A silicon carbide ceramic microporous aerator

Abstract

This invention discloses a silicon carbide ceramic microporous aerator, relating to the field of aerator technology. It includes a drive mechanism, with a main body mechanism fixedly connected to the inner wall of the drive mechanism. The main body mechanism includes three gas pipes. In use, through the interaction between the drive mechanism and the main body mechanism, the device utilizes an underwater gas compressor to compress the gas, pressurizing the lower aeration chassis and the area between the sealing plugs. When the gas pressure push force exceeds the downward push force generated by the top spring, it can drive the sealing plug and adjusting plate upwards, keeping the switch button moving upwards and contacting the switch contacts. This connects the circuit and opens the gas valve, allowing high-pressure gas to instantly enter the gas collection tank through the high-pressure channel. The explosive high-pressure gas impacts the aeration micropores, clearing any blockages.

Description

Technical Field

[0001] This invention relates to the field of aerator technology, specifically to a silicon carbide ceramic microporous aerator. Background Technology

[0002] Microporous aerators are essential equipment for aeration and oxygenation. Their main function is to compress air, causing it to escape from the micropores of a rubber diaphragm, forming tiny bubbles that diffuse into the water, thereby increasing the dissolved oxygen content. This equipment plays a crucial role in wastewater treatment, affecting not only the biochemical treatment effect but also the land area, investment, and operating costs of the wastewater treatment plant. There are various types of microporous aerators, including suspended chain aerators, diaphragm microporous aerators, rotary aerators, tubular aerators, disc aerators, microporous ceramic aerators, and flexible tubular aerators. Tubular aerators can provide 360° omnidirectional oxygenation and also agitate the sludge at the bottom; while disc aerators can only oxygenate the top part of the disc, potentially causing sludge accumulation at the bottom. The advantages of microporous aerators include small and uniform bubbles, light weight, good corrosion resistance, and low cost.

[0003] In the prior art, such as Chinese Patent No. CN103601306B, a microporous aerator is provided, including a support disk with air inlet holes and a diaphragm covering the support disk. The diaphragm has micropores. The support disk is an annular curved disk body, with inner and outer pressure grooves on its inner and outer edges, respectively, and inner and outer pressure rings that cooperate with the pressure grooves. The diaphragm is annular and adapted to the support disk, with its edges pressed tightly within the pressure grooves by the pressure rings. The outer pressure ring has a baffle plate integrated with it, allowing the outermost bubbles to rise along the baffle plate and avoid necking due to radial water pressure. This invention has a reasonable design, simple structure, convenient use, high aeration efficiency, long aeration diaphragm life, stable aerator support, and quick on-site installation.

[0004] While the aforementioned equipment can provide stable support for the aerators and facilitate rapid on-site installation, existing aerators suffer from several drawbacks. During wastewater treatment, there is a repulsion between the generated oxygen and the wastewater, resulting in low dissolved oxygen efficiency. Furthermore, over long-term use, the aeration holes are prone to clogging, leading to uneven aeration and a series of problems (uneven oxygen delivery, uneven microbial distribution, poor mixing, and issues with pump and water treatment equipment operation). Additionally, equipment maintenance is often difficult, and without addressing these issues, wastewater treatment effectiveness and equipment operating efficiency will be negatively impacted. Summary of the Invention

[0005] The purpose of this invention is to provide a silicon carbide ceramic microporous aerator to solve the problem mentioned in the background that traditional aerators are prone to clogging of aeration holes during use, resulting in uneven aeration bubbles and affecting subsequent treatment efficiency.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a silicon carbide ceramic microporous aerator, comprising a driving mechanism, wherein a main body mechanism is fixedly connected to the inner wall of the driving mechanism;

[0007] The main structure includes three gas pipes. Each of the three gas pipes has an external frame fixedly connected to its outer wall. Each of the three external frames has a pre-set movable groove inside. Each of the three gas pipes has a set of one-way valves fixedly connected to its outer wall. Each of the three one-way valves has a locking groove on its outer wall. Multiple sliding plates are slidably embedded between the inner walls of the three movable grooves. Gas conveyors are fixedly connected between the outer walls of the sliding plates. A bottom connecting frame is fixedly connected to the bottom of each gas conveyor. A mounting plate is fixedly connected to one side of the outer wall of each gas conveyor. A corrugated pipe is fixedly connected to the output end of each gas conveyor. A gas connection guide is fixedly connected to the output end of each corrugated pipe. A locking block is fixedly connected to the outer wall of each gas connection guide, and the outer walls of the locking blocks are movably embedded inside the locking grooves.

[0008] Preferably, two miniature cylinders are fixedly connected to one side of the outer wall of each of the multiple sets of gas conveyors, and a linkage plate is fixedly connected to the telescopic end of each of the multiple sets of miniature cylinders. The outer wall of each of the multiple sets of linkage plates is fixedly connected to the outer wall of each of the multiple sets of gas connection guides. Two side sealing plates are fixedly connected between opposite sides of each of the multiple sets of mounting plates, and the outer wall of each of the multiple sets of side sealing plates is in contact with the outer wall of each of the multiple sets of miniature cylinders.

[0009] Preferably, the output ends of the multiple sets of gas conveyors are all fixedly connected to a connecting pipe, the top of the multiple sets of connecting pipes are all fixedly connected to a lower half aeration tray, a gas collection groove is opened at the center of the top of the multiple sets of lower half aeration trays, an upper half aeration balloon is threadedly connected to the top of the multiple sets of lower half aeration trays, and a set of aeration microholes is opened at the top of the multiple sets of upper half aeration balloons.

[0010] Preferably, each of the multiple sets of lower aeration chassis has an automatic telescopic rod fixedly connected to its inner top, and each of the multiple sets of lower aeration chassis has a spring body fixedly connected to its inner top. The outer walls of the multiple sets of automatic telescopic rods are movably inserted into the spring body. An adjustment plate is fixedly connected between the multiple sets of spring bodies and the telescopic ends of the multiple sets of automatic telescopic rods. A sealing plug is fixedly connected to the bottom of each of the multiple sets of adjustment plates.

[0011] Preferably, each of the multiple sets of adjustment plates is fixedly connected to a switch button on its top, and each of the multiple sets of lower aeration chassis is fixedly connected to a switch contact on its top inner wall, and the contact ends of the multiple sets of switch buttons are in contact with the bottom of the switch contact.

[0012] Preferably, the inner surface of the multiple sets of lower aeration chassis is provided with high-pressure channels, and air valves are fixedly inserted between the inner surface of the multiple sets of high-pressure channels. Bottom sealing plates are fixedly installed on the inner surface of the multiple sets of lower aeration chassis, and underwater gas compressors are fixedly inserted on the inner surface of the multiple sets of bottom sealing plates.

[0013] Preferably, the driving mechanism includes a processing pool, the inner wall of which is fixedly connected to two side mounting frames. Each of the two side mounting frames has a sliding groove at its top. Each of the two sliding grooves has a set of sliders slidably embedded in its inner wall. Each of the two sets of sliders has a fixed bracket at its top. Each of the two fixed brackets has a fixed groove at its top. Each of the two fixed grooves has a drive motor fixedly inserted into its inner wall.

[0014] Preferably, a toothed plate is fixedly connected to one side of the inner wall of each of the two side mounting frames, a limit groove is preset inside the two side mounting frames, a drive rod is fixedly installed on the rotating end of each of the two sets of drive motors, and the outer walls of the two sets of drive rods are movably inserted into the limit grooves, bearings are fixedly sleeved on the outer walls of the two sets of drive rods, gear bodies are fixedly sleeved on the outer walls of the two sets of drive rods, and the outer walls of the two sets of gear bodies are meshed with the inner surface of the toothed plate, and a base frame is fixedly sleeved between the outer walls of the two sets of bearings.

[0015] Preferably, each of the multiple base frames has a mounting groove at its bottom, and a set of microcontrollers is fixedly connected to the inner surface of each of the multiple mounting grooves. Each set of microcontrollers is fixedly connected to each other by a wire A, and the input terminals of each set of microcontrollers are fixedly connected to a wire B.

[0016] Preferably, the outer walls of the three gas pipes are fixedly connected to the inner wall of the treatment tank, and the bottom of the inner walls of the multiple base frames are fixedly connected to the bottom of multiple sets of bottom connecting frames.

[0017] Compared with the prior art, the beneficial effects of the present invention are:

[0018] 1. In use, the present invention utilizes an underwater gas compressor to compress gas through the interaction between the drive mechanism and the main body mechanism. This compresses the gas inside the lower aeration chassis and between the sealing plugs. When the gas pressure push is greater than the downward push generated by the top spring, it can drive the sealing plug and adjustment plate upwards, keeping the switch button moving upwards and contacting the switch contact. This connects the circuit and opens the gas valve, allowing high-pressure gas to instantly enter the gas collection tank through the high-pressure channel. The explosive high-pressure gas then impacts the aeration micropores, cleaning any blockages.

[0019] 2. In use, through the interaction between the drive mechanism and the main body mechanism, the device, with multiple sets of aerators installed inside the sewage and three aerators per set, can effectively maintain the movement of multiple sets of aerators on the outer wall of the gas pipe. Subsequently, after the connection between the gas connection guide and the one-way valve is achieved, the equipment can be kept in normal working condition. Furthermore, this processing method can effectively adjust the distance between each set of aerators, thereby adjusting the oxygenation content according to different water qualities, thus improving the cleaning effect.

[0020] 3. In use, the hemispherical design of the upper aerator body helps to reduce sludge accumulation on the surface of the aerator and reduce the possibility of clogging through the interaction between the drive mechanism and the main body mechanism. Attached Figure Description

[0021] Figure 1 This is a perspective view of the main structure of a silicon carbide ceramic microporous aerator according to the present invention.

[0022] Figure 2 This is a perspective view of the drive mechanism in a silicon carbide ceramic microporous aerator according to the present invention.

[0023] Figure 3 This is a three-dimensional exploded view of the drive mechanism in a silicon carbide ceramic microporous aerator according to the present invention.

[0024] Figure 4 This is a three-dimensional exploded view of the drive mechanism in a silicon carbide ceramic microporous aerator according to the present invention.

[0025] Figure 5 This is a side view of the main structure of a silicon carbide ceramic microporous aerator according to the present invention.

[0026] Figure 6 This is a three-dimensional view of the gas tube in a silicon carbide ceramic microporous aerator according to the present invention.

[0027] Figure 7 This is a three-dimensional enlarged view of the main structure of a silicon carbide ceramic microporous aerator according to the present invention.

[0028] Figure 8 This is an enlarged view of structure A in a silicon carbide ceramic microporous aerator of the present invention;

[0029] Figure 9 This is a three-dimensional exploded view of the main structure of a silicon carbide ceramic microporous aerator according to the present invention.

[0030] Figure 10 This is a cross-sectional plan view of the lower half of the aeration chassis in a silicon carbide ceramic microporous aerator according to the present invention.

[0031] In the diagram: 1. Drive mechanism; 101. Side mounting frame; 102. Sliding groove; 103. Slider; 104. Fixing frame; 105. Fixing groove; 106. Drive motor; 107. Gear plate; 108. Limiting groove; 109. Drive rod; 110. Bearing; 111. Gear body; 112. Base frame; 113. Mounting groove; 114. Microcontroller; 115. Wire A; 116. Wire B; 117. Treatment tank; 2. Main mechanism; 201. Gas pipe; 202. External frame; 203. Moving groove; 204. One-way valve; 205. Engaging groove; 206. Slide plate; 207. Gas conveyor 208. Feeder; 209. Bottom connecting frame; 210. Mounting plate; 211. Corrugated pipe; 212. Gas connection guide; 213. Locking block; 214. Miniature cylinder; 215. Linkage plate; 216. Side sealing plate; 217. Connecting pipe; 218. Lower half aeration chassis; 219. Gas collection trough; 220. Upper half aeration ball body; 221. Aeration micropores; 222. Automatic telescopic rod; 223. Spring body; 224. Switch button; 225. Switch contact; 226. High pressure channel; 227. Gas valve; 228. Adjusting plate; 229. Sealing plug; 230. Bottom sealing plate; 240. Underwater gas compressor. Detailed Implementation

[0032] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0033] Please see Figures 1-10 As shown, the present invention provides a silicon carbide ceramic microporous aerator, including a drive mechanism 1, and a main body mechanism 2 is fixedly connected to the inner wall of the drive mechanism 1.

[0034] The main body 2 includes three gas pipes 201. Each gas pipe 201 has an external bracket 202 fixedly connected to its outer wall. Each of the three external brackets 202 has a pre-set moving groove 203 inside. Each gas pipe 201 has a set of one-way valves 204 fixedly connected to its outer wall. Each one-way valve 204 has an engaging groove 205 on its outer wall. Multiple sliding plates 206 are slidably embedded between the inner walls of the three moving grooves 203. Gas conveyors 207 are fixedly connected between the outer walls of the multiple sliding plates 206. Each of the multiple gas conveyors 207 has a bottom connecting frame 208 fixedly connected to its bottom. Each of the multiple gas conveyors 207 has a mounting plate 209 fixedly connected to one side of its outer wall. Each of the multiple gas conveyors 207 has a bellows 210 fixedly connected to its output end. Each of the multiple bellows 210 has a gas connection guide 211 fixedly connected to its output end. Each of the multiple gas connection guides 211 has a set of locking blocks 212 fixedly connected to its outer wall. The outer walls of the multiple locking blocks 212 are movably embedded inside the multiple locking grooves 205.

[0035] according to Figure 9 As shown: Two miniature cylinders 213 are fixedly connected to one side of the outer wall of each of the multiple sets of gas conveyors 207. The telescopic ends of the multiple sets of miniature cylinders 213 are fixedly connected to linkage plates 214. The outer wall of the multiple sets of linkage plates 214 is fixedly connected to the outer wall of the multiple sets of gas connection guides 211. Two side sealing plates 215 are fixedly connected between opposite sides of the multiple sets of mounting plates 209. The outer wall of the multiple sets of side sealing plates 215 is in contact with the outer wall of the multiple sets of miniature cylinders 213. Firstly, each gas conveyor 207 is isolated from the two miniature cylinders 213 by two mounting plates 209 and two side sealing plates 215, so as to avoid direct contact between the external sewage and the miniature cylinders 213, thereby avoiding problems affecting the operation of the internal miniature cylinders 213 and the gas connection.

[0036] according to Figures 9-10 As shown: the output ends of multiple sets of gas conveyors 207 are all fixedly connected to connecting pipes 216, and the tops of multiple sets of connecting pipes 216 are all fixedly connected to lower half-aeration trays 217. Each set of lower half-aeration trays 217 has an air collection groove 218 at its top center, and each set of lower half-aeration trays 217 has an upper half-aeration balloon body 219 threadedly connected to its top. Each set of upper half-aeration balloon bodies 219 has a set of aeration micro-holes 220 at its top. Firstly, the connecting pipes 216 serve as a communication channel between the gas conveyors 207 and the lower half-aeration trays 217, effectively conveying gas from inside the gas conveyors 207 to inside the lower half-aeration trays 217. The gas is then transferred through the internal channels of the lower half-aeration trays 217 to the air collection grooves 218, and finally discharged through the aeration micro-holes 220 at its top, thus effectively oxygenating the external wastewater.

[0037] according to Figure 10 As shown: Automatic telescopic rods 221 are fixedly connected to the top of the inner wall of multiple sets of lower aeration chassis 217, and spring bodies 222 are fixedly connected to the top of the inner wall of multiple sets of lower aeration chassis 217. The outer walls of multiple sets of automatic telescopic rods 221 are movably inserted into the inside of spring bodies 222. Adjusting plates 227 are fixedly connected between the extension ends of multiple sets of spring bodies 222 and multiple sets of automatic telescopic rods 221. Sealing plugs 228 are fixedly connected to the bottom of multiple sets of adjusting plates 227. First, the spring body 222 is in contact with the top of the adjusting plate 227. The elastic pushing force generated by the spring body 222 itself will form a pushing force on the bottom adjusting plate 227. The automatic telescopic rods 221 can effectively limit the movement of the adjusting plate 227. Through the combination of the two, they can resist the high pressure pushing force at the bottom.

[0038] according to Figure 10 As shown: multiple sets of adjustment plates 227 are fixedly connected to the top of each switch button 223, and multiple sets of lower aeration chassis 217 are fixedly connected to the top of each inner wall of each switch contact 224. The contact ends of multiple sets of switch buttons 223 are in contact with the bottom of switch contacts 224. When the adjustment plate 227 moves upward, it can drive the switch button 223 fixed at its top to move in linkage. When it moves to a certain position, it can contact the switch contact 224 at the top, thereby maintaining the circuit of its internal equipment in a continuous state. This can effectively transmit current to the inside of the air valve 226 so that the air valve 226 is in an open state when energized.

[0039] according to Figure 10 As shown: High-pressure channels 225 are provided on the inner walls of multiple sets of lower aeration chassis 217. Air valves 226 are fixedly inserted between the inner walls of each set of high-pressure channels 225. Bottom sealing plates 229 are fixedly installed on the inner walls of each set of lower aeration chassis 217. Underwater gas compressors 230 are fixedly inserted into the inner walls of each set of bottom sealing plates 229. When the bottom underwater gas compressor 230 can pressurize the space between the lower aeration chassis 217 and the sealing plug 228, and maintain a high-pressure state inside, this high pressure forms a pressure on the sealing plug 228 and the regulating... When the plate 227 is pushed upward, the sealing plug 228 is higher than the position of the air valve 226 when it moves to a certain position. After the switch button 223 contacts the switch contact 224, a circuit is formed. When the air valve 226 is in the open state, the high pressure can be maintained and sprayed out from the inside of the high pressure channel 225. After staying inside the air collection groove 218, it can impact the inside of the upper half of the aeration balloon 219 and keep the gas from being discharged from the top aeration micro-hole 220, thereby completing the effective impact treatment of the impurities staying on the top.

[0040] according to Figures 3-4 As shown: The drive mechanism 1 includes a processing pool 117. Two side mounting frames 101 are fixedly connected to the inner wall of the processing pool 117. Each of the two side mounting frames 101 has a sliding groove 102 on its top. A set of sliders 103 is slidably embedded in the inner wall of each of the two sliding grooves 102. A fixing frame 104 is fixedly connected to the top of each of the two sets of fixing frames 104. A fixing groove 105 is opened on the top of each of the two sets of fixing grooves 105. A drive motor 106 is fixedly inserted into the inner wall of each of the two sets of fixing grooves 105. First, the drive motor 106 is fixedly inserted into the inside of the fixing groove 105, and the fixed state of the drive motor 106 and the fixing frame 104 is effectively realized. When the drive motor 106 is energized, it can drive the component fixed thereto to rotate through the drive rod 109 as a medium.

[0041] according to Figures 2-4 As shown: A toothed plate 107 is fixedly connected to one side of the inner wall of each of the two side mounting frames 101. Each of the two side mounting frames 101 has a pre-set limiting groove 108 inside. A drive rod 109 is fixedly mounted on the rotating end of each of the two drive motors 106, and the outer walls of both drive rods 109 are movably inserted into the limiting groove 108. Bearings 110 are fixedly sleeved on the outer walls of both drive rods 109, and gear bodies 111 are fixedly sleeved on the outer walls of both drive rods 109. The outer walls of the gear body 111 are meshed with the inner walls of the gear plate 107. The outer walls of the two sets of bearings 110 are fixedly fitted with a base frame 112. When the two drive motors 106 are energized, they can drive the gear body 111 to rotate using the drive rod 109 as a medium, and mesh with the inside of the gear plate 107. When the slider 103 is slidably limited inside the sliding groove 102, it can drive the component fixed thereto to move.

[0042] according to Figures 2-4 As shown: The bottom of multiple base frames 112 is provided with mounting slots 113. A set of microcontrollers 114 is fixedly connected to the inner wall of each mounting slot 113. The multiple sets of microcontrollers 114 are fixedly connected to each other by wires A115. The input terminals of the multiple sets of microcontrollers 114 are fixedly connected to wires B116. First, wires B116 can contact the power supply of the device, and the two microcontrollers 114 can receive control commands sent from the outside, thereby better operating and controlling a series of components inside the drive mechanism 1 and the main body mechanism 2.

[0043] according to Figures 1-5As shown: the outer walls of the three gas pipes 201 are all fixedly connected to the inner wall of the treatment tank 117, and the bottom of the inner walls of the multiple base frames 112 are all fixedly connected to the bottom of the multiple sets of bottom connecting frames 208. Firstly, with the connection of the above components, the connection between the drive mechanism 1 and the main body mechanism 2 can be effectively realized, and under the interaction between the two, the oxygen replenishment of the water can be effectively completed, which helps to decompose impurities.

[0044] The working principle of the entire mechanism is as follows: Before use, the three gas pipes 201 and the external frame 202 are fixedly installed between the inner walls of the treatment tank 117, and the bottom of the inner walls of the multiple base frames 112 are fixedly connected to the bottom of the multiple sets of bottom connecting frames 208. Symmetrical sets of one-way valves 204 are installed on the outer walls of the three gas pipes 201. These one-way valves 204 can only have the corresponding connecting device inserted from the outside; when pulled out, they automatically achieve a sealing state. During use, only the spacing between the multiple sets of aerators needs to be adjusted. Each set is driven by two drive motors 106. When the two drive motors 106 are energized, their output ends can maintain directional rotation, with the bottom drive rod 109 serving as the linkage medium. The gear body 111 can be driven to engage with the outer wall of the gear plate 107, and the drive rod 109 moves within the limiting groove 108. With the cooperation of the two bottom bearings 110, it can drive the base frame 112 and its fixed components to move longitudinally. Each set of two bottom connecting frames 208 is fixed to the bottom of the gas conveyor 207. With the sliding plate 206 slidably embedded in the moving groove 203, the gas conveyor 207 and its fixed components move longitudinally along the outer wall of the gas pipe 201, maintaining the alignment of the gas connection guide head 211 with the one-way valve 204. Driven by each set of miniature cylinders 213 and linked by the linkage plate 214... As a linkage medium, it can push the gas connection guide 211 forward and insert itself into the one-way valve 204, thereby realizing the connection between the one-way valve 204 and the gas connection guide 211. A set of locking blocks 212 are respectively movably inserted into the locking groove 205, which can limit and lock the connection state between the one-way valve 204 and the gas connection guide 211. In addition, the two micro cylinders 213 themselves have self-locking properties, maintaining the stability of this connection state. Under the suction of the two gas conveyors 207, using the bellows 210, the gas connection guide 211 and the one-way valve 204 as the conveying channel, the gas inside the gas pipe 201 can be drawn into itself and transmitted through the connecting pipe 216. Inside the gas collection tank 218, the gas accumulates and gradually rises, exiting through the aeration micropores 220. During this process, the underwater gas compressor 230 at the bottom remains operational, pressurizing the space between the lower aeration chassis 217 and the sealing plug 228. As the pressure increases, the high-pressure gas pushes the sealing plug 228 and the adjusting plate 227 upwards. Limited by the top spring body 222 and the automatic telescopic rod 221, the pressure is elastically resisted. When the pressure reaches a certain value, the adjusting plate 227 moves upwards to a certain position, keeping the switch button 223 moving upwards and contacting the switch contact 224.This establishes a connection between the current and the internal structure of the air valve 226, instantly activating it. At this moment, compressed gas instantly passes through the air valve 226 and enters the air collection tank 218 via the high-pressure channel 225. This instantaneous burst of high-pressure gas impacts the aeration micropores 220, clearing away impurities that are gradually clogging the top of the micropores. During this process, the pre-pressurization time of the underwater gas compressor 230 is controlled. At regular intervals, the underwater gas compressor 230 automatically starts to form a cycle, preventing blockage of the aerator.

[0045] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A silicon carbide ceramic microporous aerator, characterized in that: It includes a drive mechanism (1), and the inner wall of the drive mechanism (1) is fixedly connected to the main body mechanism (2). The main body (2) includes three gas pipes (201), each of which has an outer frame (202) fixedly connected to its outer wall. Each of the three sets of outer frames (202) has a pre-set moving groove (203). Each of the three gas pipes (201) has a set of one-way valves (204) fixedly connected to its outer wall. Each of the three sets of one-way valves (204) has a locking groove (205) on its outer wall. Multiple sliding plates (206) are slidably embedded between the inner walls of the three sets of moving grooves (203). A gas conveyor (2) is fixedly connected between the outer walls of the multiple sets of sliding plates (206). 07), the bottom of each of the multiple sets of gas conveyors (207) is fixedly connected to a bottom connecting frame (208), the outer wall of each of the multiple sets of gas conveyors (207) is fixedly connected to a mounting plate (209), the output end of each of the multiple sets of gas conveyors (207) is fixedly connected to a bellows (210), the output end of each of the multiple sets of bellows (210) is fixedly connected to a gas connection guide (211), the outer wall of each of the multiple sets of gas connection guides (211) is fixedly connected to a set of locking blocks (212), and the outer wall of each of the multiple sets of locking blocks (212) is movably embedded in the interior of multiple sets of locking grooves (205); The output ends of the multiple sets of gas conveyors (207) are all fixedly connected to the connecting pipes (216), the tops of the multiple sets of connecting pipes (216) are all fixedly connected to the lower half aeration trays (217), the top center of the multiple sets of lower half aeration trays (217) is provided with a gas collection groove (218), the tops of the multiple sets of lower half aeration trays (217) are all threadedly connected to the upper half aeration balloon body (219), and the tops of the multiple sets of upper half aeration balloon bodies (219) are provided with a set of aeration micropores (220). Each of the multiple sets of lower aeration chassis (217) has an automatic telescopic rod (221) fixedly connected to the top of its inner wall. Each of the multiple sets of lower aeration chassis (217) has a spring body (222) fixedly connected to the top of its inner wall. The outer walls of the multiple sets of automatic telescopic rods (221) are movably inserted into the inside of the spring body (222). An adjustment plate (227) is fixedly connected between the extension and retraction ends of the multiple sets of spring bodies (222) and the multiple sets of automatic telescopic rods (221). A sealing plug (228) is fixedly connected to the bottom of the multiple sets of adjustment plates (227). Each of the multiple sets of adjustment plates (227) is fixedly connected to a switch button (223) on its top, and each of the multiple sets of lower half aeration chassis (217) is fixedly connected to a switch contact (224) on its top inner wall, and the contact ends of the multiple sets of switch buttons (223) are in contact with the bottom of the switch contact (224). High-pressure channels (225) are provided on the inner surface of the multiple sets of lower aeration chassis (217). Air valves (226) are fixedly inserted between the inner surface of the multiple sets of high-pressure channels (225). Bottom sealing plates (229) are fixedly installed on the inner surface of the multiple sets of lower aeration chassis (217). Underwater gas compressors (230) are fixedly inserted on the inner surface of the multiple sets of bottom sealing plates (229).

2. The silicon carbide ceramic microporous aerator according to claim 1, characterized in that: Two miniature cylinders (213) are fixedly connected to one side of the outer wall of each of the multiple sets of gas conveyors (207). A linkage plate (214) is fixedly connected to the telescopic end of each of the multiple sets of miniature cylinders (213). One side of the outer wall of each of the multiple sets of linkage plates (214) is fixedly connected to the outer wall of each of the multiple sets of gas connection guides (211). Two side sealing plates (215) are fixedly connected between opposite sides of each of the multiple sets of mounting plates (209). One side of the outer wall of each of the multiple sets of side sealing plates (215) is in contact with one side of the outer wall of each of the multiple sets of miniature cylinders (213).

3. The silicon carbide ceramic microporous aerator according to claim 2, characterized in that: The drive mechanism (1) includes a processing pool (117). Two side mounting frames (101) are fixedly connected to the inner wall of the processing pool (117). Each of the two side mounting frames (101) has a sliding groove (102) on its top. Each of the two sliding grooves (102) has a set of sliders (103) slidably embedded in its inner wall. Each of the two sets of sliders (103) has a fixed frame (104) fixedly connected to its top. Each of the two sets of fixed frames (104) has a fixed groove (105) on its top. Each of the two sets of fixed grooves (105) has a drive motor (106) fixedly inserted into its inner wall.

4. A silicon carbide ceramic microporous aerator according to claim 3, characterized in that: A toothed plate (107) is fixedly connected to one side of the inner wall of each of the two side mounting frames (101). A limiting groove (108) is preset inside each of the two side mounting frames (101). A drive rod (109) is fixedly installed on the rotating end of each of the two sets of drive motors (106). The outer walls of the two sets of drive rods (109) are movably inserted into the limiting groove (108). A bearing (110) is fixedly sleeved on the outer walls of each of the two sets of drive rods (109). A gear body (111) is fixedly sleeved on the outer walls of each of the two sets of drive rods (109). The outer walls of the two sets of gear bodies (111) are meshed with the inner surface of the toothed plate (107). A base frame (112) is fixedly sleeved between the outer walls of the two sets of bearings (110).

5. A silicon carbide ceramic microporous aerator according to claim 4, characterized in that: Each of the multiple base frames (112) has a mounting slot (113) at its bottom. Each of the multiple mounting slots (113) has a set of microcontrollers (114) fixedly connected to its inner surface. Each of the multiple sets of microcontrollers (114) is fixedly connected to each other by a wire A (115). Each of the multiple sets of microcontrollers (114) has a fixedly connected input terminal by a wire B (116).

6. A silicon carbide ceramic microporous aerator according to claim 5, characterized in that: The outer walls of the three gas pipes (201) are fixedly connected to the inner wall of the treatment tank (117), and the bottom of the inner walls of the multiple base frames (112) are fixedly connected to the bottom of multiple sets of bottom connecting frames (208).

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