A method for algae removal in water based on spore transfer technology

Abstract

This invention relates to the field of wastewater treatment technology, specifically a water algae removal method based on spore transfer technology. S1: Reaction-side water inlet stage: water enters through the inlet; S2: Reaction-side reaction stage: air bubbles are discharged through the spore transfer mechanism, thereby purifying the wastewater. The air bubbles react with algae in the wastewater. When the device is in use, the cover plate moves upward under buoyancy when the water level is high, and automatically discharges sludge when the water level rises to a certain height, thus automatically controlling the outflow rate during sludge discharge to avoid the phenomenon where the overall liquid level is slightly higher than the drainage liquid level, resulting in only water flowing out while flocculent waste cannot. When the water level drops, the feed hopper automatically closes magnetically under the action of the cover plate, effectively controlling the water level depth on the reaction side to prevent water from flowing out when the water level is slightly higher than the drainage liquid level, thus preventing the flocculent waste from being discharged.

Description

Technical Field

[0001] This invention relates to the field of wastewater treatment technology, and in particular to a method for removing algae from water based on spore transfer technology. Background Technology

[0002] Spore transfer technology in water treatment involves forming highly dispersed microbubbles in water, which adhere to hydrophobic solid or liquid particles in the wastewater, forming a three-phase mixed system of water, air, and particles. After the particles adhere to the bubbles, they form flocs with an apparent density less than that of water and float to the surface, forming a scum layer that is scraped off, thus achieving solid-liquid or liquid-liquid separation.

[0003] As described in application number "CN201920793240.X", when a spore transfer integrated machine is used for decontamination using spore transfer technology, the flocculent scum on the reaction side needs to be collected to complete the slag removal process. Therefore, the overall liquid level of the device must be higher than that on the drainage side. However, when water flows out due to poor sealing or gaps in the device, it will be difficult for the overall liquid level on the reaction side to rise, thus affecting the slag removal process. At the same time, the overall liquid level needs to be manually adjusted during drainage, requiring manual control of the liquid level on the reaction side before the waste residue is discharged. This makes the waste residue discharge process of the device highly susceptible to external factors, easily resulting in the overall liquid level being slightly higher than the drainage liquid level, making it difficult to discharge the waste residue. Summary of the Invention

[0004] The purpose of this invention is to provide a water algae removal method based on spore transfer technology to solve the problems mentioned in the background art.

[0005] A water algae removal method based on spore transfer technology includes:

[0006] S1: Reaction side water intake stage: Water enters through the inlet;

[0007] S2: Reaction stage on the reaction side: The spore transfer mechanism discharges bubbles to purify the wastewater. The bubbles react with algae in the wastewater to form flocculent waste residue, which then floats on the water surface.

[0008] S3: Water storage stage: As sewage enters the reaction side, the water level on the reaction side rises. The height of the effluent can be adjusted by adjusting the height of the isolation layer.

[0009] S4: Slag discharge stage: When the water level rises to a certain height, the feed hopper opens automatically. The feed hopper has a certain height, so the surface water and flocculent waste slag will enter the waste slag collection side through the feed hopper, thereby completing the collection of waste slag.

[0010] S5: Waste treatment stage: The wastewater after the reaction is completed is discharged through the outlet. A slag discharge port is set on the waste collection side to discharge the collected waste.

[0011] The above algae removal method, steps S1-S5, involves a water storage tank, inlet, outlet, isolation layer, spore transfer mechanism, and feed hopper working together to complete the corresponding treatment operations.

[0012] The water storage tank is divided into a reaction side and a waste collection side. The reaction side is provided with an inlet, an outlet and an isolation layer. The inlet is located opposite the isolation layer. The isolation layer is located at the center of the water storage tank. The feed hopper is located on the side of the isolation layer.

[0013] Water can be discharged and introduced into the reaction side through the inlet and outlet, thereby purifying the water. The waste collection side is equipped with a slag discharge port, which allows the waste to be discharged.

[0014] The spore transfer mechanism described in S2 includes a fixed frame and vent holes. The fixed frame is provided at the bottom of the reaction side and is connected to an external spore transfer integrated machine. Vent holes are evenly distributed on the surface of the fixed frame. The vent holes are rectangular and the vent holes in adjacent rows are arranged in a crisscross pattern.

[0015] Bubbles are generated by an external spore transfer unit and then evenly discharged through the exhaust vent. The rising bubbles combine with substances in the wastewater to form flocculent waste residue. Because the flocculent waste residue has a low density, it floats to the surface and is then collected to complete the purification of the wastewater.

[0016] The isolation layer described in S3 includes a first partition, a sealing strip, and a second partition. The water storage tank is divided by the first partition and the second partition. The first partition and the second partition are slidably connected. A sealing strip is provided on the inner side of the water storage tank.

[0017] The sealing strip can seal the first and second partitions, increasing the airtightness between the devices. At the same time, the difference between the long ends of the first and second partitions is small, so the sealing strip can seal the first and second partitions simultaneously. The first and second partitions can slide, thereby adjusting the height of the first partition and thus the height of the inlet water, regulating the water level of the flocculent waste residue entering from the reaction side to the waste residue collection side.

[0018] The outlet described in S5 is located on the side of the reaction side, and the outlet is located between the isolation layer and the fixing frame.

[0019] Because the outlet is located between the isolation layer and the fixing frame, it can be ensured that the discharged water has undergone spore transfer, thereby removing impurities such as algae from its interior, before being discharged through the outlet.

[0020] The first partition is symmetrically equipped with fixing bolts inside, and a connecting rod is rotatably equipped on the side of the fixing bolt. A limit rod is rotatably equipped at the other end of the connecting rod. The limit rod is slidably installed inside the water storage tank and embedded in the slot. The slot is equidistantly opened on the side of the water storage tank.

[0021] After the height of the first partition is adjusted, the position of the connecting rod is adjusted by rotating the fixing bolt. When the position of the connecting rod changes, the position of the limiting rod is adjusted, so that the limiting rod is embedded in the slot, thereby effectively limiting the height of the first partition. When the limiting rod and the slot are not on the same horizontal plane, the limiting rod can also increase the friction between the devices, thereby improving the stability of the device during use.

[0022] A feed hopper is provided on one side of the first partition, a connecting pipe is provided on the other side of the first partition, and a water outlet pipe is provided on the side of the connecting pipe.

[0023] The feed hopper collects surface water and waste residue from the reaction side. Then, under the action of water flow, the waste residue enters the water outlet pipe through the connecting pipe. The feed hopper, connecting pipe and water outlet pipe are internally connected. After that, water enters the waste residue collection side through the water outlet pipe, thereby collecting the waste residue.

[0024] A limit plate is installed on the inner side of the feed hopper, and guide rods are symmetrically arranged inside the limit plate.

[0025] The feed hopper has an embedded cover plate with a sealing layer at the lower end and a limit post at the upper end. A guide rod is slidably installed inside the limit post, and the limit plate is magnetic.

[0026] When the water level on the reaction side 23 is high, the density of the cover plate 12 is low, and it generates buoyancy to move upward under the action of water. The limiting plate 10 is magnetic and can limit the cover plate 12. Therefore, when a small part of the cover plate 12 is submerged by water, the cover plate 12 will not move upward under the action of magnetic force. Only when the cover plate 12 is submerged by a large amount of water (i.e., when the preset submerged volume of the cover plate is reached), the buoyancy of the cover plate 12 is also large, which will cause the cover plate 12 and the limiting plate 10 to separate. At this time, the limiting plate 10 does not cover the feed hopper 9, so water and flocculent matter will enter the feed hopper 9, thereby discharging the flocculent scum on the water surface and collecting the surface flocculent matter on the reaction side 23 to the waste scum collection side 26. At the same time, since the limiting plate 10 is inclined, it can prevent flocculent matter from adhering to the surface of the limiting plate 10.

[0027] When the cover plate moves up and down, the guide rod will position the limiting post, thereby positioning the cover plate and preventing misalignment when the cover plate moves up and down. When the water level is low, the cover plate moves down again to return to its original position. At this time, the cover plate will be embedded in the inside of the feed hopper, and the limiting plate will adsorb and fix the cover plate. At the same time, the sealing layer will seal between the feed hopper and the cover plate to prevent water from flowing into the feed hopper when closed.

[0028] The magnetic attraction design of the limiting plate to the cover plate can prevent the limiting plate from being too close to the cover plate. This avoids the situation where water flows into the feed hopper when the liquid level is slightly higher than the feed hopper, while the flocculent waste does not flow into the feed hopper.

[0029] A positioning rod is installed at the center of the water outlet pipe. A blocking rod is slidably installed at the lower end of the positioning rod. The blocking rod engages with the lower opening of the water outlet pipe. A fixing cap is threaded to the upper end of the blocking rod. A fixing spring is installed on the outside of the positioning rod and is located inside the blocking rod.

[0030] When water enters the outlet pipe, the water exerts pressure on the plug rod, causing the plug rod to move downwards. The plug rod and the fixing cap exert pressure on the fixing spring, causing the fixing spring to contract. The plug rod then slides along the surface of the positioning rod, thereby opening the lower end of the outlet pipe to drain water.

[0031] When some water flows into the outlet pipe due to improper sealing, it will cause waste residue to adhere to the inner wall of the outlet pipe and prevent the liquid level on the reaction side from rising, thus causing blockage of the outlet pipe and the inability to discharge flocculent waste residue.

[0032] When a small flow of water enters the outlet pipe, the impact force of the water flow is small and the overall liquid level is low, so the force of the water flow on the blocking rod is also small, which will prevent the blocking rod from opening. This avoids the phenomenon that waste residue adheres to the inside of the outlet pipe and the liquid level on the reaction side cannot rise.

[0033] When the liquid level on the reaction side rises to a certain height, the feed hopper will automatically open. At this time, the water pressure and water flow impact force are relatively large, so they will push the blocking rod to open. At the same time, when the water flows, it will also put pressure on the blocking rod to prevent the blocking rod from moving upward. This allows the waste residue to enter the waste residue collection side stably from the reaction side, and then collect the flocculent waste residue on the reaction side.

[0034] The waste residue collection side of S4 is provided with a guide plate at its bottom, the rotating end of which is close to the slag discharge port, and an electric push rod is provided at the bottom of the guide plate.

[0035] The angle of the guide plate can be adjusted by moving the electric push rod. When the guide plate moves upward, it will form an outward water flow on the waste collection side, which will facilitate the discharge of waste. At the same time, when the water level on the waste collection side is low, adjusting the angle of the guide plate will also facilitate the discharge of residual water, thus facilitating the collection of waste on the waste collection side.

[0036] The beneficial effects of this invention are:

[0037] When the device is in use, when the water level is high, the cover plate will only move upward under the action of buoyancy after being submerged to a certain depth. Then, when the water level rises to a certain height, the slag will be automatically discharged, thus automatically controlling the water discharge speed during slag discharge. This avoids the phenomenon where the overall liquid level is slightly higher than the drainage liquid level, resulting in only water flowing out while the flocculent waste cannot be discharged. When the water level drops, the feed hopper will automatically close magnetically under the action of the cover plate, thus effectively controlling the water level depth on the reaction side and avoiding the phenomenon where water flows out when the water level is slightly higher than the drainage liquid level, preventing the flocculent waste from being discharged.

[0038] When the water level is higher than the slag discharge position, or when gaps form between devices due to prolonged use, water will flow out from the gaps, while flocculent waste residue will remain on the reaction side surface, preventing the water level from rising effectively and thus hindering the effective discharge of flocculent waste. This device addresses this issue by reducing the impact force of the water flow as it gradually enters the outlet pipe, thus preventing the blocking rod from moving downwards. As the water level rises, the water pressure causes the blocking rod to move downwards, opening the device. The impact of the water flow then keeps the blocking rod open, allowing water and flocculent waste residue to be continuously discharged.

[0039] Through the magnetic attraction design of the limiting plate and the cover plate, the cover plate will only separate from the limiting plate under the buoyancy of the water when the water level is high. Then, the limiting plate will continue to move upward under the buoyancy, thus creating a large gap between the cover plate and the limiting plate to facilitate the discharge of scum. When the water level is low, the cover plate will move downward under the magnetic force to close the feed hopper, thus avoiding the phenomenon that waste scum cannot be discharged and water is discharged when the liquid level is low. Attached Figure Description

[0040] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0041] Figure 1 This is a schematic diagram of spore transfer according to the present invention;

[0042] Figure 2 This is a schematic diagram of the overall three-dimensional structure of the present invention;

[0043] Figure 3 This is a schematic diagram of the connection structure between the water storage tank and the sealing strip of the present invention;

[0044] Figure 4 This is a top view of the internal structure of the water storage tank of the present invention;

[0045] Figure 5 This is a schematic diagram of the installation structure of the feed hopper and cover plate of the present invention;

[0046] Figure 6 This is a schematic diagram of the internal structure of the water outlet pipe of the present invention;

[0047] Figure 7 This is a three-dimensional structural diagram of the installation of the first and second partitions of the present invention;

[0048] Figure 8 This is a schematic diagram of the liquid level in a typical apparatus;

[0049] Figure 9 This is a schematic diagram of the liquid surface according to the present invention.

[0050] In the diagram: 1. Water storage tank; 2. First partition plate; 3. Fixing bolt; 4. Connecting rod; 5. Limiting rod; 6. Slot; 7. Sealing strip; 8. Second partition plate; 9. Feed hopper; 10. Limiting plate; 11. Guide rod; 12. Cover plate; 13. Limiting post; 14. Sealing layer; 15. Connecting pipe; 16. Water outlet pipe; 17. Positioning rod; 18. Blocking rod; 19. Fixing cap; 20. Fixing spring; 21. Fixing frame; 22. Vent; 23. Reaction side; 24. Water inlet; 25. Water outlet; 26. Waste residue collection side; 27. Slag discharge port. Detailed Implementation

[0051] 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.

[0052] In practical implementation: such as Figure 1-7 As shown, a water algae removal method based on spore transfer technology includes:

[0053] S1: Reaction side 23 water inlet stage: water enters through inlet 24;

[0054] S2: Reaction side 23 Reaction stage: The spore transfer mechanism discharges bubbles to purify the wastewater. The bubbles react with algae in the wastewater to form flocculent waste residue, which then floats on the water surface.

[0055] S3: Water storage stage: As sewage enters the reaction side 23, the water level of the reaction side 23 rises. The height of the effluent can be adjusted by adjusting the height of the isolation layer.

[0056] S4: Slag discharge stage: When the water level rises to a certain height, the feed hopper 9 opens automatically. The feed hopper 9 has a certain height, so the surface water and flocculent waste slag will enter the waste slag collection side 26 through the feed hopper 9, thereby completing the collection of waste slag.

[0057] S5: Waste treatment stage: The wastewater after the reaction is completed is discharged through the outlet 25. The waste collection side 26 is equipped with a slag discharge port 27, through which the collected waste slag is discharged.

[0058] The above-mentioned algae removal method, steps S1-S5, involves the coordinated operation of the water storage tank 1, inlet 24, outlet 25, isolation layer, spore transfer mechanism, and feed hopper 9 to complete the corresponding treatment operations.

[0059] The water storage tank 1 is divided into a reaction side 23 and a waste collection side 26. The reaction side 23 is provided with an inlet 24, an outlet 25 and an isolation layer. The inlet 24 is located opposite the isolation layer. The isolation layer is located at the center of the water storage tank 1. The feed hopper 9 is located on the side of the isolation layer.

[0060] Water can be discharged and entered through the inlet 24 and outlet 25 to purify the water, while the waste collection side 26 is provided with a slag discharge port 27 to discharge the waste.

[0061] The spore transfer mechanism of S2 includes a fixed frame 21 and an exhaust port 22. The fixed frame 21 is provided at the bottom of the reaction side 23. The fixed frame 21 is connected to the external spore transfer integrated machine. The surface of the fixed frame 21 is evenly distributed with exhaust ports 22. The exhaust ports 22 are rectangular and the positions of the exhaust ports 22 in adjacent rows are arranged in a cross pattern.

[0062] Bubbles are generated by an external spore transfer unit and then evenly discharged through the exhaust port 22. The upward-floating bubbles combine with substances in the sewage to form flocculent waste residue. Because the flocculent waste residue has a low density, it floats to the surface of the water. The flocculent waste residue is then collected to complete the purification of the sewage.

[0063] The isolation layer of S3 includes a first partition 2, a sealing strip 7, and a second partition 8. The water storage tank 1 is divided by the first partition 2 and the second partition 8. The first partition 2 and the second partition 8 are slidably connected. A sealing strip 7 is provided on the inner side of the water storage tank 1.

[0064] The sealing strip 7 can seal the first partition 2 and the second partition 8, increasing the airtightness between the devices. At the same time, the difference between the long ends of the first partition 2 and the second partition 8 is small, so the sealing strip 7 can seal the first partition 2 and the second partition 8 simultaneously. The first partition 2 and the second partition 8 can slide, thereby adjusting the height of the first partition 2, and thus adjusting the height of the inlet water, regulating the water level of the flocculent waste residue entering from the reaction side 23 to the waste residue collection side 26.

[0065] The outlet 25 of S5 is located on the side of the reaction side 23, and the outlet 25 is located between the isolation layer and the fixing frame 21.

[0066] Since the outlet 25 is located between the isolation layer and the fixing frame 21, it can be ensured that the discharged water has undergone spore transfer, thereby removing impurities such as algae inside, and then the water is discharged through the outlet 25.

[0067] The first partition 2 is symmetrically and rotatably equipped with a fixing bolt 3. The side of the fixing bolt 3 is rotatably equipped with a connecting rod 4. The other end of the connecting rod 4 is rotatably equipped with a limiting rod 5. The limiting rod 5 is slidably installed inside the water storage tank 1. The limiting rod 5 is embedded in the slot 6. The slot 6 is equidistantly opened on the side of the water storage tank 1.

[0068] After the height of the first partition 2 is adjusted, the position of the connecting rod 4 is adjusted by rotating the fixing bolt 3. When the position of the connecting rod 4 changes, the position of the limiting rod 5 is adjusted, so that the limiting rod 5 is embedded in the slot 6, thereby effectively limiting the height of the first partition 2. When the limiting rod 5 is not on the same horizontal plane, the limiting rod 5 can also increase the friction between the devices, thereby improving the stability of the device during use.

[0069] A feed hopper 9 is provided on one side of the first partition 2, a connecting pipe 15 is provided on the other side of the first partition 2, and a water outlet pipe 16 is provided on the side of the connecting pipe 15.

[0070] The feed hopper 9 collects the surface water and waste residue on the reaction side 23. Then, under the action of the water flow, the waste residue enters the water outlet pipe 16 through the connecting pipe 15. The feed hopper 9, the connecting pipe 15 and the water outlet pipe 16 are connected internally. Then, the water enters the waste residue collection side 26 through the water outlet pipe 16, thereby collecting the waste residue.

[0071] A limit plate 10 is provided on the inner side of the feed hopper 9, and guide rods 11 are symmetrically arranged inside the limit plate 10.

[0072] The feed hopper 9 has an embedded cover plate 12. The lower end of the cover plate 12 is provided with a sealing layer 14. The upper end of the cover plate 12 is provided with a limit post 13. The limit post 13 is slidably provided with a guide rod 11. The limit plate 10 is magnetic.

[0073] When the water level on the reaction side 23 is high, the density of the cover plate 12 is low, and it generates buoyancy to move upward under the action of water. The limiting plate 10 is magnetic and can limit the cover plate 12. Therefore, when the water submerges part of the cover plate 12, the cover plate 12 will not move upward under the action of magnetic force. Only when the water submerges a large part of the cover plate 12, the buoyancy of the cover plate 12 is large, so the cover plate 12 and the limiting plate 10 will separate. At this time, the limiting plate 10 does not cover the feed hopper 9, so water and flocculent matter will enter the feed hopper 9, thereby discharging the flocculent scum on the water surface and collecting the surface flocculent matter on the reaction side 23 to the waste scum collection side 26. At the same time, since the limiting plate 10 is inclined, it can prevent flocculent matter from adhering to the surface of the limiting plate 10.

[0074] like Figure 8 As shown, when the liquid level is slightly higher than the outlet, water will flow out. However, because the overall liquid level is low, the flocculent waste residue will have difficulty flowing out.

[0075] like Figure 9 As shown, the device will only open the feed hopper 9 to drain water when the liquid level is higher than the higher position of the feed hopper 9, so that water and flocculent scum will flow into the interior of the feed hopper 9.

[0076] When the cover plate 12 moves up and down, the guide rod 11 will position the limiting post 13, thereby positioning the cover plate 12 and preventing misalignment when the cover plate 12 moves up and down. When the water level is low, the cover plate 12 moves down again to return to its original position. At this time, the cover plate 12 will be embedded in the inside of the feed hopper 9, and the limiting plate 10 will adsorb and fix the cover plate 12. At the same time, the sealing layer 14 will seal the feed hopper 9 and the cover plate 12 to prevent water from flowing into the inside of the feed hopper 9 when it is closed.

[0077] The magnetic attraction design of the limiting plate 10 to the cover plate 12 can prevent the limiting plate 10 from being too close to the cover plate 12. This avoids the situation where water flows into the feed hopper 9 when the liquid level is slightly higher than the feed hopper 9, while the flocculent waste does not flow into the feed hopper 9.

[0078] A positioning rod 17 is provided at the center of the water outlet pipe 16. A blocking rod 18 is slidably provided at the lower end of the positioning rod 17. The blocking rod 18 is engaged with the lower opening of the water outlet pipe 16. A fixing cap 19 is threadedly connected to the upper end of the blocking rod 18. A fixing spring 20 is provided on the outside of the positioning rod 17 and is located inside the blocking rod 18.

[0079] When water enters the outlet pipe 16, the water will exert pressure on the blocking rod 18, causing the blocking rod 18 to move downward. The blocking rod 18 and the fixing cap 19 will exert pressure on the fixing spring 20, causing the fixing spring 20 to contract. The blocking rod 18 will slide along the surface of the positioning rod 17, thereby opening the lower end of the outlet pipe 16 to drain water.

[0080] When some water flows into the outlet pipe 16 due to improper sealing, it will cause waste residue to adhere to the inner wall of the outlet pipe 16 and the liquid level on the reaction side 23 to fail to rise, thus causing blockage of the outlet pipe 16 and the inability to discharge flocculent waste residue.

[0081] When a small flow of water enters the outlet pipe 16, the impact force of the water flow is small and the overall liquid level is low, so the force of the water flow on the blocking rod 18 is also small, which will prevent the blocking rod 18 from opening, thus avoiding the phenomenon that waste residue adheres to the inside of the outlet pipe 16 and the liquid level on the reaction side 23 cannot rise.

[0082] When the liquid level on the reaction side 23 rises to a certain height, the feed hopper 9 will automatically open. At this time, the water pressure and water flow impact force are relatively large, so they will push the blocking rod 18 to open. At the same time, when the water flows, it will also put pressure on the blocking rod 18 to prevent the blocking rod 18 from moving upward. This allows the waste residue to enter the waste residue collection side 26 stably from the reaction side 23, and then collect the flocculent waste residue on the reaction side 23.

[0083] The waste collection side 26 of S4 is equipped with a guide plate that rotates at the bottom. The rotating end of the guide plate is close to the slag discharge port 27, and an electric push rod is installed at the bottom of the guide plate.

[0084] The angle of the guide plate can be adjusted by moving the electric push rod. When the guide plate moves upward, it will form an outward water flow on the waste collection side 26, which will facilitate the discharge of waste. At the same time, when the water level on the waste collection side 26 is low, adjusting the angle of the guide plate will also facilitate the discharge of residual water, thereby facilitating the collection of waste on the waste collection side 26.

[0085] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0086] Finally, it should be noted that the above are merely preferred embodiments of the present invention and are not intended to limit the present invention. 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 method for removing algae from a water body based on spore transfer technology, characterized by, Comprise; S1: the water inlet stage of the reaction side (23): water is fed through the water inlet (24); S2: the reaction stage of the reaction side (23): bubbles are discharged through the spore transfer mechanism to purify the sewage, the bubbles react with algae in the sewage to form flocculent waste residues, and the flocculent waste residues are suspended on the water surface; S3: the water storage stage: as the sewage enters the reaction side (23), the water level of the reaction side (23) rises, and the height of the water outlet can be adjusted by adjusting the height of the isolation layer; S4: the waste residue discharge stage: when the water level rises to a certain height, the feeding hopper (9) is automatically opened, the feeding hopper (9) has a certain height, so that the water and the flocculent waste residues on the surface enter the waste residue collection side (26) through the feeding hopper (9), thereby completing the collection of the waste residues; S5: the waste residue treatment stage: the sewage after the reaction is discharged through the water outlet (25), and the waste residue collection side (26) is provided with a waste residue discharge port (27) through which the collected waste residues are discharged; The operation procedures in the above-mentioned algae removal method S1-S5 are completed by the water storage tank (1), the water inlet (24), the water outlet (25), the isolation layer, the spore transfer mechanism and the feeding hopper (9) cooperating to complete the corresponding treatment operation, wherein: The water storage tank (1) is divided into a reaction side (23) and a waste residue collection side (26), the reaction side (23) is provided with a water inlet (24), a water outlet (25) and an isolation layer, the water inlet (24) is arranged opposite to the isolation layer, the isolation layer is arranged at the center position of the water storage tank (1), and the feeding hopper (9) is arranged at the side of the isolation layer; the inner side of the feeding hopper (9) is provided with a limiting plate (10), the inside of the limiting plate (10) is symmetrically provided with a guide rod (11); the feeding hopper (9) is embeddedly installed with a cover plate (12), the lower end of the cover plate (12) is provided with a sealing layer (14), the upper end of the cover plate (12) is provided with a limiting column (13), the inside of the limiting column (13) is slidably provided with a guide rod (11), and the limiting plate (10) has magnetism; when the water level is high, the cover plate is submerged to a deep height by water, the cover plate moves upward under the action of buoyancy, and then the water level rises to a certain height to automatically discharge the waste residues; when the water level drops, the feeding hopper is automatically magnetically closed under the action of the cover plate.

2. The method for removing algae from water bodies based on spore transfer technology according to claim 1, characterized in that: The spore transfer mechanism of S2 comprises a fixing frame (21) and an exhaust hole (22), the bottom of the reaction side (23) is provided with the fixing frame (21), the fixing frame (21) is connected with an external spore transfer integrated machine, the surface of the fixing frame (21) is uniformly distributed with the exhaust hole (22), the exhaust hole (22) is arranged in a rectangular shape, and the positions of the exhaust holes (22) in adjacent rows are arranged in a cross shape.

3. The method for removing algae from water bodies based on spore transfer technology according to claim 1, characterized in that: The isolation layer of S3 comprises a first partition plate (2), a sealing strip (7) and a second partition plate (8), the water storage tank (1) is divided by the first partition plate (2) and the second partition plate (8), the first partition plate (2) and the second partition plate (8) are in sliding connection, and the inner side of the water storage tank (1) is provided with the sealing strip (7).

4. The method for removing algae from water bodies based on spore transfer technology according to claim 2, characterized in that: The water outlet (25) provided on the side of the reaction side (23) is arranged between the insulation layer and the fixing frame (21).

5. The method for removing algae from water bodies based on spore transfer technology according to claim 3, characterized in that: The first partition (2) is internally symmetrically provided with a fixing bolt (3), the side of the fixing bolt (3) is rotatably provided with a connecting rod (4), the other end of the connecting rod (4) is rotatably provided with a limiting rod (5), the limiting rod (5) is slidably arranged in the inside of the water storage pool (1), the limiting rod (5) is embeddedly arranged in the inside of the clamping groove (6), and the clamping groove (6) is equidistantly arranged on the side of the water storage pool (1).

6. The method for removing algae from water bodies based on spore transfer technology according to claim 3, characterized in that: One side of the first partition (2) is provided with a feeding hopper (9), and the other side of the first partition (2) is provided with a connecting pipe (15), and the side of the connecting pipe (15) is provided with a water outlet pipe (16).

7. The method for removing algae from water bodies based on spore transfer technology according to claim 6, characterized in that: The center of the water outlet pipe (16) is provided with a positioning rod (17), the lower end of the positioning rod (17) is slidably provided with a plug rod (18), the plug rod (18) is clamped with the lower end opening of the water outlet pipe (16), the upper end of the plug rod (18) is threadedly connected with a fixing cap (19), and the outer side of the positioning rod (17) is provided with a fixing spring (20).

8. The method for removing algae from water bodies based on spore transfer technology according to claim 1, characterized in that: The waste residue collection side (26) is rotatably provided with a guide plate at the bottom, the rotating end of the guide plate is close to the residue discharge port (27), and the bottom of the guide plate is provided with an electric push rod.

Images