Sewage treatment device for phycomycete co-culture

Abstract

The invention relates to the technical field of sewage treatment, in particular to a phycomycete co-culture sewage treatment device which comprises a residue filtering box and a water inlet pipe. The biological purification unit is arranged on the outer side of the bottom end of the filter residue box and is connected with the filter residue box; the re-filtering box is arranged on the outer side of the bottom end of the biological purification unit, one end of the re-filtering box is connected with the biological purification unit, the side wall of the other end of the re-filtering box is fixedly connected with a liquid discharging pipe, and the inner side of the re-filtering box is fixedly connected with a fine filtering frame; the synchronous cleaning unit is propped against the fine filter frame and the impurity filter frame and is connected with the biological purification unit; wherein the biological purification unit comprises a phycomycete maintaining assembly, a phycomycete symbiotic assembly, a multi-element cooperative drive control assembly and an automatic pouring assembly, by arranging the biological purification unit, a good environment can be provided for phycomycete cultivation, so that the phycomycete can effectively purify sewage, multiple stirring of the sewage can be achieved in the purification process, and the sewage purification efficiency is improved. The purification efficiency is greatly improved.

Description

Technical Field

[0001] The invention relates to the technical field of sewage treatment, in particular to an algae-bacteria co-culture sewage treatment device. Background Art

[0002] Pollutants in domestic sewage are a mixture of natural organic matter, inorganic matter and a large number of artificial synthetic compounds. Inorganic matter mainly includes sodium, calcium, potassium, magnesium salts with high concentrations, as well as chlorine, sulfur, phosphate, ammonium bicarbonate and heavy metals. Three-quarters of organic matter in sewage exists in the form of carbohydrates, fats, proteins, amino acids and volatile acids. Biological method is a commonly used sewage treatment method, which uses microalgae to absorb and utilize nitrogen, phosphorus and other nutrients in sewage, and releases O2 and organic matter through photosynthesis to meet the growth needs of bacteria; bacteria mineralize organic matter produced by algae and organic matter in sewage through respiration and produce CO2, which is used as raw material for photosynthesis by algae. While forming a benign material and energy cycle, it also reduces pollution such as nitrogen, phosphorus and organic matter in sewage.

[0003] Existing devices that use algae and bacteria to treat sewage do not supplement nutrients or provide aeration, light and other environments suitable for the growth of algae and bacteria, which affects the survival rate of algae and bacteria, and thus leads to poor sewage treatment effects. Therefore, in view of the above situation, there is an urgent need to develop a sewage treatment device that co-cultivates algae and bacteria to overcome the shortcomings in current practical applications. Summary of the invention

[0004] The object of the present invention is to provide a sewage treatment device for algae and fungi co-culture to solve the problems raised in the above-mentioned background technology.

[0005] To achieve the above object, the present invention provides the following technical solutions: A sewage treatment device for algae and fungi co-culture, comprising: a filter box and an inlet pipe, wherein the inlet pipe is arranged on the outside of the top of the filter box and is fixedly connected to a fixed frame fixedly connected to the outside of the filter box, and a filter frame is fixedly connected to the inside of the filter box for receiving and filtering sewage input by the inlet pipe; a biological purification unit, wherein the biological purification unit is arranged on the outside of the bottom of the filter box and is connected to the filter box for realizing illumination and cultivation of algae and fungi, and completing purification of filtered sewage; a secondary filter box, wherein the secondary filter box is arranged on the outside of the bottom of the biological purification unit, one end of the secondary filter box is connected to the biological purification unit, a drain pipe is fixedly connected to the side wall of the other end, and a fine filter frame is fixedly connected to the inside for realizing secondary filtration and output of purified sewage; a synchronous cleaning unit, wherein the synchronous cleaning unit is abutted against the fine filter frame and the filter frame, and is connected to the biological purification unit, and is used to cooperate with the biological purification unit to realize synchronous cleaning of the fine filter frame and the filter frame; wherein the biological purification unit comprises: an algae and fungi maintenance component, an algae and fungi symbiotic component The invention relates to a component, a multi-cooperative drive-control component and an automatic sprinkling component. The algae-bacteria maintenance component is arranged between the filter residue box and the re-filter box, one end of which is fixedly connected to the filter residue box, and the other end of which is fixedly connected to the re-filter box. An algae-bacteria symbiosis component connected to a synchronous cleaning unit is arranged on the inner side, which is used to maintain the peripheral temperature of the algae-bacteria symbiosis component and complete the illumination of the microalgae on the algae-bacteria symbiosis component. The algae-bacteria symbiosis component is also connected to a multi-cooperative drive-control component arranged on the outer side of the re-filter box. The multi-cooperative drive-control component is connected to the filter residue box, which is used to drive the algae-bacteria symbiosis component to stir the sewage inside the algae-bacteria maintenance component, and synchronously drive the algae-bacteria symbiosis component to reciprocate and lift, so as to realize synchronous cleaning of the fine filter frame and the filter debris frame by the synchronous cleaning unit. An automatic sprinkling component is also arranged between the algae-bacteria maintenance component and the algae-bacteria symbiosis component, and the automatic sprinkling component is connected to the algae-bacteria symbiosis component, which is used to cooperate with the lifting of the algae-bacteria symbiosis component to supplement the algae-bacteria nutrient solution on the algae-bacteria symbiosis component and complete the auxiliary stirring of the sewage inside the algae-bacteria maintenance component.

[0006] As a further solution of the present invention: the algae and fungus maintenance component includes: a protective tube, a heat preservation sleeve, a liquid guide tube, a liquid infusion tube, an annular frame, a fixing plate, a fill light, a connecting plate, a heater and a closed ring frame, the protective tube is arranged between the filter residue box and the secondary filter box, the top wall of the protective tube is fixedly connected to the liquid guide tube, the other end of the liquid guide tube is connected to the filter residue box, the bottom wall of the protective tube is fixedly connected with a liquid infusion tube, the other end of the liquid infusion tube is connected to the secondary filter box, a heat preservation sleeve is arranged around the outside of the protective tube, the heat preservation sleeve is fixedly connected to the protective tube, an annular frame is arranged between the outer wall of the protective tube and the inner wall of the heat preservation sleeve, and the annular frame is connected to the protective sleeve The inner wall of the tube is rotatably connected, and a fixed plate and a connecting plate are symmetrically arranged at the bottom of both ends, and the fixed plate and the connecting plate are both fixedly connected to the annular frame. A fill light is fixedly connected to the outside of the fixed plate near one end of the protective tube for illuminating the algae, and a heater is fixedly connected to the outside of the connecting plate near one end of the protective tube for maintaining the temperature inside the protective tube. A closed ring frame is fixedly connected to the outside of the bottom ends of the fixed plate and the connecting plate. The closed ring frame is arranged around the outside of the protective tube, and a driven gear connected to the multi-cooperative drive control component is fixedly connected to the outside for cooperating with the multi-cooperative drive control component to realize the rotation of the annular frame.

[0007] As a further scheme of the present invention: the algae-bacteria symbiosis component includes: a support plate, an energy transmission sleeve, a support column, a kinetic energy transmission component, a support cylinder frame, a stirring rod and a biological rope. The support plate is arranged on the outer side of the top end of the filter residue box, connected to the synchronous cleaning unit, and connected to the multi-coordinated drive and control component. A support column is rotatably connected to the support plate, and the bottom end of the support column is fixedly connected to the support cylinder frame arranged on the inner side of the protective cylinder. A plurality of biological ropes are fixedly connected to the inner side of the support cylinder frame for carrying algae and bacteria. A plurality of stirring rods are fixedly connected to the outer side of the support cylinder frame. An energy transmission sleeve rotatably connected to the support plate is arranged on the outer side of the support column. The energy transmission sleeve is connected to the multi-coordinated drive and control component, and is connected to the support column through the kinetic energy transmission component, which is used to cooperate with the multi-coordinated drive and control component to drive the support column to rotate, so as to realize the stirring rod stirring the sewage inside the protective cylinder.

[0008] As a further solution of the present invention: the algae-bacteria symbiosis component also includes: a high-pressure oxygen box, an oxygen guide tube, an oxygen exhaust pipe and a diversion chamber. The high-pressure oxygen box is fixedly connected to the outside of the top end of the support plate, and oxygen is stored inside. The output end of the high-pressure oxygen box is connected to the oxygen guide tube, and the other end of the oxygen guide tube is rotatably connected to the support column and connected to the diversion chamber arranged on the inner side of the support column. The diversion chamber is connected to the oxygen exhaust pipe arranged around the outside of the support column. The oxygen exhaust pipe is fixedly connected to the support column, one end of which is connected to the diversion chamber, and the other end is connected to the top wall of the support cylinder frame.

[0009] As a further solution of the present invention: the multi-element coordinated drive control component includes: an installation side plate, an energy transmission motor, a kinetic energy rod, an eccentric rotating wheel, a T-shaped guide rail, a movable slide, a pushing frame, an energy transmission box, a positioning seat, an energy transmission tube, an induction piston and an energy transmission tube. The installation side plate is fixedly connected to the outside of the filter residue box, and the top of the installation side plate is fixedly connected to the energy transmission motor. The output end of the energy transmission motor is fixedly connected to the kinetic energy rod, and the other end of the kinetic energy rod is connected to the energy transmission sleeve through a positioning slider, which is used to cooperate with the energy transmission motor to realize the rotation of the energy transmission sleeve. The outside of the kinetic energy rod is fixedly connected to a driving gear meshing with a driven gear, which is used to cooperate with the energy transmission motor to realize the rotation of the annular frame. The outside of the kinetic energy rod is also fixedly connected to an eccentric rotating wheel, and the outside of the eccentric rotating wheel is provided with an energy transmission box fixedly connected to the heat preservation sleeve, and a The pushing frame abuts against the eccentric wheel, and the pushing frame is slidably connected to the positioning seat fixedly connected to the outside of the energy transmission box. An energy transmission tube fixedly connected to the energy transmission box is arranged between the pushing frame and the energy transmission box, and an energy transmission part fixedly connected to the pushing frame is slidably connected on the inner side of the energy transmission tube. A spring is fixedly connected between the energy transmission part and the energy transmission box, and an energy transmission tube is also fixedly connected to the box wall of the energy transmission box. An induction piston is fixedly connected to the outer wall of the other end of the energy transmission tube, and the induction piston is slidably connected to the induction groove arranged on the inner side of the movable slide. The movable slide is arranged on the outside of the pushing frame and is slidably connected to the T-shaped guide rail fixedly connected to the outside of the protective cylinder. A control rod is arranged between the movable slide and the support plate, one end of the control rod is rotatably connected to the movable slide, and the other end is rotatably connected to the support plate, so as to cooperate with the movement of the movable slide to realize the lifting and lowering of the support plate.

[0010] As a further solution of the present invention: the automatic pouring assembly includes: an arc-shaped slide, a synchronous rack, a transmission and control gear, a rotating rod, a positioning guide plate, a lifting control tube, an energy guiding tube, a constant pressure catheter, an infusion pump, a liquid storage chamber, a spray chamber and a spray pipe. The arc-shaped slide is symmetrically arranged on the inner side of the protective tube, and is surrounded by the outer side of the supporting tube frame. It is slidably connected to the positioning guide plate fixedly connected to the inner side of the protective tube. A rotating rod rotatably connected to the protective tube is arranged between the arc-shaped slides on both sides. A transmission and control gear is fixedly connected to the outer side of the rotating rod. Synchronous racks are meshingly connected on both sides of the transmission and control gear. The synchronous racks on both sides are respectively fixedly connected to the arc-shaped slides on one side for realizing the relative movement of the arc-shaped slides on both sides. The liquid storage chamber and the spray chamber are symmetrically arranged on the inner side of the arc-shaped slide. Inorganic salt culture medium and nutrient solution are respectively arranged on the inner side of the liquid cavity, and an infusion pump is also fixedly connected to the inner side of the liquid storage cavity. The output end of the infusion pump is connected to the adjacent side spray cavity, and a plurality of spray pipes are fixedly connected to the shell wall of the arc-shaped slide seat close to the side of the supporting tube frame. The spray pipes are connected to the spray cavity and are used to cooperate with the infusion pump to realize the spraying of inorganic salt culture medium and nutrient solution, so as to complete the energy supplement of algae and fungi. A lifting control component is fixedly connected to the arc-shaped slide seat at the top, and the lifting control component is slidably connected to the lifting control tube fixedly connected to the protective tube. The top tube wall of the lifting control tube is connected to the energy guiding tube through a constant pressure conduit, and an energy guiding component fixedly connected to the support plate is slidably connected on the inner side of the energy guiding tube, which is used to cooperate with the lifting and lowering of the support plate to realize the reciprocating motion of the arc-shaped slide seats on both sides.

[0011] As a further solution of the present invention: the synchronous cleaning unit includes: a cleaning brush, a cleaning brush, a synchronous sliding rod and a push-pull rod. The cleaning brush is abutted against the outside of the top of the fine filter frame, and the cleaning brush is abutted against the outside of the top of the filter frame. The cleaning brush and the cleaning brush are arranged in pairs, and a synchronous sliding rod is fixedly connected between the cleaning brush and the cleaning brush on the same side. The synchronous sliding rod is slidably connected to the box walls of the filter residue box and the re-filter box. A push-pull rod is arranged between the cleaning brush and the support plate. One end of the push-pull rod is rotatably connected to the cleaning brush, and the other end is rotatably connected to the support plate, which is used to cooperate with the lifting of the support plate to realize the synchronous reciprocating motion of the cleaning brush and the cleaning brush to complete the cleaning of the fine filter frame and the filter frame.

[0012] Compared with the prior art, the present invention has the following beneficial effects: When the device is running, algae and fungi are attached to the algae-fungus symbiotic component. The algae-fungus maintenance component can control the temperature around the algae and fungi to maintain a constant temperature. At the same time, it can provide light to the microalgae in the algae and fungi, thereby promoting the growth of the microalgae. On the one hand, the automatic watering component sprays inorganic salt culture medium to the surface of the algae-fungus symbiotic component to provide inorganic nutrients and water for the composite bacterial community attached to the algae-fungus symbiotic component. On the other hand, nutrient solution is also sprayed to the surface of the algae-fungus symbiotic component to provide nutrients for the microalgae attached to the algae-fungus symbiotic component. After the algae and fungi are fully cultivated, the sewage enters the inner side of the filter box along the outlet pipe. The impurity filter frame arranged on the inner side of the filter box filters the impurities in the sewage. The filtered sewage enters the inner side of the algae-fungus maintenance component. The algae and fungi on the algae-fungus symbiotic component purify the sewage, and the algae plants utilize CO2 and NH4 in the water through photosynthesis. + The algae-bacteria symbiosis component can also drive the algae-bacteria symbiosis component to rotate and stir the sewage inside the algae-bacteria maintenance component. The multi-synergistic drive and control component can also drive the algae-bacteria symbiosis component to reciprocate up and down, which is beneficial to improve the purification efficiency. During the lifting process, the biological component can drive the automatic spreading component to assist in stirring the sewage inside the algae-bacteria maintenance component, thereby further improving the equipment's sewage purification effect. During the lifting process, the algae-bacteria symbiosis component can also realize the synchronous cleaning unit to synchronously clean the fine filter frame and the filter frame, thereby ensuring the stability of the equipment during operation. This application provides a good environment for the cultivation of algae and bacteria by setting up a biological purification unit and cooperating with the synchronous cleaning unit, so that the algae and bacteria can effectively purify the sewage, and can also realize multiple stirring of the sewage during the purification process, thereby greatly improving the purification efficiency, and can also complete the synchronous cleaning of the fine filter frame and the filter frame, thereby ensuring the stability and reliability of the equipment during operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 This is a schematic diagram of the structure of a sewage treatment device for algae and fungi co-culture.

[0014] Figure 2 A cross-sectional view of a sewage treatment device with algae and fungi co-culture.

[0015] Figure 3 Schematic diagram of the structure of the algae-bacteria maintenance component in the algae-bacteria co-culture sewage treatment device.

[0016] Figure 4 Schematic diagram of the partial structure of the algae-bacteria maintenance components in the algae-bacteria co-culture sewage treatment device.

[0017] Figure 5 Schematic diagram of the structure of the algae-bacteria symbiotic component in the algae-bacteria co-culture sewage treatment device.

[0018] Figure 6 A cross-sectional view of the algae-bacteria symbiotic component in a sewage treatment device for algae-bacteria co-cultivation.

[0019] Figure 7 This is a schematic diagram of the structure of the multi-component synergistic drive and control components in the algae-bacteria co-culture sewage treatment device.

[0020] Figure 8 This is a schematic diagram of the partial structure of the multi-component synergistic drive and control components in the algae-bacteria co-culture sewage treatment device.

[0021] Fig. 9 This is a schematic diagram of the structure of the automatic sprinkling component in the sewage treatment device for algae and fungi co-culture.

[0022] Fig.10 Schematic diagram of the internal structure of the arc-shaped slide in the sewage treatment device for algae and fungi co-culture.

[0023] Fig.11 This is a schematic diagram of the structure of the synchronous cleaning unit in the algae-bacteria co-culture sewage treatment device.

[0024] In the figure: 1-filter residue box, 2-re-filter box, 3-drain pipe, 4-synchronous cleaning unit, 5-fine filter frame, 6-filter impurity frame, 7-biological purification unit, 8-algae maintenance component, 9-algae symbiosis component, 10-multi-cooperative drive control component, 11-automatic pouring component, 12-protection cylinder, 13-insulation sleeve, 14-liquid guide tube, 15-infusion tube, 16-ring frame, 17-fixing plate, 18-fill light, 19-connecting plate, 20-heater, 21-closed ring frame, 22-driven gear, 23-support plate, 24-energy transmission sleeve rod, 25-high-pressure oxygen box, 26-oxygen guide tube, 27-support column, 28-kinetic energy transmission member, 29-support cylinder frame, 30-stirring rod, 31-biological rope, 32-oxygen discharge pipe, 33-guide Flow chamber, 34-mounting side plate, 35-energy transmission motor, 36-kinetic energy rod, 37-driving gear, 38-eccentric wheel, 39-T-type guide rail, 40-movable slide, 41-pushing frame, 42-energy transmission box, 43-positioning seat, 44-energy transmission tube, 45-sensing piston, 46-energy transmission tube, 47-energy transmission part, 48-arc slide, 49-synchronous rack, 50-transmission control gear, 51-rotating rod, 52-positioning guide plate, 53-lifting control part, 54-lifting control tube, 55-energy guiding part, 56-energy guiding tube, 57-constant pressure catheter, 58-infusion pump, 59-liquid storage chamber, 60-spray chamber, 61-spray tube, 62-cleaning brush, 63-cleaning brush, 64-synchronous slide, 65-push-pull rod, 66-water inlet pipe. DETAILED DESCRIPTION

[0025] The technical solution of the present application is further described in detail below in conjunction with specific implementation methods.

[0026] The embodiments of the present application are described in detail below, and examples of the embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present application, and cannot be understood as limiting the present application.

[0027] See also Figure 1 and Figure 2 In one embodiment of the present invention, a sewage treatment device for algae and fungi co-culture includes: a filter residue box 1 and a water inlet pipe 66, wherein the water inlet pipe 66 is arranged on the outside of the top of the filter residue box 1 and is fixedly connected to a fixed frame fixedly connected to the outside of the filter residue box 1, and a filter frame 6 is fixedly connected to the inside of the filter residue box 1 for receiving and filtering sewage input by the water inlet pipe 66; a biological purification unit 7, wherein the biological purification unit 7 is arranged on the outside of the bottom of the filter residue box 1 and is connected to the filter residue box 1 for realizing illumination and cultivation of algae and fungi, and completing purification of filtered sewage; A re-filter box 2, wherein the re-filter box 2 is arranged on the outside of the bottom end of the biological purification unit 7, one end of which is connected to the biological purification unit 7, and a drainage pipe 3 is fixedly connected to the side wall of the other end, and a fine filter frame 5 is fixedly connected to the inner side, for realizing secondary filtration and output of the purified sewage; a synchronous cleaning unit 4, wherein the synchronous cleaning unit 4 is abutted against the fine filter frame 5 and the filter frame 6, and is connected to the biological purification unit 7, for cooperating with the biological purification unit 7 to realize synchronous cleaning of the fine filter frame 5 and the filter frame 6; wherein the biological purification unit 7 includes: an algae and fungus maintenance component 8, an algae and fungus Symbiotic component 9, multi-element coordinated drive control component 10 and automatic sprinkling component 11, the algae-bacteria maintenance component 8 is arranged between the filter residue box 1 and the secondary filter box 2, one end is fixedly connected to the filter residue box 1, and the other end is fixedly connected to the secondary filter box 2, and an algae-bacteria symbiotic component 9 connected to the synchronous cleaning unit 4 is arranged inside, which is used to maintain the temperature around the algae-bacteria symbiotic component 9 and complete the illumination of the microalgae on the algae-bacteria symbiotic component 9, and the algae-bacteria symbiotic component 9 is also connected to the multi-element coordinated drive control component 10 arranged on the outside of the secondary filter box 2, and the multi-element coordinated drive control component 10 is connected to the filter residue box 1. The algae-bacteria symbiosis component 9 is connected to drive the algae-bacteria symbiosis component 9 to stir the sewage inside the algae-bacteria maintenance component 8, and synchronously drive the algae-bacteria symbiosis component 9 to reciprocate and lift, so as to realize the synchronous cleaning of the fine filter frame 5 and the filter frame 6 by the synchronous cleaning unit 4. An automatic sprinkling component 11 is also arranged between the algae-bacteria maintenance component 8 and the algae-bacteria symbiosis component 9. The automatic sprinkling component 11 is connected to the algae-bacteria symbiosis component 9 and is used for cooperating with the lifting and lowering of the algae-bacteria symbiosis component 9 to supplement the algae-bacteria nutrient solution on the algae-bacteria symbiosis component 9 and complete the auxiliary stirring of the sewage inside the algae-bacteria maintenance component 8.

[0028] In this embodiment, when the device is in operation, the algae and fungi are attached to the algae-fungus symbiotic component 9, and the algae-fungus maintenance component 8 can control the temperature around the algae and fungi to maintain a constant temperature. At the same time, it can illuminate the microalgae in the algae and fungi, thereby promoting the growth of the microalgae. The automatic sprinkling component 11 sprays inorganic salt culture medium to the surface of the algae-fungus symbiotic component 9 on the one hand, providing inorganic nutrients and water for the composite bacterial community attached to the algae-fungus symbiotic component 9. On the other hand, nutrient solution is also sprayed to the surface of the algae-fungus symbiotic component 9 to provide nutrients for the microalgae attached to the algae-fungus symbiotic component 9. After the algae and fungi are fully cultivated, the sewage enters the inner side of the filter residue box 1 along the outlet pipe, and the impurity filter frame 6 arranged on the inner side of the filter residue box 1 filters the impurities in the sewage. The filtered sewage enters the inner side of the algae-fungus maintenance component 8, and the algae and fungi on the algae-fungus symbiotic component 9 purify the sewage. The algae plants utilize CO2 and NH4 in the water through photosynthesis. + The aerobic bacteria then use the O2 in the water to decompose and transform the organic pollutants, and produce CO2 and nutrients to maintain the growth and reproduction of algae. This cycle repeats to achieve the biological purification of sewage. The purified sewage enters the inner side of the re-filter box 2, and the fine filter frame 5 arranged on the inner side of the re-filter box 2 filters the sewage again. The filtered sewage is discharged from the drain pipe 3. The multi-cooperative drive control component 10 can drive the algae-bacteria symbiosis component 9 to rotate and stir the sewage located on the inner side of the algae-bacteria maintenance component 8. The multi-cooperative drive control component 10 can also drive the algae-bacteria symbiosis component 9 to reciprocate up and down, which is beneficial to improve the purification efficiency. During the lifting process, component 9 can drive the automatic sprinkling component 11 to assist in stirring the sewage inside the algae-bacteria maintenance component 8, further improving the equipment's purification effect on sewage. During the lifting process, the algae-bacteria symbiosis component 9 can also realize the synchronous cleaning unit 4 for the fine filter frame 5 and the filter frame 6 to ensure the stability of the equipment during operation. The present application provides a good environment for the cultivation of algae and bacteria by setting a biological purification unit 7 and cooperating with the synchronous cleaning unit 4, so that the algae and bacteria can effectively purify the sewage, and can also realize multiple stirring of the sewage during the purification process, greatly improving the purification efficiency, and can also complete the synchronous cleaning of the fine filter frame 5 and the filter frame 6, ensuring the stability and reliability of the equipment during operation.

[0029] In one embodiment of the present invention, please refer to Figure 3 and Figure 4The algae and fungus maintenance component 8 includes: a protective tube 12, a heat preservation sleeve 13, a liquid guide tube 14, a liquid infusion tube 15, an annular frame 16, a fixing plate 17, a fill light 18, a connecting plate 19, a heater 20 and a closed ring frame 21. The protective tube 12 is arranged between the filter residue box 1 and the re-filter box 2. The top wall of the protective tube 12 is fixedly connected to the liquid guide tube 14. The other end of the liquid guide tube 14 is connected to the filter residue box 1. The bottom wall of the protective tube 12 is fixedly connected with the liquid infusion tube 15. The other end of the liquid infusion tube 15 is connected to the re-filter box 2. The outer side of the protective tube 12 is surrounded by a heat preservation sleeve 13. The heat preservation sleeve 13 is fixedly connected to the protective tube 12. An annular frame 16 is arranged between the outer wall of the protective tube 12 and the inner wall of the heat preservation sleeve 13. The annular frame 16 and the protective sleeve The inner wall of the cylinder 13 is rotatably connected, and a fixing plate 17 and a connecting plate 19 are symmetrically arranged at the bottom of both ends. The fixing plate 17 and the connecting plate 19 are both fixedly connected to the annular frame 16. A fill light 18 is fixedly connected to the outer side of the fixing plate 17 near one end of the protective cylinder 12 for illuminating the algae. A heater 20 is fixedly connected to the outer side of the connecting plate 19 near one end of the protective cylinder 12 for maintaining the temperature inside the protective cylinder 12. A closed ring frame 21 is fixedly connected to the outer side of the bottom ends of the fixing plate 17 and the connecting plate 19. The closed ring frame 21 is arranged around the outside of the protective cylinder 12, and a driven gear 22 connected to the multi-cooperative drive control component 10 is fixedly connected to the outside for cooperating with the multi-cooperative drive control component 10 to realize the rotation of the annular frame 16.

[0030] In this embodiment, electromagnetic valves are fixedly connected to the inner sides of the catheter 14 and the infusion tube 15. The part of the protective tube 12 located inside the heat preservation sleeve 13 is made of a light-transmitting material. A sealing ring is fixedly connected to the inner wall of the contact end of the closed ring frame 21 and the protective tube 12. In addition, a temperature sensor is fixedly connected to the inner side of the protective tube 12. The temperature sensor is electrically connected to the controller for controlling the heater 20. The heater 20 cooperates with the temperature sensor to maintain the temperature inside the protective tube 12. At the same time, the fill light 18 can simulate the light required for algae growth and provide the light required for photosynthesis for algae such as Chlorella. The multi-cooperative drive control component 10 can cooperate with the driven gear 22 to drive the closed ring frame 21 to rotate. The closed ring frame 21 cooperates with the annular frame 16 to drive the heater 20 and the fill light 18 to rotate around the protective tube 12 to ensure the uniformity of heating and illumination. By setting the algae and fungus maintenance component 8, the temperature inside the protective tube 12 can be maintained stable, and the light required for algae growth can be simulated, which is conducive to promoting the growth of algae and fungi.

[0031] In one embodiment of the present invention, please refer to Figure 5 and Figure 6The algae-bacteria symbiosis component 9 includes: a support plate 23, an energy transmission sleeve rod 24, a support column 27, a kinetic energy transmission member 28, a support cylinder frame 29, a stirring rod 30 and a biological rope 31. The support plate is arranged on the outer side of the top of the filter residue box 1, connected to the synchronous cleaning unit 4, and connected to the multi-coordinated drive control component 10. The support plate 23 is rotatably connected with a support column 27. The bottom end of the support column 27 is fixedly connected to a support cylinder frame 29 arranged on the inner side of the protective cylinder 12. The inner side of the support cylinder frame 29 is fixed. A plurality of biological ropes 31 are connected and provided for carrying algae and fungi. A plurality of stirring rods 30 are fixedly connected and provided on the outside of the support cylinder frame 29. An energy transmission sleeve 24 rotatably connected to the support plate 23 is provided on the outside of the support column 27. The energy transmission sleeve 24 is connected to the multi-cooperative drive control component 10 and is connected to the support column 27 through a kinetic energy transmission part 28. The energy transmission sleeve 24 is used for cooperating with the multi-cooperative drive control component 10 to drive the support column 27 to rotate, so as to achieve stirring of the sewage inside the protective cylinder 12 by the stirring rod 30.

[0032] In this embodiment, the biological rope 31 serves as a carrier of algae and fungi, which can prevent the fungi from being suspended in the water and flowing out with the water, and can also prevent algae and other substances from causing blockage of the internal pipes of the equipment. In addition, the kinetic energy transmission component 28 includes a pulley fixedly connected to the outside of the energy transmission sleeve 24 and the support column 27, and the pulleys are connected by belts. A positioning groove is provided on the inner wall of the energy transmission sleeve 24, and a positioning slider is slidingly connected to the inner side of the positioning groove. The positioning slider is fixedly connected to the kinetic energy rod 36 on the inner side of the multi-cooperative drive control component 10. The multi-cooperative drive control component 10 can drive the energy transmission sleeve 24 to rotate, and the energy transmission sleeve 24 drives the support column 27 to rotate through the pulley and the belt. The support column 27 drives the support cylinder frame 29 to rotate, and the stirring rod 30 arranged on the support cylinder frame 29 stirs the sewage inside the protective cylinder 12. At the same time, the algae and bacteria on the biological rope 31 inside the support cylinder frame 29 can complete the biological purification of the sewage. The two types of organisms, algae and bacteria, produce a synergistic effect, which can efficiently purify the water environment. By setting up the algae-bacteria symbiosis component 9, it can provide a carrier for the algae and bacteria, and can also cooperate with the multi-cooperative drive control component 10 to achieve the stirring of the sewage inside the protective cylinder 12, and can cooperate with the multi-cooperative drive control component 10 to realize the driving of the synchronous cleaning unit 4 and the automatic sprinkling component 11, thereby ensuring the equipment's purification effect on sewage.

[0033] In one embodiment of the present invention, please refer to Figure 5The algae-bacteria symbiosis component 9 also includes: a high-pressure oxygen box 25, an oxygen guide tube 26, an oxygen exhaust pipe 32 and a diversion chamber 33. The high-pressure oxygen box 25 is fixedly connected to the outside of the top of the support plate 23, and oxygen is stored inside. The output end of the high-pressure oxygen box 25 is connected to the oxygen guide tube 26. The other end of the oxygen guide tube 26 is rotatably connected to the support column 27 and is connected to the diversion chamber 33 arranged on the inner side of the support column 27. The diversion chamber 33 is connected to the oxygen exhaust pipe 32 arranged around the outside of the support column 27. The oxygen exhaust pipe 32 is fixedly connected to the support column 27, one end of which is connected to the diversion chamber 33, and the other end is connected to the top wall of the support cylinder frame 29.

[0034] In this embodiment, a solenoid valve is fixedly connected to the inner side of the connecting end of the oxygen guide tube 26 and the high-pressure oxygen box 25. The oxygen inside the high-pressure oxygen box 25 enters the inner side of the diversion cavity 33 along the oxygen guide tube 26 and is discharged along the oxygen exhaust pipe 32, which can increase the dissolved oxygen in the water, thereby better realizing a good bacteria-algae symbiotic environment.

[0035] In one embodiment of the present invention, please refer to Figure 7 and Figure 8The multi-element coordinated drive control assembly 10 includes: a mounting side plate 34, an energy transmission motor 35, a kinetic energy rod 36, an eccentric wheel 38, a T-shaped guide rail 39, a movable slide 40, a push frame 41, an energy transmission box 42, a positioning seat 43, an energy transmission tube 44, an induction piston 45 and an energy transmission tube 46. The mounting side plate 34 is fixedly connected to the outside of the filter residue box 1, and the top of the mounting side plate 34 is fixedly connected to the energy transmission motor 35. The output end of the energy transmission motor 35 is fixedly connected to the kinetic energy rod 36. The kinetic energy rod 36 The other end is connected to the energy transmission sleeve 24 through a positioning slider, which is used to cooperate with the energy transmission motor 35 to realize the rotation of the energy transmission sleeve 24. The outer side of the kinetic energy rod 36 is fixedly connected to a driving gear 37 meshing with the driven gear 22, which is used to cooperate with the energy transmission motor 35 to realize the rotation of the annular frame 16. The outer side of the kinetic energy rod 36 is also fixedly connected to an eccentric wheel 38. The outer side of the eccentric wheel 38 is provided with an energy transmission box 42 fixedly connected to the heat preservation sleeve 13. A spacer is provided between the energy transmission box 42 and the eccentric wheel 38. The eccentric wheel 38 abuts against the push frame 41, and the push frame 41 is slidably connected to the positioning seat 43 fixedly connected to the outside of the energy transmission box 42. An energy transmission pipe 46 fixedly connected to the energy transmission box 42 is provided between the push frame 41 and the energy transmission box 42. An energy transmission member 47 fixedly connected to the push frame 41 is slidably connected inside the energy transmission pipe 46. A spring is fixedly connected between the energy transmission member 47 and the energy transmission box 42. An energy transmission pipe 44 is also fixedly connected to the box wall of the energy transmission box 42. The other end of the energy transmission pipe 44 An induction piston 45 is fixedly connected to the outer wall, and the induction piston 45 is slidably connected to the induction groove arranged on the inner side of the movable slide 40. The movable slide 40 is arranged on the outer side of the pushing frame 41, and is slidably connected to the T-shaped guide rail 39 fixedly connected to the outer side of the protective tube 12. A control rod is provided between the movable slide 40 and the support plate 23, and one end of the control rod is rotatably connected to the movable slide 40, and the other end is rotatably connected to the support plate 23, which is used to cooperate with the movement of the movable slide 40 to realize the lifting and lowering of the support plate 23.

[0036] In this embodiment, the energy transmission member 47 includes a first piston slidably connected to the inner side of the energy transmission tube 46 and a first push rod fixedly connected to the first piston. The other end of the first push rod is fixedly connected to the push frame 41. The energy transmission motor 35 drives the kinetic energy rod 36 to rotate. The kinetic energy rod 36 can drive the driving gear 37 to rotate. The driving gear 37 cooperates with the driven gear 22 to realize the rotation of the annular frame 16. The kinetic energy rod 36 can also drive the transmission sleeve rod 24 to rotate through the positioning slider to achieve the stirring of the sewage. The kinetic energy rod 36 can also drive the eccentric wheel 38 to rotate, and cooperate with the spring arranged between the first piston and the energy transmission box 42 to drive the push frame 41 to reciprocate along the positioning seat 43. The push frame 41 drives the first piston to rotate inside the energy transmission tube 46. The movable slide 40 is driven to reciprocate on the T-shaped guide rail 39 by reciprocating motion, and the movable slide 40 drives the supporting plate 23 to reciprocate up and down through the control rod, which can not only improve the stirring effect, but also complete the driving of the automatic pouring component 11 and the synchronous cleaning unit 4. By setting the multi-cooperative drive control component 10, the rotation of the algae-bacteria symbiosis component 9 and the lifting of the algae-bacteria symbiosis component 9 can be realized, and the lifting of the algae-bacteria symbiosis component 9 can be used to complete the driving of the automatic pouring component 11 and the synchronous cleaning unit 4, which greatly improves the convenience of the equipment during operation.

[0037] In one embodiment of the present invention, please refer to Fig. 9 and Fig.10The automatic pouring assembly 11 includes: an arc-shaped slide 48, a synchronous rack 49, a transmission and control gear 50, a rotating rod 51, a positioning guide plate 52, a lifting control tube 54, an energy guide tube 56, a constant pressure catheter 57, an infusion pump 58, a liquid storage chamber 59, a spray chamber 60 and a spray pipe 61. The arc-shaped slide 48 is symmetrically arranged on the inner side of the protective tube 12, and is arranged around the outer side of the support tube frame 29, and is slidably connected to the positioning guide plate 52 fixedly connected to the inner side of the protective tube 12. A rotating rod 51 rotatably connected to the protective tube 12 is arranged between the arc-shaped slides 48 on both sides, and the transmission and control gear 50 is fixedly connected to the outer side of the rotating rod 51. The transmission and control gear 50 is meshed and connected on both sides of the transmission and control gear 50. The synchronous racks 49 on both sides are respectively fixedly connected to the arc-shaped slide 48 on one side, so as to realize the relative movement of the arc-shaped slides 48 on both sides. The liquid storage chamber 59 and the spray chamber 60 are symmetrically arranged on the inner side of the arc-shaped slide 48. Inorganic salt culture medium and nutrient solution are respectively arranged on the inner side of the liquid storage chamber 59, and an infusion pump 58 is also fixedly connected to the inner side of the liquid storage chamber 59. The output end of the infusion pump 58 is connected to the adjacent side spray chamber 60. A plurality of spray pipes 61 are fixedly connected on the shell wall of the arc-shaped slide 48 close to the support tube frame 29. The spray pipes 61 are connected to the spray chamber 60 and are used to cooperate with the infusion pump 58 to spray the inorganic salt culture medium and nutrient solution to complete the energy supplement of algae and fungi. A lifting control component 53 is fixedly connected on the top of the arc-shaped slide 48. The lifting control component 53 is slidably connected to the lifting control tube 54 fixedly connected to the protective tube 12. The top tube wall of the lifting control tube 54 is connected to the energy guiding tube 56 through a constant pressure conduit 57. The energy guiding tube 56 is slidably connected with an energy guiding component 55 fixedly connected to the support plate 23 on the inner side, which is used to cooperate with the lifting of the support plate 23 to realize the reciprocating motion of the arc-shaped slides 48 on both sides.

[0038] In this embodiment, the energy guiding member 55 includes a second push rod fixedly connected to the outside of the bottom end of the support plate 23 and a second piston fixedly connected to the second push rod, a spring is fixedly connected between the second piston and the energy guiding tube 56, the side wall of the bottom end of the energy guiding tube 56 is connected to the constant pressure conduit 57, and the other end of the constant pressure conduit 57 is connected to the top side wall of the lifting control tube 54, the lifting control member 53 includes a third piston slidably connected to the inside of the lifting control tube 54 and a third push rod fixedly connected to the third piston, the other end of the third push rod is fixedly connected to the arc-shaped slide seat 48 located on the upper side, and a solenoid valve is fixedly connected to the inside of the spray pipe 61. According to needs, the corresponding infusion pump 58 is used to sprinkle the inorganic salt culture medium or nutrient solution located inside the liquid storage cavity 59 through the spray pipe 61, and the sprayed inorganic salt culture medium or nutrient solution falls on the biological rope 31, and the inorganic salt culture medium is used to provide inorganic nutrients and water for the composite flora, and the nutrient solution provides nutrition for the microalgae. , the bacteria and algae are fully cultivated. During the up and down movement of the support plate 23, the support plate 23 can drive the second piston to reciprocate up and down on the inner side of the energy guiding tube 56. The air inside the energy guiding tube 56 enters the inner side of the lifting control tube 54 along the constant pressure conduit 57, so as to realize the up and down reciprocating movement of the third piston in the lifting control tube 54. The third piston cooperates with the third push rod to drive the upper arc slide 48 to move synchronously, and cooperates with the synchronous rack 49 and the transmission gear 50 to drive the lower arc slide 48 to move synchronously in the opposite direction of the upper arc slide 48, so as to ensure the comprehensiveness of the spraying. Moreover, through the reciprocating motion of the arc slides 48 on both sides, the sewage can be assisted in stirring during the purification process, thereby further improving the sewage purification ability of the equipment. By setting the automatic sprinkling component 11, it can not only provide nutrients to the algae and bacteria attached to the biological rope 31, but also assist in stirring the sewage during the sewage purification process, thereby further improving the sewage purification ability of the equipment.

[0039] In one embodiment of the present invention, please refer to Fig.11 The synchronous cleaning unit 4 includes: a cleaning brush 62, a cleaning brush 63, a synchronous slide bar 64 and a push-pull rod 65. The cleaning brush 62 is abutted against the outer side of the top end of the fine filter frame 5, and the cleaning brush 63 is abutted against the outer side of the top end of the filter frame 6. The cleaning brush 62 and the cleaning brush 63 are arranged in pairs, and a synchronous slide bar 64 is fixedly connected between the cleaning brush 62 and the cleaning brush 63 on the same side. The synchronous slide bar 64 is slidably connected to the box walls of the filter residue box 1 and the secondary filter box 2. A push-pull rod 65 is arranged between the cleaning brush 63 and the support plate 23. One end of the push-pull rod 65 is rotatably connected to the cleaning brush 63, and the other end is rotatably connected to the support plate 23, which is used to cooperate with the lifting and lowering of the support plate 23 to realize the synchronous reciprocating motion of the cleaning brush 62 and the cleaning brush 63, thereby completing the cleaning of the fine filter frame 5 and the filter frame 6.

[0040] In this embodiment, a dirt collecting box is provided on the box wall at the contact end between the filter residue box 1 and the filter impurity frame 6, and on the box wall at the contact end between the re-filter box 2 and the fine filter frame 5, for cooperating with the synchronous reciprocating motion of the cleaning brush 62 and the cleaning brush 63 to complete the recovery of filtered impurities. By setting a synchronous cleaning unit 4, the lifting and lowering of the support plate 23 can be coordinated to synchronously realize the synchronous reciprocating motion of the cleaning brush 62 and the cleaning brush 63 to complete the cleaning of the fine filter frame 5 and the filter impurity frame 6, thereby ensuring the stability of the equipment during operation.

[0041] The sewage treatment device for algae and fungi co-cultivation can provide a good environment for the cultivation of algae and fungi by setting up a biological purification unit 7 and cooperating with a synchronous cleaning unit 4, so that the algae and fungi can effectively purify the sewage, and can also realize multiple stirring of the sewage during the purification process, which greatly improves the purification efficiency, and can also complete the synchronous cleaning of the fine filter frame 5 and the filter frame 6, ensuring the stability and reliability of the equipment during operation. By setting up an algae and fungi maintenance component 8, the temperature inside the protective tube 12 can be maintained stable, and the light required for algae growth can be simulated, which is conducive to promoting the growth of algae and fungi. By setting up an algae and fungi symbiotic component 9, a carrier can be provided for the algae and fungi, and the multi-cooperative drive control component 10 can be cooperated to realize the stirring of the sewage inside the protective tube 12, and the multi-cooperative drive control component 10 can be cooperated to realize the synchronous cleaning unit 4 and automatic sprinkling. The driving of the component 11 ensures the purification effect of the equipment on sewage. By setting up the multi-cooperative drive control component 10, it can realize the rotation of the algae-bacteria symbiosis component 9 and the lifting of the algae-bacteria symbiosis component 9, and use the lifting of the algae-bacteria symbiosis component 9 to complete the driving of the automatic pouring component 11 and the synchronous cleaning unit 4, which greatly improves the convenience of the equipment during operation. By setting up the automatic pouring component 11, it can not only provide nutrients to the algae and bacteria attached to the biological rope 31, but also assist in stirring the sewage during the sewage purification process, further improving the equipment's ability to purify sewage. By setting up the synchronous cleaning unit 4, it can cooperate with the lifting of the support plate 23 to synchronously realize the synchronous reciprocating motion of the cleaning brush 62 and the cleaning brush 63, complete the cleaning of the fine filter frame 5 and the filter frame 6, and ensure the stability of the equipment during operation.

[0042] The above are only preferred embodiments of the present invention. It should be pointed out that, for those skilled in the art, several modifications and improvements can be made without departing from the concept of the present invention. These should also be regarded as the protection scope of the present invention. These will not affect the effect of the implementation of the present invention and the practicality of the patent.

Claims

1. A sewage treatment device for algae and fungi co-culture, characterized in that: include: A filter box and a water inlet pipe, wherein the water inlet pipe is arranged outside the top of the filter box and is fixedly connected to a fixing frame fixedly connected to the outside of the filter box, and a filter frame is fixedly connected to the inside of the filter box for receiving and filtering sewage input by the water inlet pipe; A biological purification unit is arranged outside the bottom end of the filter residue box and connected to the filter residue box to realize illumination and cultivation of algae and fungi and complete purification of the filtered sewage; A secondary filter box is arranged outside the bottom end of the biological purification unit, one end of which is connected to the biological purification unit, and a drainage pipe is fixedly connected to the side wall of the other end, and a fine filter frame is fixedly connected to the inner side, for realizing secondary filtration and output of the purified sewage; A synchronous cleaning unit, the synchronous cleaning unit abuts against the fine filter frame and the impurity filter frame, and is connected to the biological purification unit, and is used to cooperate with the biological purification unit to achieve synchronous cleaning of the fine filter frame and the impurity filter frame; The biological purification unit includes: an algae-bacteria maintenance component, an algae-bacteria symbiosis component, a multi-component coordinated drive control component and an automatic sprinkling component. The algae-bacteria maintenance component is arranged between the filter residue box and the re-filter box, one end of which is fixedly connected to the filter residue box, and the other end of which is fixedly connected to the re-filter box. An algae-bacteria symbiosis component connected to a synchronous cleaning unit is arranged inside to maintain the temperature around the algae-bacteria symbiosis component and complete the illumination of the microalgae on the algae-bacteria symbiosis component. The algae-bacteria symbiosis component is also connected to the multi-component coordinated drive control component arranged on the outside of the re-filter box. The multi-component coordinated The drive control component is connected to the filter residue box, and is used for driving the algae-bacteria symbiosis component to achieve stirring of the sewage inside the algae-bacteria maintenance component, and synchronously drives the algae-bacteria symbiosis component to reciprocate and lift, so as to achieve synchronous cleaning of the fine filter frame and the filter frame by the synchronous cleaning unit. An automatic pouring component is also arranged between the algae-bacteria maintenance component and the algae-bacteria symbiosis component. The automatic pouring component is connected to the algae-bacteria symbiosis component, and is used for cooperating with the lifting and lowering of the algae-bacteria symbiosis component to achieve the replenishment of the algae-bacteria nutrient solution on the algae-bacteria symbiosis component, and complete the auxiliary stirring of the sewage inside the algae-bacteria maintenance component.

2. The wastewater treatment device for algae-bacteria co-cultivation according to claim 1, characterized in that: The algae and fungus maintenance component includes: a protective tube, a heat preservation sleeve, a liquid guide tube, a liquid infusion tube, an annular frame, a fixing plate, a fill light, a connecting plate, a heater and a closed ring frame. The protective tube is arranged between the filter residue box and the re-filter box. The top wall of the protective tube is fixedly connected to the liquid guide tube, and the other end of the liquid guide tube is connected to the filter residue box. The bottom wall of the protective tube is fixedly connected with a liquid infusion tube, and the other end of the liquid infusion tube is connected to the re-filter box. A heat preservation sleeve is arranged around the outside of the protective tube, and the heat preservation sleeve is fixedly connected to the protective tube. An annular frame is arranged between the outer wall of the protective tube and the inner wall of the heat preservation sleeve, and the annular frame is rotatably connected to the inner wall of the protective sleeve. The fixing plate and the connecting plate are symmetrically arranged at the bottom of both ends, and the fixing plate and the connecting plate are both fixedly connected to the annular frame. A fill light is fixedly connected to the outer side of one end of the fixing plate close to the protective tube for illuminating the algae, and a heater is fixedly connected to the outer side of one end of the connecting plate close to the protective tube for maintaining the temperature inside the protective tube. A closed ring frame is fixedly connected to the outer side of the bottom ends of the fixing plate and the connecting plate. The closed ring frame is arranged around the outside of the protective tube, and a driven gear connected to the multi-cooperative drive control component is fixedly connected to the outer side for cooperating with the multi-cooperative drive control component to realize the rotation of the annular frame.

3. The wastewater treatment device for algae-bacteria co-cultivation according to claim 2, characterized in that: The algae-bacteria symbiosis component includes: a support plate, an energy transmission sleeve, a support column, a kinetic energy transmission component, a support cylinder frame, a stirring rod and a biological rope. The support plate is arranged on the outer side of the top end of the filter residue box, connected to the synchronous cleaning unit, and connected to the multi-coordinated drive and control component. A support column is rotatably connected to the support plate, and the bottom end of the support column is fixedly connected to the support cylinder frame arranged on the inner side of the protective cylinder. A plurality of biological ropes are fixedly connected to the inner side of the support cylinder frame for carrying algae and bacteria. A plurality of stirring rods are fixedly connected to the outer side of the support cylinder frame. An energy transmission sleeve rotatably connected to the support plate is arranged on the outer side of the support column. The energy transmission sleeve is connected to the multi-coordinated drive and control component and is connected to the support column through the kinetic energy transmission component, which is used to cooperate with the multi-coordinated drive and control component to drive the support column to rotate, so as to achieve the stirring of the sewage located inside the protective cylinder by the stirring rod.

4. The wastewater treatment device for algae-bacteria co-cultivation according to claim 3, characterized in that: The algae-bacteria symbiosis component also includes: a high-pressure oxygen box, an oxygen guide tube, an oxygen exhaust pipe and a diversion chamber. The high-pressure oxygen box is fixedly connected to the outside of the top end of the support plate, and oxygen is stored inside. The output end of the high-pressure oxygen box is connected to the oxygen guide tube, and the other end of the oxygen guide tube is rotatably connected to the support column and connected to the diversion chamber arranged on the inner side of the support column. The diversion chamber is connected to the oxygen exhaust pipe arranged around the outside of the support column. The oxygen exhaust pipe is fixedly connected to the support column, one end of which is connected to the diversion chamber, and the other end is connected to the top wall of the support cylinder frame.

5. The wastewater treatment device for algae-bacteria co-cultivation according to claim 4, characterized in that: The multi-element coordinated drive control component includes: an installation side plate, an energy transmission motor, a kinetic energy rod, an eccentric rotating wheel, a T-shaped guide rail, a movable slide, a pushing frame, an energy transmission box, a positioning seat, an energy transmission tube, an induction piston and an energy transmission tube. The installation side plate is fixedly connected to the outside of the filter residue box, and the top of the installation side plate is fixedly connected to the energy transmission motor. The output end of the energy transmission motor is fixedly connected to the kinetic energy rod, and the other end of the kinetic energy rod is connected to the energy transmission sleeve through a positioning slider, which is used to cooperate with the energy transmission motor to realize the rotation of the energy transmission sleeve. The outside of the kinetic energy rod is fixedly connected to a driving gear meshing with a driven gear, which is used to cooperate with the energy transmission motor to realize the rotation of the annular frame. The outside of the kinetic energy rod is also fixedly connected to an eccentric rotating wheel, and the outside of the eccentric rotating wheel is provided with an energy transmission box fixedly connected to the heat preservation sleeve, and a gear that contacts the eccentric rotating wheel is provided between the energy transmission box and the eccentric rotating wheel. The pushing frame is connected, the pushing frame is slidably connected to the positioning seat fixedly connected to the outside of the energy transmission box, an energy transmission tube fixedly connected to the energy transmission box is arranged between the pushing frame and the energy transmission box, an energy transmission part fixedly connected to the pushing frame is slidably connected on the inner side of the energy transmission tube, a spring is fixedly connected between the energy transmission part and the energy transmission box, an energy transmission tube is also fixedly connected to the box wall of the energy transmission box, an induction piston is fixedly connected to the outer wall of the other end of the energy transmission tube, the induction piston is slidably connected to the induction groove arranged on the inner side of the movable slide, the movable slide is arranged on the outside of the pushing frame, and is slidably connected to the T-shaped guide rail fixedly connected to the outside of the protective cylinder, a control rod is arranged between the movable slide and the support plate, one end of the control rod is rotatably connected to the movable slide, and the other end is rotatably connected to the support plate, which is used to cooperate with the movement of the movable slide to realize the lifting and lowering of the support plate.

6. The wastewater treatment device for algae-bacteria co-culture according to claim 5, characterized in that: The automatic pouring assembly includes: an arc-shaped slide, a synchronous rack, a transmission and control gear, a rotating rod, a positioning guide plate, a lifting control tube, an energy guiding tube, a constant pressure catheter, an infusion pump, a liquid storage chamber, a spray chamber and a spray pipe. The arc-shaped slide is symmetrically arranged on the inner side of the protective tube, and is arranged around the outer side of the supporting tube frame. It is slidably connected to the positioning guide plate fixedly connected to the inner side of the protective tube. A rotating rod rotatably connected to the protective tube is arranged between the arc-shaped slides on both sides. A transmission and control gear is fixedly connected to the outer side of the rotating rod. Synchronous racks are meshingly connected on both sides of the transmission and control gear. The synchronous racks on both sides are respectively fixedly connected to the arc-shaped slides on one side for realizing the relative movement of the arc-shaped slides on both sides. The liquid storage chamber and the spray chamber are symmetrically arranged on the inner side of the arc-shaped slide. Inorganic salt culture medium and nutrient solution are provided, and an infusion pump is fixedly connected to the inner side of the liquid storage cavity. The output end of the infusion pump is connected to the adjacent side spray cavity. A plurality of spray pipes are fixedly connected to the shell wall of the arc-shaped slide seat close to the supporting tube frame. The spray pipes are connected to the spray cavity and are used to cooperate with the infusion pump to spray the inorganic salt culture medium and nutrient solution to complete the energy supplement of algae and fungi. A lifting control component is fixedly connected to the arc-shaped slide seat at the top, and the lifting control component is slidably connected to the lifting control tube fixedly connected to the protective tube. The top wall of the lifting control tube is connected to the energy guiding tube through a constant pressure conduit. An energy guiding component fixedly connected to the support plate is slidably connected on the inner side of the energy guiding tube, which is used to cooperate with the lifting and lowering of the support plate to realize the reciprocating motion of the arc-shaped slide seats on both sides.

7. The wastewater treatment device for algae-bacteria co-cultivation according to claim 3, characterized in that: The synchronous cleaning unit includes: a cleaning brush, a cleaning brush, a synchronous sliding rod and a push-pull rod. The cleaning brush is abutted against the outside of the top end of the fine filter frame, and the cleaning brush is abutted against the outside of the top end of the filter frame. The cleaning brush and the cleaning brush are arranged in pairs, and a synchronous sliding rod is fixedly connected between the cleaning brush and the cleaning brush on the same side. The synchronous sliding rod is slidably connected to the box walls of the filter residue box and the re-filter box, and a push-pull rod is arranged between the cleaning brush and the support plate. One end of the push-pull rod is rotatably connected to the cleaning brush, and the other end is rotatably connected to the support plate, which is used to cooperate with the lifting of the support plate to realize the synchronous reciprocating motion of the cleaning brush and the cleaning brush to complete the cleaning of the fine filter frame and the filter frame.

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