abstract

The utility model discloses an intelligent power plant smoke automatic treatment structure, and belongs to the technical field of intelligent power plants. The intelligent power plant flue gas automatic treatment structure comprises a water storage mechanism, the water storage mechanism comprises a water tank, the upper end face of the water tank is provided with a desulfurization mechanism, the upper end of the desulfurization mechanism is provided with a dust removal mechanism, the dust removal mechanism comprises a dust removal box, the interior of the dust removal box is connected with a mounting frame, and a plurality of mounting grooves are formed in the mounting frame at equal intervals; anode sleeves are connected to the interiors of the multiple mounting grooves, cathode bars are arranged in the multiple anode sleeves, a grid is connected to the position, located above the mounting frame, in the dust removal box, the bottom of the grid is connected with the upper ends of the cathode bars, and a plurality of pipelines are connected to the positions, located between the mounting frame and the grid, of the two sides of the inner wall of the dust removal box; a plurality of first through holes and second through holes are formed in the upper ends and the bottom ends of the multiple pipelines at equal intervals correspondingly, and water conveying holes are formed in one sides of the multiple pipelines.

Description

Technical Field

[0001] The utility model relates to the technical field of smart power plants, and in particular to an automatic flue gas treatment structure for a smart power plant. Background Art

[0002] Power plant fly ash pollution can cause water pollution, and indiscriminate dumping can pollute the atmosphere. Dust particles are extremely harmful to the human body. Not only do they pollute the environment themselves, but they also combine with harmful gases such as sulfur dioxide and nitrogen oxides, exacerbating environmental damage. Dust particles smaller than 10 microns are particularly harmful to the human body.

[0003] Based on the above, the inventors have found the following problems: Currently, dust removal in power plant flue gas is generally carried out by filtering fly ash in the power plant flue gas through a bag dust collector. However, during the operation of the bag dust collector, the filter bag pressure difference is prone to being too high. At this time, the machine needs to be shut down to reversely blow the filter bags to clean the dust, which is a cumbersome operation.

[0004] Therefore, in view of this, the existing structure and deficiencies are studied and improved, and a smart power plant flue gas automatic treatment structure is provided in order to achieve a more practical purpose. Utility Model Content

[0005] The purpose of the present invention is to provide a smart power plant flue gas automatic treatment structure to solve the problems raised in the above background technology.

[0006] In view of the above problems, the technical solution proposed by the present invention is:

[0007] A smart power plant flue gas automatic treatment structure includes a water storage mechanism, the water storage mechanism includes a water tank, the upper end surface of the water tank is provided with a desulfurization mechanism, the upper end of the desulfurization mechanism is provided with a dust removal mechanism, the dust removal mechanism includes a dust removal box, the interior of the dust removal box is connected to a mounting frame, a plurality of mounting slots are equidistantly provided in the mounting frame, the interiors of several mounting slots are connected to anode casings, the interiors of several anode casings are provided with cathode rods, the interior of the dust removal box is located above the mounting frame and is connected to a grille, the bottom of the grille is connected to the upper end of the cathode rod.

[0008] Furthermore, several pipes are connected on both sides of the inner wall of the dust removal box between the mounting frame and the grille, and several first through holes and second through holes are equidistantly provided at the upper and bottom ends of the pipes, and water holes are provided on one side of the pipes.

[0009] The beneficial effect of adopting the above further solution is that, by providing the water delivery hole, it is convenient for water to flow into the interior of the pipeline through the water delivery hole.

[0010] Furthermore, the upper end of the cathode rod passes through the second through hole and the first through hole, and the outer wall of the cathode rod fits with the inner wall of the first through hole, and the aperture of the first through hole is smaller than the aperture of the second through hole.

[0011] The beneficial effect of adopting the above further scheme is that, by setting the first through hole and the second through hole, since the inner wall of the first through hole fits the outer wall of the cathode rod, and the aperture of the first through hole is smaller than the aperture of the second through hole, there is a distance between the inner wall of the second through hole and the outer wall of the cathode rod, so that the water in the pipeline can be discharged through the distance between the second through hole and the cathode rod, thereby flushing the inner wall of the anode casing, and taking away the dust collected on the inner wall of the anode casing under the action of the flow of water.

[0012] Furthermore, a water delivery mechanism is provided on one side of the outer wall of the water tank, and the water delivery mechanism includes a booster pump. The water inlet and outlet ends of the booster pump are respectively connected to a first water delivery pipe and a second water delivery pipe. The end of the first water delivery pipe away from the booster pump passes through the water tank and extends to the interior. The end of the second water delivery pipe away from the booster pump is connected to a water storage plate, and a water storage cavity is provided inside the water storage plate.

[0013] The beneficial effect of adopting the above further solution is that by providing a booster pump, when the booster pump is started, the water in the water tank is easily transported to the inside of the water storage plate through the first water delivery pipe and the second water delivery pipe.

[0014] Furthermore, the water storage plate is arranged on one side of the outer wall of the dust removal box, and the water storage plate and the opposite side of the dust removal box are connected, and the side of the water storage plate close to the dust removal box is connected to a plurality of diversion pipes, and the ends of the plurality of diversion pipes away from the water storage plate all pass through the dust removal box and extend to the interior of the pipeline through the water supply hole, and the outer walls of the plurality of diversion pipes are connected to the inner wall of the water supply hole.

[0015] The beneficial effect of adopting the above further solution is that since the side of the water storage plate close to the dust removal box is connected to several diversion pipes, the several diversion pipes are respectively connected to several pipelines, so that the water in the water storage plate flows into the interior of the pipeline through the diversion pipes.

[0016] Furthermore, the desulfurization mechanism includes a desulfurization box, the bottom end of the desulfurization box is connected to the upper end of the water tank, and support rods are connected to the four corners of the upper end of the desulfurization box, the upper ends of several support rods are connected to the bottom end of the dust removal box, and connecting holes are opened at the center of the upper end of the desulfurization box and the center of the bottom end of the dust removal box, a pair of connecting holes are connected with a connecting pipe, the front of the desulfurization box is connected to an air intake pipe, the outside of the air intake pipe is provided with an air intake valve, a first circular hole is opened on both sides of the outside of the desulfurization box, and a second circular hole is opened on both sides of the outside of the desulfurization box on one side of the first circular hole, a first spray pipe is connected between the pair of first circular holes, and a second spray pipe is connected between the pair of second circular holes.

[0017] The beneficial effect of adopting the above-mentioned further scheme is that, through the coordinated use of the air intake pipe and the air intake valve, when the air intake valve is opened, it is convenient to inject the power plant flue gas into the desulfurization box through the air intake pipe, and spray the power plant flue gas inside the desulfurization box through the first spray pipe and the second spray pipe. Then, the power plant flue gas after desulfurization is completed will enter the interior of the dust removal box through the connecting hole and the connecting pipe, thereby performing the next step of dust removal treatment on the power plant flue gas.

[0018] Furthermore, a first pump is provided on one side of the outer wall of the desulfurization box, and the water outlet of the first pump is connected to a three-way connecting pipe. The two ends of the three-way connecting pipe away from the first pump are respectively connected to the first spray pipe and the second spray pipe.

[0019] The beneficial effect of adopting the above-mentioned further scheme is that by setting up a first pump, the water inlet end of the first pump is connected to the tank storing ammonia water through a hose. When the first pump is started, the ammonia water is conveniently transported to the inside of the first spray pipe and the second spray pipe respectively through the three-way connecting pipe, and sprayed out from the first spray pipe and the second spray pipe.

[0020] Furthermore, both sides of the inner wall of the water tank are connected with sliding bars, a fixed frame is slidably connected between a pair of the sliding bars, and an activated carbon adsorption bed and a filter membrane are sequentially arranged inside the fixed frame from top to bottom.

[0021] The beneficial effect of adopting the above-mentioned further scheme is that by setting a sliding bar, it is convenient to remove the fixed frame from the inside of the water tank, so that the fixed frame, activated carbon adsorption bed and filter membrane can be replaced. By setting the filter membrane and activated carbon adsorption bed, the water sprayed from the pipeline is filtered through the activated carbon adsorption bed and filter membrane after flushing the inner wall of the anode casing, thereby improving the recycling rate.

[0022] Furthermore, a square groove is provided on the front of the water tank, a sealing plate is provided inside the square groove, one end of the sealing plate extends to the outside of the square groove, and a sealing ring is provided outside the sealing plate located in the square groove, and a sealing groove is provided on the inner wall of the square groove at the sealing ring, and the inner wall of the sealing groove is pressed and fitted against the outer wall of the sealing ring.

[0023] The beneficial effect of adopting the above further solution is that the sealing between the water tank and the sealing plate is improved by providing a sealing ring and a sealing groove, and when the sealing plate is pulled outward, the square groove is easily exposed.

[0024] Furthermore, an opening is provided at the bottom end of the desulfurization box, and the desulfurization box is connected to the water tank through the opening. The back of the water tank is connected to a waste pipe.

[0025] The beneficial effect of adopting the above further scheme is that by setting up a waste pipe, it is convenient to drain the water in the water tank. The back of the water tank is located on one side of the waste pipe and is connected to the liquid inlet pipe, which is convenient for injecting clean water into the water tank, and solenoid valves are installed on the outside of the waste pipe and the liquid inlet pipe.

[0026] Compared with the prior art, the beneficial effects of the present invention are as follows: the intelligent power plant flue gas automatic treatment structure is provided with an anode casing and a cathode rod, and the cathode rod is electrically connected to an external power supply, so that the external power supply supplies power to the cathode rod. After the flue gas desulfurized by the desulfurization box enters the dust removal box through the connecting pipe, the dust-laden flue gas enters the inside of the anode casing and is charged at the discharge electrode at the lower end of the cathode rod. Then, it moves upward with the air flow and is adsorbed by the anode casing, so that the dust in the flue gas adheres to the inner wall of the anode casing, completing the dust removal work of the flue gas. When the booster pump is started, it is convenient to pump water in the water tank through the first water pipe. And the second water pipe is transported to the inside of the water storage plate. Since the water storage plate is connected to a side of the dust removal box with several branch pipes, the several branch pipes are respectively connected to the several pipes, so that the water in the water storage plate flows into the inside of the pipes through the branch pipes. Since the inner wall of the first through hole fits the outer wall of the cathode rod, and the aperture of the first through hole is smaller than the aperture of the second through hole, there is a distance between the inner wall of the second through hole and the outer wall of the cathode rod, so that the water in the pipe can be discharged through the distance between the second through hole and the cathode rod, thereby flushing the inner wall of the anode casing, and taking away the dust collected on the inner wall of the anode casing under the action of the flow of water. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 A schematic diagram of the three-dimensional structure of a smart power plant flue gas automatic treatment structure provided by the utility model Figure 1 ;

[0028] Figure 2 A schematic diagram of the three-dimensional structure of a smart power plant flue gas automatic treatment structure provided by the utility model Figure 2 ;

[0029] Figure 3 This is a schematic diagram of the exploded three-dimensional structure of a desulfurization mechanism of a smart power plant flue gas automatic treatment structure provided by the utility model;

[0030] Figure 4 This is a schematic diagram of the exploded three-dimensional structure of a dust removal mechanism of a smart power plant flue gas automatic treatment structure provided by the utility model;

[0031] Figure 5 This is a schematic diagram of the exploded three-dimensional structure of the water storage mechanism of the smart power plant flue gas automatic treatment structure provided by the utility model.

[0032] In the figure: 100, water storage mechanism; 1001, water tank; 1002, fixed frame; 1003, sealing plate; 1004, sealing groove; 1005, sealing ring; 200, desulfurization mechanism; 2001, desulfurization box; 2002, air intake pipe; 2003, first circular hole; 2004, second circular hole; 2005, first spray pipe; 2006, second spray pipe; 2007, first pump; 2008, three-way connecting pipe; 2009, support Rod; 300, dust removal mechanism; 3001, dust removal box; 3002, mounting frame; 3003, mounting groove; 3004, anode casing; 3005, grille; 3006, cathode rod; 3007, pipeline; 3008, first through hole; 3009, water delivery hole; 400, water delivery mechanism; 4001, booster pump; 4002, second water delivery pipe; 4003, water storage plate; 4004, diverter pipe; 500, connecting hole; 600, connecting pipe. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0034] See also Figure 1-Figure 5 The utility model provides a technical solution: a smart power plant flue gas automatic treatment structure, including a water storage mechanism 100, the water storage mechanism 100 includes a water tank 1001, the upper end surface of the water tank 1001 is provided with a desulfurization mechanism 200, the upper end of the desulfurization mechanism 200 is provided with a dust removal mechanism 300, the dust removal mechanism 300 includes a dust removal box 3001, the interior of the dust removal box 3001 is connected to a mounting frame 3002, the mounting frame 3002 is provided with a plurality of mounting grooves 3003 at equal distances, the interiors of the plurality of mounting grooves 3003 are all connected to anode sleeves 3004, the interiors of the plurality of anode sleeves 3004 are all provided with cathode rods 3006, the interior of the dust removal box 3001 is ... mounting frame 3002, the interior of the dust removal box 3001 is connected to anode sleeves 3004, the interiors of the plurality of anode sleeves 3004 are all provided with cathode rods 3006, the interior of the dust removal box 3001 is connected to anode sleeves 3004, the interior of the plurality of anode sleeves 3004 is provided with cathode rods 3006, the interior of the dust removal box 3001 is connected to anode sleeves 3004, the interior of the plurality of anode sleeves 3004 is provided with cathode rods 3006, the interior of the dust removal box 3001 is connected to anode sleeves 3004, the interior of the plurality of anode sleeves 3004 is provided with cathode rods A grid 3005 is connected to the top of the mounting frame 3002, and the bottom of the grid 3005 is connected to the upper end of the cathode rod 3006. By setting the anode casing 3004 and the cathode rod 3006, the cathode rod 3006 is electrically connected to the external power supply, so that the external power supply supplies power to the cathode rod 3006. When the flue gas from the power plant after desulfurization enters the dust removal box 3001, the dust-laden flue gas enters the inside of the anode casing 3004 and is charged at the discharge electrode at the lower end of the cathode rod 3006. It then moves upward with the airflow and is adsorbed by the anode casing 3004, so that the dust in the flue gas adheres to the inner wall of the anode casing 3004, completing the dust removal work of the flue gas.

[0035] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0036] See also Figure 1-Figure 5 The present invention provides a technical solution: a plurality of pipes 3007 are connected to the inner wall of the dust removal box 3001 between the mounting frame 3002 and the grille 3005. The upper and lower ends of the plurality of pipes 3007 are respectively provided with a plurality of first through holes 3008 and a second through hole at equal distances, and a water delivery hole 3009 is provided on one side of the plurality of pipes 3007. The upper end of the cathode rod 3006 passes through the second through hole and the first through hole 3008, and the outer wall of the cathode rod 3006 is in contact with the inner wall of the first through hole 3008. The aperture of 008 is smaller than that of the second through hole. A water delivery mechanism 400 is provided on one side of the outer wall of the water tank 1001. The water delivery mechanism 400 includes a booster pump 4001. The water inlet and outlet ends of the booster pump 4001 are respectively connected to a first water delivery pipe and a second water delivery pipe 4002. The end of the first water delivery pipe away from the booster pump 4001 passes through the water tank 1001 and extends to the interior. The end of the second water delivery pipe 4002 away from the booster pump 4001 is connected to a water storage plate 4003. A water storage cavity is provided inside the water storage plate 4003. The water storage plate 4003 is arranged at On one side of the outer wall of the dust removal box 3001, the water storage plate 4003 is connected to the opposite side of the dust removal box 3001, and the side of the water storage plate 4003 close to the dust removal box 3001 is connected with a plurality of diversion pipes 4004. The ends of the plurality of diversion pipes 4004 away from the water storage plate 4003 all pass through the dust removal box 3001 and extend to the interior of the pipe 3007 through the water delivery hole 3009. The outer walls of the plurality of diversion pipes 4004 are connected to the inner wall of the water delivery hole 3009. When the booster pump 4001 is started, it is convenient to fill the water tank 10 The water in 01 is transported to the inside of the water storage plate 4003 through the first water supply pipe and the second water supply pipe 4002, so that the water in the water storage plate 4003 flows into the inside of the pipe 3007 through the diversion pipe 4004, so that the water in the pipe 3007 can be discharged through the distance between the second through hole and the cathode rod 3006, thereby flushing the inner wall of the anode casing 3004, and the dust collected on the inner wall of the anode casing 3004 is taken away under the action of the flow of water. At the same time, the water containing dust will flow back to the inside of the water tank 1001 through the connecting pipe 600.

[0037] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0038] See also Figure 1-Figure 5The utility model provides a technical solution: the desulfurization mechanism 200 includes a desulfurization box 2001, the bottom end of the desulfurization box 2001 is connected to the upper end of the water tank 1001, and the four corners of the upper end of the desulfurization box 2001 are connected with support rods 2009, the upper ends of several support rods 2009 are connected to the bottom end of the dust removal box 3001, and a connecting hole 500 is opened at the center of the upper end of the desulfurization box 2001 and the center of the bottom end of the dust removal box 3001, a pair of connecting holes 500 are connected with a connecting pipe 600, the front of the desulfurization box 2001 is connected to the air intake pipe 2002, the outside of the air intake pipe 2002 is provided with an air intake valve, the outside of the desulfurization box 2001 is provided with a first circular hole 2003, and the outside of the desulfurization box 2001 is located at the second circular hole 2003. A second circular hole 2004 is provided on one side of each circular hole 2003, a first spray pipe 2005 is connected between a pair of first circular holes 2003, a second spray pipe 2006 is connected between a pair of second circular holes 2004, a first pump 2007 is provided on one side of the outer wall of the desulfurization box 2001, the water outlet end of the first pump 2007 is connected with a three-way connecting pipe 2008, and the two ends of the three-way connecting pipe 2008 away from the first pump 2007 are respectively connected with the first spray pipe 2005 and the second spray pipe 2006, a sliding bar is connected on both sides of the inner wall of the water tank 1001, a fixed frame 1002 is slidably connected between a pair of sliding bars, an activated carbon adsorption bed and a filter membrane are sequentially arranged inside the fixed frame 1002 from top to bottom, and the front of the water tank 1001 is open. A square groove is provided, and a sealing plate 1003 is provided inside the square groove. One end of the sealing plate 1003 extends to the outside of the square groove, and a sealing ring 1005 is provided on the outside of the sealing plate 1003 located in the square groove. A sealing groove 1004 is provided on the inner wall of the square groove at the sealing ring 1005. The inner wall of the sealing groove 1004 is pressed and fitted with the outer wall of the sealing ring 1005. An opening is provided at the bottom end of the desulfurization box 2001, and the desulfurization box 2001 is connected to the water tank 1001 through the opening. The back of the water tank 1001 is connected to a waste pipe. When the air inlet valve is opened, it is convenient to inject power plant flue gas into the desulfurization box 2001 through the air inlet pipe 2002. The water inlet end of the first pump 2007 is connected to the tank body storing ammonia water through a hose. When the first pump 2007 is started, It is convenient to transport ammonia water to the inside of the first spray pipe 2005 and the second spray pipe 2006 respectively through the three-way connecting pipe 2008, and spray it out from the first spray pipe 2005 and the second spray pipe 2006 to spray the power plant flue gas inside the desulfurization box 2001 to achieve desulfurization. Then, the power plant flue gas after desulfurization will enter the inside of the dust removal box 3001 through the connecting hole 500 and the connecting pipe 600, so as to carry out the next step of dust removal treatment on the power plant flue gas. By setting a filter membrane and an activated carbon adsorption bed, the water sprayed from the pipeline 3007 is filtered through the activated carbon adsorption bed and the filter membrane after flushing the inner wall of the anode casing 3004, thereby improving the recycling rate. When the sealing plate 1003 is pulled outward, it is convenient to expose the square groove.By providing a slide bar, it is easy to remove the fixed frame 1002 from the inside of the water tank 1001, so as to replace the fixed frame 1002, the activated carbon adsorption bed and the filter membrane.

[0039] Specifically, the working principle of the intelligent power plant flue gas automatic treatment structure is as follows: when in use, when the air inlet valve is opened, the power plant flue gas is injected into the desulfurization box 2001 through the air inlet pipe 2002, and the water inlet end of the first pump 2007 is connected to the tank body storing ammonia water through a hose. When the first pump 2007 is started, the ammonia water is transported to the inside of the first spray pipe 2005 and the second spray pipe 2006 respectively through the three-way connecting pipe 2008, and the ammonia water is discharged from the first spray pipe 2005 and the second spray pipe 2006. The flue gas is sprayed out of the tube 2006 to spray the flue gas of the power plant inside the desulfurization box 2001 to achieve desulfurization. The cathode rod 3006 is electrically connected to the external power supply so that the external power supply supplies power to the cathode rod 3006. After the flue gas desulfurized by the desulfurization box 2001 enters the dust removal box 3001 through the connecting pipe 600, the dust-laden flue gas enters the inside of the anode casing 3004 and is charged at the discharge electrode at the lower end of the cathode rod 3006. Then, it moves upward with the airflow and is adsorbed by the anode casing 3004, so that the dust in the flue gas is discharged. The dust adheres to the inner wall of the anode casing 3004, completing the dust removal work of the flue gas, and starting the booster pump 4001 to facilitate the water in the water tank 1001 to be transported to the inside of the water storage plate 4003 through the first water delivery pipe and the second water delivery pipe 4002, so that the water in the water storage plate 4003 flows into the inside of the pipe 3007 through the diversion pipe 4004, so that the water in the pipe 3007 can be discharged through the distance between the second through hole and the cathode rod 3006, thereby flushing the inner wall of the anode casing 3004 Under the action of water flow, the dust collected on the inner wall of the anode casing 3004 is taken away. At the same time, the water containing dust will flow back to the inside of the water tank 1001 through the connecting pipe 600, and the dust-containing water will be filtered through the activated carbon adsorption bed and the filter membrane to improve the recycling rate. When the sealing plate 1003 is pulled outward, the square groove is exposed. By setting a sliding bar, the fixed frame 1002 can be easily removed from the inside of the water tank 1001, so that the fixed frame 1002, the activated carbon adsorption bed and the filter membrane can be replaced.

Claims

1. A smart power plant flue gas automatic treatment structure, characterized by: The invention comprises a water storage mechanism (100), wherein the water storage mechanism (100) comprises a water tank (1001), a desulfurization mechanism (200) is provided on the upper end surface of the water tank (1001), a dust removal mechanism (300) is provided on the upper end of the desulfurization mechanism (200), and the dust removal mechanism (300) comprises a dust removal box (3001), the interior of the dust removal box (3001) is connected to a mounting frame (3002), a plurality of mounting grooves (3003) are provided at equal intervals in the mounting frame (3002), the interiors of the plurality of mounting grooves (3003) are connected to anode sleeves (3004), the interiors of the plurality of anode sleeves (3004) are provided with cathode rods (3006), the interior of the dust removal box (3001) is located above the mounting frame (3002) and is connected to a grille (3005), and the bottom of the grille (3005) is connected to the upper end of the cathode rod (3006).

2. The intelligent power plant flue gas automatic treatment structure according to claim 1 is characterized in that: A plurality of pipes (3007) are connected between the mounting frame (3002) and the grille (3005) on both sides of the inner wall of the dust removal box (3001), and a plurality of first through holes (3008) and second through holes are respectively provided at equal distances at the upper and lower ends of the plurality of pipes (3007), and a water delivery hole (3009) is provided on one side of the plurality of pipes (3007).

3. The intelligent power plant flue gas automatic treatment structure according to claim 2 is characterized in that: The upper end of the cathode rod (3006) passes through the second through hole and the first through hole (3008), and the outer wall of the cathode rod (3006) fits with the inner wall of the first through hole (3008), and the aperture of the first through hole (3008) is smaller than the aperture of the second through hole.

4. The intelligent power plant flue gas automatic treatment structure according to claim 1 is characterized in that: A water delivery mechanism (400) is provided on one side of the outer wall of the water tank (1001), and the water delivery mechanism (400) comprises a booster pump (4001). The water inlet and outlet of the booster pump (4001) are respectively connected to a first water delivery pipe and a second water delivery pipe (4002). An end of the first water delivery pipe away from the booster pump (4001) passes through the water tank (1001) and extends to the interior. An end of the second water delivery pipe (4002) away from the booster pump (4001) is connected to a water storage plate (4003), and a water storage cavity is provided inside the water storage plate (4003).

5. The intelligent power plant flue gas automatic treatment structure according to claim 4 is characterized in that: The water storage plate (4003) is arranged on one side of the outer wall of the dust removal box (3001), and the water storage plate (4003) and the opposite side of the dust removal box (3001) are connected, and the side of the water storage plate (4003) close to the dust removal box (3001) is connected to a plurality of diversion pipes (4004), and the ends of the plurality of diversion pipes (4004) away from the water storage plate (4003) all pass through the dust removal box (3001) and extend to the interior of the pipeline (3007) through the water delivery hole (3009), and the outer walls of the plurality of diversion pipes (4004) are all connected to the inner wall of the water delivery hole (3009).

6. The intelligent power plant flue gas automatic treatment structure according to claim 1 is characterized in that: The desulfurization mechanism (200) includes a desulfurization box (2001), the bottom end of the desulfurization box (2001) is connected to the upper end of the water tank (1001), and the four corners of the upper end of the desulfurization box (2001) are connected to support rods (2009), the upper ends of several support rods (2009) are connected to the bottom end of the dust removal box (3001), and the center of the upper end of the desulfurization box (2001) and the center of the bottom end of the dust removal box (3001) are each provided with a connecting hole (500), and a pair of the connecting holes (500) are connected to a connecting pipe (600). ), the front of the desulfurization box (2001) is connected to an air intake pipe (2002), the outside of the air intake pipe (2002) is provided with an air intake valve, first circular holes (2003) are provided on both sides of the outside of the desulfurization box (2001), and second circular holes (2004) are provided on both sides of the outside of the desulfurization box (2001) located on one side of the first circular hole (2003), a first spray pipe (2005) is connected between a pair of the first circular holes (2003), and a second spray pipe (2006) is connected between a pair of the second circular holes (2004).

7. The intelligent power plant flue gas automatic treatment structure according to claim 6 is characterized in that: A first pump (2007) is provided on one side of the outer wall of the desulfurization box (2001), and the water outlet end of the first pump (2007) is connected to a three-way connecting pipe (2008), and the two ends of the three-way connecting pipe (2008) away from the first pump (2007) are respectively connected to the first spray pipe (2005) and the second spray pipe (2006).

8. The intelligent power plant flue gas automatic treatment structure according to claim 1 is characterized in that: Slide bars are connected to both sides of the inner wall of the water tank (1001), and a fixed frame (1002) is slidably connected between a pair of the slide bars. An activated carbon adsorption bed and a filter membrane are sequentially arranged inside the fixed frame (1002) from top to bottom.

9. The intelligent power plant flue gas automatic treatment structure according to claim 8 is characterized in that: A square groove is provided on the front of the water tank (1001), a sealing plate (1003) is provided inside the square groove, one end of the sealing plate (1003) extends to the outside of the square groove, and a sealing ring (1005) is provided outside the sealing plate (1003) located inside the square groove, a sealing groove (1004) is provided on the inner wall of the square groove at the sealing ring (1005), and the inner wall of the sealing groove (1004) is pressed and fitted against the outer wall of the sealing ring (1005).

10. The intelligent power plant flue gas automatic treatment structure according to claim 6 is characterized in that: An opening is provided at the bottom end of the desulfurization box (2001), and the desulfurization box (2001) is connected to the water tank (1001) through the opening. The back of the water tank (1001) is connected to a waste pipe.

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