Photo-oxygen enzyme water body activating and regenerating machine

Abstract

The utility model relates to the technical field of water quality treatment, and discloses a photo-oxidation enzyme water body activation regenerator, which comprises a mixing unit and a material injection mechanism, the mixing unit comprises a power piece and a rotating disc, the power piece can drive the rotating disc to rotate, a plurality of rotating rods are uniformly distributed on the circumference of the rotating disc, the free end of each rotating rod is provided with a paddle, and the material injection mechanism is arranged on the paddle. The rotation of the paddles can drive the water body to flow and form an upward and outward flow field; the material injection mechanism comprises a material storage unit and an injection unit, a photosensitizer, oxidoreductase and an oxygen storage material are stored in the material storage unit, and the injection unit can mix the photosensitizer, the oxidoreductase and the oxygen storage material with water and then inject the mixture into a water body. The technical scheme of the utility model can solve the problems of unstable water quality, high investment cost, easy black and odorous return, possible secondary environmental pollution and the like in the existing black and odorous water body treatment technology.

Description

Technical Field

[0001] The utility model relates to the technical field of water treatment, in particular to a photooxidase water activation and regeneration machine. Background Art

[0002] With the rapid development of industrialization, urbanization, and informatization, the problem of damaged water bodies in rivers and lakes, especially black and odorous water bodies, is becoming increasingly serious. Black and odorous water bodies are characterized by high organic matter concentrations, poor transparency, and low dissolved oxygen levels. They not only greatly damage urban landscapes but also seriously affect the quality of life and physical and mental health of citizens.

[0003] Existing technologies for treating black, odorous, or substandard water bodies primarily rely on dredging and microbial treatment. However, while these two methods can improve water quality to a certain extent, they are often unstable, making it difficult to maintain good water quality over the long term. Furthermore, these methods carry high investment costs, placing significant pressure on local finances. Furthermore, treated water bodies can easily return to black and odor, making the treatment effects difficult to sustain. More seriously, they can also trigger secondary environmental pollution, causing further damage to the ecological environment. Utility Model Content

[0004] The utility model aims to provide a photooxidase water activation and regeneration machine to solve the problems existing in the existing black and odorous water treatment technology, such as unstable water quality, high investment cost, easy return to black and odorous, and possible secondary environmental pollution.

[0005] To achieve the above-mentioned purpose, the present invention adopts the following technical solutions: a photooxidase water activation and regeneration machine includes a mixing unit and a material injection mechanism, the mixing unit includes a power part and a rotating disk, the power part can drive the rotating disk to rotate, and a number of rotating rods are evenly distributed on the circumference of the rotating disk. The free end of each rotating rod is equipped with a paddle, and the rotation of the paddle can drive the water to flow and form an upward and outward flow field; the material injection mechanism includes a storage unit and an injection unit, the storage unit stores photosensitizer, oxidoreductase and oxygen storage material, and the injection unit can mix the photosensitizer, oxidoreductase and oxygen storage material with water and then inject them into the water.

[0006] The beneficial effects of this solution are as follows: due to the setting of the mixing unit, the power parts drive the blades to rotate, prompting the water body to form an upward and outward flow field, changing the stratification state of the water body, which allows the underlying anaerobic or facultative anaerobic water body to gradually rise to the water surface for mass exchange with the air, changing the original stratified oxygen gradient, increasing and homogenizing the dissolved oxygen content of the water body, increasing or restoring the activity of microorganisms in the water body, improving the oxygen content of the water body and the progress of the redox reaction of the sediment, thereby effectively activating the water body, increasing the fluidity of the water body, and laying the foundation for stabilizing the water quality.

[0007] This technical solution uses a material injection mechanism to add a photosensitizer, an oxidoreductase, and an oxygen storage material to the water. This process combines photolysis and enzymatic catalysis, enabling the water to efficiently absorb solar photons. Through electron transfer between the oxidoreductase and the photosensitizer, highly active substances and a large number of OH free radicals are formed in the water. These highly active substances and free radicals effectively eliminate pollutants in the water and activate active enzymes and indigenous microorganisms in the sediment and water, thereby significantly enhancing the water's self-purification capacity. Simultaneously, after being sprayed through the injection unit, the oxygen storage material is agitated and circulated by the impellers and carried to the bottom of the water. This oxygen storage material is carried to the bottom of the water, where it gradually releases oxygen-containing substances, further improving the oxygen content of the sediment and underlying water, significantly enhancing the water purification effect.

[0008] Compared with the existing technology, this technical solution has significant advantages, which are that the water quality after treatment is stable, the investment cost is low, it is not easy to turn black and smelly, and there is no secondary environmental pollution problem.

[0009] Furthermore, the blade includes a flow-pushing plate, which is detachably connected to the rotating rod. An upflow plate is obliquely installed on the bottom of the flow-pushing plate, and a baffle is fixedly connected between the upflow plate and the flow-pushing plate on the side close to the rotating disk.

[0010] The beneficial effects of this solution are as follows: The ingenious arrangement of the upwelling plates, pusher plates, and baffles plays a crucial role in this technical solution. When the blades rotate, they efficiently generate upwelling currents. This process effectively lifts water from the bottom to the surface, then pushes the current outward, thereby forming a large-scale and efficient water circulation system. This circulation process ensures that dissolved oxygen is fully replenished and homogenized, effectively improving the water's originally anaerobic environment and creating favorable conditions for the survival and activity of various organisms in the water.

[0011] The detachable connection between the propeller and the rotating rod is also a significant advantage. This design makes it extremely convenient to replace damaged propellers or adjust them to different water conditions. Propeller replacement is easy without the need for complex tools or tedious procedures, significantly improving the maintainability and adaptability of the equipment.

[0012] Furthermore, the flow-pushing plate includes a first connecting section and a second connecting section connected in sequence, the angle between the first connecting section and the second connecting section is 145°-155°, the shape of the rotating rod is adapted to the shape of the flow-pushing plate, and the angle between the upflow plate and the flow-pushing plate is 95°-100°.

[0013] The beneficial effects of this solution are as follows: In this technical solution, the angle between the first and second connecting sections is set to 145°-155°. This design enables the blades to more effectively push the water outward during rotation. This significantly increases the activated area of ​​the water, allowing more water to participate in the circulation and activation process, and improving the fluidity and uniformity of oxygen distribution throughout the water.

[0014] The angle between the upflow plate and the push plate is set at 95°-100°. As the blades rotate, they can lift the bottom water to the surface at a more optimized angle. This specific angle ensures the efficiency and stability of the upflow, allowing the anaerobic water at the bottom to quickly come into contact with the air and exchange oxygen, further improving the overall oxygen content of the water, creating more favorable conditions for the survival of various organisms in the water and enhancing the water's self-purification capacity.

[0015] Furthermore, the injection unit includes a submersible pump, and a jet tube is installed at the water outlet of the submersible pump. The jet tube can absorb the photosensitizer, oxidoreductase and oxygen storage material stored in the storage unit into the jet tube and mix them with water. A diverter disk is installed at the free end of the jet tube, and a receiving cavity is provided inside the diverter disk. The jet tube is connected to the receiving cavity. A number of nozzles are evenly distributed on the circumference of the outer side of the diverter disk, and the material in the receiving cavity can be sprayed into the water body through the nozzle.

[0016] The beneficial effects of this solution are as follows: In this technical solution, the design of the injection unit is ingenious and efficient. The submersible pump is connected to the jet tube at the water outlet, and the pressure difference generated by it is used to suck the photosensitizer, oxidoreductase and oxygen storage material in the storage unit into the jet tube and mix them with water, so as to achieve the ready-to-use of the materials. On the one hand, it ensures that the photosensitizer, oxidoreductase and oxygen storage material can fully contact with the water body and play their role in the shortest time, which greatly improves the timeliness and pertinence of the treatment. There is no need to carry out complicated mixing operations in advance, which saves time and reduces manpower investment, and can effectively prevent the mixed liquid from losing its activity due to long-term storage. On the other hand, the diverter plate at the free end of the jet tube and the several nozzles evenly distributed circumferentially can spray the mixed materials into the water body very evenly, making the treatment effect more comprehensive and balanced, avoiding the occurrence of local concentrations that are too high or too low, and thus effectively improving the overall effectiveness of water treatment.

[0017] Furthermore, the storage unit includes a No. 1 silo, in which the photosensitizer, oxidoreductase and oxygen storage material are stored. The top of the No. 1 silo is connected to a No. 1 feed pipe, the bottom of the No. 1 silo is connected to a No. 1 discharge pipe, and the free end of the No. 1 discharge pipe is connected to the jet tube.

[0018] The beneficial effects of this solution are as follows: In this technical solution, silo No. 1 is set up to store photosensitizers, oxidoreductases, and oxygen storage materials, making material storage centralized and easy to manage. The top of silo No. 1 is connected to feed pipe No. 1, allowing for easy replenishment of materials and ensuring the continuity of the treatment process. The bottom is connected to discharge pipe No. 1 and the jet pipe, allowing the materials to smoothly enter the jet pipe and mix with water under the action of the submersible pump, making the entire process smooth and efficient. This design achieves orderly storage and precise delivery of materials, providing a stable and reliable material supply guarantee for water treatment.

[0019] Furthermore, a driving pulley is installed on the output shaft of the power member, the rotating disk is rotatably arranged on the jet tube, a driven pulley is installed on the rotating disk, and belts are sleeved on the driving pulley and the driven pulley, and the power member can drive the rotating disk to rotate through the belt.

[0020] The beneficial effects of this solution are as follows: By rotating the rotating disk on the jet tube, this technical solution makes the structure of the entire device more compact; through the cooperation of the power component, the driving pulley, the belt, and the driven pulley, the rotating disk is driven, allowing the rotating disk to rotate stably on the jet tube. This transmission method has a simple structure and high transmission efficiency, and can provide reliable power support for the operation of related equipment. At the same time, the belt drive has a certain buffering effect, which can reduce the impact of the vibration output of the power component on the rotating disk, and improve the operational stability and reliability of the equipment. In addition, this design facilitates installation and maintenance, reducing the maintenance cost of the equipment.

[0021] Furthermore, the jet tube includes a first cylindrical section, a tapered section, a second cylindrical section, an expansion section and a third cylindrical section which are connected in sequence. The first cylindrical section is connected to the water outlet of the submersible pump, the free end of the No. 1 discharge pipe is connected to the second cylindrical section, and the third cylindrical section is installed on the diversion plate.

[0022] The beneficial effects of this solution are as follows: Due to the provision of the tapered section, when the water flows into the tapered section, its special shape causes the water flow rate to gradually accelerate, and the kinetic energy increases accordingly. According to Bernoulli's principle, the pressure decreases at this time, and a negative pressure is generated at the water outlet of the tapered section. The generated negative pressure can effectively draw the photosensitizer, oxidoreductase, and oxygen storage material stored in the No. 1 silo into the jet tube through the No. 1 discharge pipe. Driven by the water flow, these materials can be quickly mixed with water, achieving instant mixing of the feed liquid. This avoids the problems of uneven mixing, long mixing time, or material inactivation that may occur in traditional mixing methods.

[0023] Furthermore, the end of the No. 1 discharge pipe close to the jet pipe is a bell mouth.

[0024] The beneficial effects of this solution are as follows: In this technical solution, by setting the end of the No. 1 discharge pipe close to the jet pipe as a bell mouth, the shape of the bell mouth makes the opening of the end connected to the jet pipe larger. After the powder is sucked into the jet pipe, the shape of the bell mouth helps to disperse the powder in the water. Due to the larger opening of the bell mouth, the powder can come into contact with water in a wider area after entering the jet pipe. This makes it easier for the powder to be entrained by the water flow and quickly dispersed in the water, thereby promoting the mixing of the powder and water. In contrast, if the end of the discharge pipe connected to the jet pipe is a straight pipe, the powder may be concentrated in a smaller area to enter the jet pipe, resulting in uneven mixing.

[0025] The bell-shaped design allows for more uniform mixing of powders with water after entering the jet tube. This is because the powders entering the jet tube through the larger opening are impacted and agitated by the water flow, making them more easily dispersed in the water. This uniform mixing is crucial for processes requiring precise control of reaction conditions, improving reaction efficiency and quality. Furthermore, the bell-shaped design reduces the risk of powder accumulation, minimizing the risk of blockage and making cleanup easier. Straight tubes, on the other hand, are prone to accumulation and more difficult to clean.

[0026] Furthermore, a No. 1 one-way valve is installed on the first cylindrical section.

[0027] The beneficial effects of this solution are as follows: Due to the provision of the No. 1 check valve, this technical solution can, on the one hand, effectively prevent water from flowing back into the jet pipe, ensuring that the water always flows in the intended direction and maintaining stable operation of the system. On the other hand, it can prevent water from flowing back into the submersible pump, thereby effectively protecting the submersible pump from damage, extending the service life of the submersible pump, and ensuring the reliable operation of the entire system.

[0028] Furthermore, a No. 2 one-way valve is installed on the No. 1 discharge pipe.

[0029] The beneficial effect of this solution is that, thanks to the second check valve, it effectively prevents the materials in the silo from continuing to flow into the injection tube when the photosensitizer, oxidoreductase, and oxygen storage material are not needed. This allows for precise control of the timing and amount of material addition, avoiding unnecessary waste and potential adverse effects on the system. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 This is a schematic structural diagram of the photooxidase water activation and regeneration machine in Example 1 of the present utility model;

[0031] Figure 2 This is a schematic diagram of the structure of the jet tube and the No. 1 feed tube in Example 1 of the present utility model;

[0032] Figure 3 This is a three-dimensional diagram of the blade in Example 1 of the present utility model. DETAILED DESCRIPTION

[0033] The following is further described in detail through specific implementation methods:

[0034] The figure marks in the drawings of the specification include: shell 1, No. 1 silo 2, No. 1 discharge pipe 3, submersible pump 4, jet tube 5, diverter plate 6, nozzle 7, water inlet 8, first cylindrical section 9, tapering section 10, second cylindrical section 11, expansion section 12, third cylindrical section 13, No. 1 one-way valve 14, No. 2 one-way valve 15, power part 16, rotating disk 17, power part mounting frame 18, sealing cover 19, driving pulley 20, driven pulley 21, belt 22, rotating rod 23, paddle 24, push flow plate 25, upflow plate 26, baffle 27, first connecting section 28, second connecting section 29.

[0035] Example 1

[0036] like Figure 1 The photooxidase water activation and regeneration machine shown includes a shell 1, a mixing unit and a material injection mechanism.

[0037] like Figure 1 As shown, the material injection mechanism includes a material storage unit and an injection unit.

[0038] like Figure 1 As shown, the storage unit includes a No. 1 silo 2, which is annular and bolted to the interior of the housing 1. Silo 2 stores a photosensitizer, an oxidoreductase, and an oxygen storage material. The top of silo 2 is connected to a No. 1 feed pipe, which is used to add photosensitizer, oxidoreductase, and oxygen storage material to silo 2. The bottom of silo 2 is connected to a No. 1 discharge pipe 3, which is used to transport the photosensitizer, oxidoreductase, and oxygen storage material to the injection unit.

[0039] like Figure 1 and Figure 2As shown, the injection unit includes a submersible pump 4 and a diverter plate 6. The submersible pump 4 is located in the annular ring of the No. 1 silo 2 and is installed on the No. 1 silo 2 by bolts. The outlet of the submersible pump 4 is connected to a jet pipe 5, which serves to transport water and mixed materials. The jet pipe 5 is composed of a first cylindrical section 9, a tapered section 10, a second cylindrical section 11, an expansion section 12, and a third cylindrical section 13, which are connected in sequence. Among them, the first cylindrical section 9 is connected to the outlet of the submersible pump 4, and a No. 1 one-way valve 14 is installed on the first cylindrical section 9 to prevent water from flowing back. The upper end of the No. 1 discharge pipe 3 is connected to the second cylindrical section 11, and the No. 1 discharge pipe 3 is installed with a No. 2 one-way valve 15 to control the conveying direction and flow rate of the material. The third cylindrical section 13 is mounted on the diverter disc 6. The diverter disc 6 has an interior containing a chamber, with which the third cylindrical section 13 is in communication. A plurality of nozzles 7 are evenly mounted circumferentially on the outer side of the diverter disc 6. The material in the chamber can be sprayed into the water body through the nozzles 7. The right end of the No. 1 discharge pipe 3 is a bell-shaped opening. This bell-shaped opening facilitates the smooth inhalation and mixing of the material and prevents clogging of the No. 1 discharge pipe 3. The lower end of the housing 1 is provided with a plurality of water inlet holes 8, which allow water in the water body to smoothly enter the housing 1 and be pumped into the jet pipe 5 by the action of the submersible pump 4 to mix with the powder in the No. 1 silo 2.

[0040] like Figure 1 and Figure 3As shown, the mixing unit includes a power member 16 and a rotating disk 17. A power member mounting bracket 18 is welded to the housing 1 above the No. 1 silo 2. The power member 16 is bolted to the power member mounting bracket 18. A sealing cover 19 is welded to the housing 1 above the power member mounting bracket 18. The output shaft of the power member 16 passes through the sealing cover 19 and is rotatably connected to the sealing cover 19. A driving pulley 20 is mounted on the upper end of the output shaft of the power member 16, and the driving pulley 20 is located above the sealing cover 19. The rotating disk 17 is T-shaped and is rotatably mounted on the outer side of the jet tube 5. The lower end of the rotating disk 17 is rotatably mounted on the sealing cover 19. The upper end of the rotating disk 17 extends above the sealing cover 19. A driven pulley 21 is mounted on the rotating disk 17 above the sealing cover 19. A belt 22 is mounted on the driving pulley 20 and the driven pulley 21. The power member 16 can drive the rotating disk 17 to rotate via the belt 22. Three rotating rods 23 are welded to the outer surface of the upper end of the rotating disk 17. The rotating rods 23 are evenly distributed along the circumference of the rotating disk 17. Each rotating rod 23 is equipped with a paddle 24, which can drive the water to flow and form an upward and outward flow field. Each paddle 24 is composed of a flow-pushing plate 25, an upflow plate 26 and a baffle 27. The flow-pushing plate 25 is installed on the end of the rotating rod 23 by bolts. The flow-pushing plate 25 includes a first connecting section 28 and a second connecting section 29 connected in sequence. The two are integrally molded. The angle between the first connecting section 28 and the second connecting section 29 is 145°-155°, and the shape of the rotating rod 23 is adapted to the shape of the flow-pushing plate 25. The upflow plate 26 is welded obliquely to the bottom of the flow-pushing plate 25, and the angle between the upflow plate 26 and the flow-pushing plate 25 is 95°-100°. The baffle 27 is welded to the right end of the upflow plate 26 and the flow-pushing plate 25. In this embodiment, the angle between the first connecting section 28 and the second connecting section 29 is 150°, the angle between the rising plate 26 and the pushing plate 25 is 95°, and the power part 16 uses a waterproof servo motor with model shj-swd60-450-48.

[0041] The specific implementation process is as follows:

[0042] When water purification is required, the rotating disk 17 is first adjusted to an upward direction, and then the housing 1 is placed in the water. At this time, the power member 16 is started, and the output shaft of the power member 16 begins to rotate. The driving pulley 20 installed on its upper end drives the driven pulley 21 on the rotating disk 17 via the belt 22, thereby rotating the rotating disk 17 and driving the blades 24 connected to it. As the blades 24 rotate, an upwelling flow can be generated. This upwelling flow can effectively lift water from the bottom of the water body to the surface, and then push the flow outward, thus forming a large-scale and efficient water circulation system.

[0043] During the water circulation process, the stratification of the water body is altered. Water previously in an anaerobic or facultative oxygen state is gradually lifted to the surface, where it undergoes sufficient mass transfer and exchange with the air. This process alters the original stratified oxygen gradient, increasing and homogenizing the dissolved oxygen content in the water. This increases or restores the activity of microorganisms in the water, effectively improving the oxygen content of the water and the redox reactions in the sediment, thereby effectively activating the water and significantly increasing its fluidity.

[0044] At the same time, check valves No. 1 and No. 2, 15 are opened, and submersible pump 4 is started. Once submersible pump 4 begins operating, it pumps water from beneath housing 1 into jet tube 5. As the water flows through converging section 10, the pipe diameter decreases and the flow rate increases. According to Bernoulli's principle, negative pressure is generated in the second cylindrical section 11. Under this negative pressure, the photosensitizer, oxidoreductase, and oxygen storage material in silo No. 1 2 are drawn into jet tube 5 through discharge pipe No. 1. After thorough mixing with the water in jet tube 5, these materials are sprayed into the water body through nozzle 7. When combined with natural ultraviolet light irradiation of the upwelling overlying water, this not only enhances water circulation and water activation, but also triggers a photolytic and enzyme-catalyzed photoenzymatic reaction system. In this system, the water efficiently absorbs solar photons, and through electron transfer between the oxidoreductase and photosensitizer, a variety of highly active substances and a large number of ·OH free radicals are generated. These highly active substances and free radicals can activate active enzymes in the sediment and water bodies, and eliminate pollutants in sewage bodies. At the same time, they can also activate indigenous microorganisms in the sediment and water bodies, promoting the massive proliferation of indigenous microorganisms, thereby greatly improving the self-purification ability of the water body.

[0045] Furthermore, after being sprayed through nozzle 7, the oxygen storage material, stirred and circulated by blades 24, can be carried to the bottom of the water along with the water flow. This allows the oxygen storage material to be smoothly carried to the bottom of the water body and gradually release oxygen-containing substances. These oxygen-containing substances further improve the oxygen content of the bottom mud and the underlying water, ultimately significantly enhancing the water purification effect.

[0046] Example 2

[0047] On the basis of Example 1, the storage unit also includes a No. 2 silo, which is arranged outside the shell 1 and is located on the shore of the water body. A No. 2 discharge pipe is installed at the bottom of the No. 2 silo, and a No. 3 one-way valve is installed on the No. 2 discharge pipe. A tee is connected to the first cylindrical section 9, and one end of the tee is connected to the No. 2 discharge pipe, and the other end of the tee is connected to the No. 1 discharge pipe 3. Due to the setting of the No. 2 silo, this technical solution provides stronger protection and flexibility for the feeding of the entire system. When the materials in the No. 1 silo 2 are gradually used up during the operation, the No. 3 one-way valve can be opened conveniently. At this time, the No. 2 silo can quickly play its key role as a supplementary silo, seamlessly connecting to continue to feed the system stably. This process not only ensures the continuity of the water purification operation, avoids interruptions due to material shortages, but also greatly improves work efficiency.

[0048] The above description is merely an embodiment of the present invention, and the commonly known specific technical solutions and / or features of the solution are not described in detail here. It should be noted that for those skilled in the art, without departing from the technical solution of the present invention, several variations and improvements can be made, which should also be considered as the scope of protection of the present invention, and these will not affect the effect of the implementation of the present invention and the practicality of the patent. The scope of protection claimed in this application shall be based on the content of its claims, and the specific implementation methods and other records in the specification can be used to interpret the content of the claims.

Claims

1. Photooxidase water activation and regeneration machine, characterized by: It includes a mixing unit and a material injection mechanism. The mixing unit includes a power part and a rotating disk. The power part can drive the rotating disk to rotate. Several rotating rods are evenly distributed on the circumference of the rotating disk. The free end of each rotating rod is installed with a paddle. The rotation of the paddle can drive the water to flow and form an upward and outward flow field; the material injection mechanism includes a storage unit and an injection unit. The storage unit stores photosensitizer, oxidoreductase and oxygen storage material. The injection unit can mix the photosensitizer, oxidoreductase and oxygen storage material with water and then inject them into the water.

2. The photooxidase water activation and regeneration machine according to claim 1, characterized in that: The blades include a flow-pushing plate, which is detachably connected to the rotating rod. An upflow plate is obliquely installed on the bottom of the flow-pushing plate, and a baffle is fixedly connected between the upflow plate and the flow-pushing plate on the side close to the rotating disk.

3. The photooxidase water activation and regeneration machine according to claim 2, characterized in that: The flow-pushing plate includes a first connecting section and a second connecting section connected in sequence. The angle between the first connecting section and the second connecting section is 145°-155°. The shape of the rotating rod is adapted to the shape of the flow-pushing plate. The angle between the upflow plate and the flow-pushing plate is 95°-100°.

4. The photooxidase water activation and regeneration machine according to claim 3, characterized in that: The injection unit includes a submersible pump, and a jet tube is installed at the water outlet of the submersible pump. The jet tube can absorb the photosensitizer, oxidoreductase and oxygen storage material stored in the storage unit into the jet tube and mix them with water. A diverter disk is installed at the free end of the jet tube, and a receiving cavity is provided inside the diverter disk. The jet tube is connected to the receiving cavity. A number of nozzles are evenly distributed on the circumference of the outer side of the diverter disk, and the material in the receiving cavity can be sprayed into the water body through the nozzles.

5. The photooxidase water activation and regeneration machine according to claim 4, characterized in that: The storage unit includes a No. 1 silo, in which photosensitizer, oxidoreductase and oxygen storage material are stored. The top of the No. 1 silo is connected to a No. 1 feed pipe, the bottom of the No. 1 silo is connected to a No. 1 discharge pipe, and the free end of the No. 1 discharge pipe is connected to the jet pipe.

6. The photooxidase water activation and regeneration machine according to claim 5, characterized in that: A driving pulley is installed on the output shaft of the power piece, the rotating disk is rotatably arranged on the jet tube, a driven pulley is installed on the rotating disk, and belts are sleeved on the driving pulley and the driven pulley, and the power piece can drive the rotating disk to rotate through the belt.

7. The photo-oxidase water activation and regeneration machine according to claim 6, characterized in that: The jet tube includes a first cylindrical section, a tapered section, a second cylindrical section, an expansion section and a third cylindrical section which are connected in sequence. The first cylindrical section is connected to the water outlet of the submersible pump, the free end of the No. 1 discharge pipe is connected to the second cylindrical section, and the third cylindrical section is installed on the diversion plate.

8. The photo-oxidase water activation and regeneration machine according to claim 7, characterized in that: The end of the No. 1 discharge pipe close to the jet pipe is a bell mouth.

9. The photooxidase water activation and regeneration machine according to claim 8, characterized in that: A No. 1 one-way valve is installed on the first cylindrical section.

10. The photo-oxidase water activation and regeneration machine according to claim 9, characterized in that: A No. 2 one-way valve is installed on the No. 1 discharge pipe.

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