Interactive bionic sunshade facility based on blue-green algae power generation and working method thereof

Abstract

The invention relates to an interactive bionic sunshade facility based on blue-green algae power generation and a working method of the interactive bionic sunshade facility. The bionic sunshade facility comprises a conical umbrella top, a rainwater filtering processor arranged in a lower body of the conical umbrella top, a pipeline supporting the conical umbrella top, a water and electricity treatment transfer station arranged on the lower portion of the pipeline and a folding type telescopic regulation and control seat arranged on the periphery of the water and electricity treatment transfer station. Two ends of the blue-green algae precipitation pipe are respectively communicated with the blue-green algae precipitation conveying pipe and a blue-green algae anaerobic precipitation barrel in the hydroelectric treatment transfer station, and two ends of the rainwater collection pipe are respectively communicated with the output end of the rainwater filtering processor and a water storage tank in the hydroelectric treatment transfer station; the upward water supply pipe is communicated with a water storage tank in the water and electricity treatment transfer station and supplies water to the conical umbrella top, the methane generator is electrically connected with an energy storage electric box located in the water and electricity treatment transfer station so as to achieve electric energy storage, and the energy storage electric box is electrically connected with the water and electricity treatment transfer station or an electric facility on the telescopic regulation and control seat.

Description

Technical Field

[0002] The present invention relates to the technical field related to biomass energy utilization and urban street facilities; in particular, to an interactive bionic sunshade facility based on blue-green algae power generation and a working method thereof. Background Art

[0004] With the continuous development of my country's urbanization process, the consumption of large amounts of fossil energy has brought about problems such as greenhouse effect and extreme weather. In response to the current pressure of energy demand and carbon emission dual control, many clean energy sources such as wind, solar, water and nuclear have become well known, but the application of biomass energy in the field of public design has not yet been popularized. Heat wave events in urban public activity spaces are becoming more and more serious. Large areas of hard paving in built-up areas have exacerbated the heat island effect. Shading facilities play an important role in people's outdoor activities.

[0005] As people's living standards improve, the demand for sunshade in many public places such as seaside beaches, leisure parks, and urban blocks is increasing. However, the common sunshade facilities on the market have the following shortcomings: on the one hand, the existing sunshade facilities have relatively single functions and only provide simple rest functions, which cannot meet people's diverse needs today. Some integrated lifting, photovoltaic and other functions make up for some of the shortcomings, but the high investment cost limits the promotion and application; on the other hand, traditional sunshade facilities are mainly based on non-biological materials, and are mainly based on the pursuit of economy, firmness and durability. The main purpose is to install the umbrella surface on the umbrella seat through the umbrella pole and stand it vertically on the ground, ignoring the changes in climate and time, and cannot achieve a good sunshade effect. It is difficult to compare with the natural experience of cooling off under the shade of trees. Its use method is generally fixed and passive, and there is no possibility of adjustment according to environmental factors or human factors.

[0006] The above problems require urban sunshade systems to have climate adaptability and two-way interactivity, and to develop from a single constant passive mode to a multifunctional active control mode. General sunshade systems are limited to the existing umbrella-shaped sunshade frames and cannot give urban spaces more possibilities. Their designs lack innovative ideas for integrating inorganic equipment with organic biomaterials. Summary of the invention

[0007] In view of the above-mentioned deficiencies in the prior art, the object of the present invention is to provide an interactive bionic sunshade facility based on blue-green algae power generation and a working method thereof. The interactive bionic sunshade facility based on blue-green algae power generation and a working method thereof are reasonably designed and can solve the problems of functional limitations, passive sunshade and backward technical integration of existing sunshade facilities.

[0008] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an interactive bionic sunshade facility based on blue-green algae power generation, characterized in that it includes a conical umbrella top, a rainwater filtration processor arranged in the lower part of the conical umbrella top, a pipeline supporting the conical umbrella top, a hydropower treatment transfer station arranged in the lower part of the pipeline, and a foldable and retractable adjustable seat arranged on the periphery of the hydropower treatment transfer station; a blue algae precipitation conveying pipe and a blue-green algae water supply pipe are arranged on the conical umbrella top, a blue algae precipitation pipe with two ends connected to the blue algae precipitation conveying pipe and the blue algae anaerobic precipitation barrel in the hydropower treatment transfer station respectively, and a blue algae precipitation pipe with two ends connected to the blue algae precipitation conveying pipe and the blue algae anaerobic precipitation barrel in the hydropower treatment transfer station respectively. A rainwater collection pipe connected to the output end of the rainwater filtration processor and the water storage tank in the hydropower treatment transfer station respectively, and an upward water supply pipe connected to the water storage tank in the hydropower treatment transfer station and supplying water to the conical umbrella top; the blue-green algae anaerobic precipitation tank is connected to the methane generator through a gas transmission pipeline located in the hydropower treatment transfer station, so that the fermented gas in the blue-green algae anaerobic precipitation tank is transported to the methane generator for power generation; the methane generator is electrically connected to the energy storage box located in the hydropower treatment transfer station to realize electrical energy storage; the energy storage box is electrically connected to the electrical facilities in the hydropower treatment transfer station or the retractable and adjustable seat.

[0009] Preferably, the conical umbrella top is formed into a cone shape by a plurality of frames and ETFE films surrounding the frames.

[0010] Preferably, the above-mentioned skeleton includes three inclined blue algae precipitation conveying pipes, blue-green algae water supply pipes and air exchange regulation pipes, and multiple groups of stepped horizontally arranged graded conveying pipes are connected between the blue algae precipitation conveying pipes, blue-green algae water supply pipes and air exchange regulation pipes, and multiple blue-green algae culture tubes are connected between the upper and lower adjacent graded conveying pipes.

[0011] Preferably, the above-mentioned rainwater filtration processor includes a primary water filtration membrane, a secondary filter and a temporary water storage area which are arranged in sequence from top to bottom in the lower body of the conical umbrella top, the peripheries of the primary water filtration membrane and the secondary filter are sealed and connected with the peripheries inside the lower body of the conical umbrella top, the upper port of the temporary water storage area is connected with the lower port of the conical umbrella top, the upper end of the rainwater collection pipe extends into the temporary water storage area, and the lower end of the rainwater collection pipe extends into the water storage tank.

[0012] Preferably, the above-mentioned foldable, retractable and adjustable seat comprises a plurality of sheet-type wooden boards of the same shape and a folding frame connected between adjacent sheet-type wooden boards, the plurality of sheet-type wooden boards are arranged radially in a ring, rollers are provided on at least the head and tail ends of the sheet-type wooden boards in the foldable, retractable and adjustable seat, a slide rail is provided on the water and electricity treatment transfer station, and the rollers slide on the slide rail.

[0013] Preferably, the folding frame is a scissors frame or a honeycomb panel, and a supporting cloth strip covering the folding frame and supporting the seat is provided between adjacent sheet-type wooden boards.

[0014] Preferably, pressure sensors are evenly distributed in the circumferential direction on the above-mentioned hydropower treatment transfer station, and lamps are provided on the conical umbrella top, pipeline, hydropower treatment transfer station or foldable and retractable adjustable seat. Pressure sensors are connected in series on the circuit that supplies power to individual lamps so that individual lamps light up when the pressure sensors are under force.

[0015] Preferably, the upper end of the pipe and the lower end of the conical umbrella top are connected by a universal ball joint to achieve universal rotation of the conical umbrella top relative to the pipe.

[0016] A working method of an interactive bionic sunshade facility based on blue-green algae power generation as claimed in the claim, when the active sensor detects that the oxygen content inside the air exchange control tube increases, the air valve is controlled to open to release oxygen outward through the air exchange control tube; when the active sensor detects that the carbon dioxide content inside the air exchange control tube exceeds the standard, the air valve at the interface between the blue-green algae precipitation conveying tube and the graded conveying tube is opened, and the air valve between the graded conveying tube and the air exchange control tube is closed, and the dead blue-green algae are pressurized by gradually increasing the gas pressure of carbon dioxide in the closed space to be transported downward to the blue-green algae anaerobic precipitation barrel through the blue-green algae culture tube, the graded conveying tube, the blue-green algae precipitation conveying tube and the blue-green algae precipitation tube in sequence; when the water content in the air in the air exchange control tube is insufficient, the active sensor transmits a signal, which reaches multiple graded conveying tubes and blue-green algae culture tubes through the water pump, the upward water supply pipe and the blue-green algae water supply pipe, and the blue-green algae culture tube is a transparent hose.

[0017] For the conical rainwater filtration processor, it processes rainwater twice and temporarily stores it once. First, the rainwater passes through the primary water filtration membrane to filter and precipitate large particles of impurities to obtain relatively clean water quality; the second-layer secondary filter uses the ultrafiltration membrane to continue to filter large particles of impurities and microorganisms to obtain relatively clean water quality; the filtered water will be temporarily stored in the temporary water storage area, and when the water level line is reached, it will be transmitted downward through the water collection pipe.

[0018] Compared with the prior art, the interactive bionic sunshade facility based on blue-green algae power generation of the present invention has the following beneficial results: (1) The present invention adopts a combination of organic and inorganic methods to produce a bionic sunshade facility. The bionic sunshade facility uses an ETFE film to make an umbrella surface. A transparent hose is placed in the cavity formed in the umbrella surface to cultivate blue-green algae. Blue-green algae are large single-cell prokaryotes that can perform photosynthesis. During their growth, they absorb carbon dioxide and release oxygen. At the same time, their growth quantity is affected by light intensity. When there is sufficient sunlight, their quantity increases, and when there is insufficient sunlight, their quantity decreases. The sunshade capacity is positively correlated with the quantity of blue-green algae. This can simulate the changing effect of sunshade on trees in nature and simulate the natural experience of enjoying the cool under the shade of trees.

[0019] (2) The present invention is a new type of green urban public infrastructure based on biomass power generation. It mainly uses blue-green algae to generate electricity to form a relatively independent system. In addition to providing electricity to ensure the autonomous operation of the entire sunshade system, it can also provide part of the energy to the outside, complementing other facilities to form a public activity space service network.

[0020] (3) The two-way interactivity of the present invention. On the one hand, the seats fully consider ergonomics. The foldable and retractable seats on the top are in line with the adult scale, and the fixed seats on the bottom are in line with the children's scale, taking care of the needs of different groups of people. On the other hand, the facility realizes all-weather interaction with people. During the day, the canopy intelligently controls the angle according to the sun's position, and the shadow area guides the seat to change its unfolding position. At night, the lighting and brightness of the corresponding area are controlled according to the pressure sensor set under the seat, realizing precise energy use and avoiding waste.

[0021] (4) The present invention is an innovation in applying biomass energy to the field of urban street facilities. The flexible recycling of blue-green algae in the device responds to the recycling and regeneration needs in the sustainable urban development goals. The energy generated by blue-green algae is combined with public activities to provide a new initiative and feasibility for carbon neutrality in the field of urban construction. It is in line with the current green development trend as a whole and has the foresight to adapt to future elastic needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] The following is a further description of an interactive bionic sunshade facility based on blue-green algae power generation according to the present invention in conjunction with the accompanying drawings: Figure 1 , 2 It is an overall isometric view of different forms of the present invention; Figure 3 An exploded view of the present invention; Figure 4-7 It is a diagram of the triangular umbrella top of the blue-green algae ETFE membrane of the present invention; Figure 8 A diagram of a cone-shaped rainwater filtration processor of the present invention; Fig. 9 An exploded view of the pipeline supporting the sub-control of the present invention; Fig.10 A three-dimensional diagram of adjusting the sun-facing angle of the conical umbrella top; Fig.11 It is an exploded view of the hydropower treatment transfer station of the present invention; Figure 12-13 The foldable, retractable and adjustable seat of the present invention has different configurations; Fig.14 It is a cross-sectional schematic diagram of the foldable, retractable and adjustable seat unit of the present invention.

[0024] Fig.15 It is a three-dimensional diagram of the connection between the sheet wood board and the folding frame. DETAILED DESCRIPTION

[0025] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0026] The interactive bionic sunshade facility based on blue-green algae power generation of the present invention includes a conical umbrella top 1, a rainwater filtration processor 2 arranged in the lower part of the conical umbrella top 1, a pipeline 3 supporting the conical umbrella top, a hydropower treatment transfer station 4 arranged at the lower part of the pipeline 3, and a foldable and retractable adjustable seat 5 arranged on the outer periphery of the hydropower treatment transfer station 4.

[0027] The conical umbrella top 1 includes an ETFE membrane triangular umbrella surface 11, a Lello triangle frame 12 connected to a pipeline 3, and an active sensor 13; the rainwater filtration processor 2 includes a primary water filtration membrane 21, a secondary filter 22, and a temporary water storage area 23; the pipeline 3 includes a blue-green algae precipitation pipe 31, a rainwater collection pipe 32, an upward water supply pipe 33, and a universal ball 34; the hydropower treatment transfer station 4 includes a water storage and water delivery system 41 and a biomass power generation system 42; the foldable and retractable adjustable seat 5 includes a moving track 51 and a chair unit 52.

[0028] The ETFE membrane triangular umbrella surface 11 is formed by a plurality of frames and ETFE membranes arranged on the frames. The ETFE membrane triangular umbrella surface 11 is conical. ETFE is the toughest fluoroplastic. While maintaining the good heat resistance, chemical resistance and electrical insulation properties of PTFE, it has greatly improved radiation resistance and mechanical properties. The tensile strength can reach 50MPa, which is nearly twice that of polytetrafluoroethylene.

[0029] The above-mentioned skeleton includes three inclined blue algae precipitation conveying pipes 121, blue-green algae water supply pipes 122 and air exchange regulation pipes 123. The blue algae precipitation conveying pipes 121, blue-green algae water supply pipes 122 and air exchange regulation pipes 123 can be steel pipes or plastic pipes. They have greater rigidity and strength to support the formation of the ETFE membrane triangular umbrella surface 11. Multiple groups of stepped horizontally arranged graded conveying pipes 111 are connected between the blue algae precipitation conveying pipes 121, blue-green algae water supply pipes 122 and air exchange regulation pipes 123. As shown in the figure, the lengths of the graded conveying pipes 111 at different heights are different. Multiple blue-green algae culture tubes 112 are connected between the upper and lower adjacent graded conveying pipes 111. The blue algae precipitation conveying pipes 121, blue-green algae water supply pipes 122, graded conveying pipes 111 and multiple blue-green algae culture tubes 112 do not have pores connected to the outside air. Only the air exchange regulation pipe 123 is provided with pores connected to the outside air.

[0030] The blue algae precipitation conveying pipe 121, the blue-green algae water supply pipe 122 and the air exchange control pipe 123 are all connected to the graded conveying pipe 111 in the horizontal direction. The interfaces of the blue algae precipitation conveying pipe 121, the blue-green algae water supply pipe 122 and the air exchange control pipe 123 with the graded conveying pipe 111 are all provided with air valves 114 (which can be valves for opening and closing the pipe bodies). An activity sensor 13 (including three sensors capable of measuring oxygen content, carbon dioxide content and water content) is provided inside the air exchange control pipe 123. When the activity sensor 13 detects that the oxygen content inside the air exchange control pipe 123 increases, the air valve (referring to the air exchange control pipe 123) is controlled. The valve connecting the air exchange control pipe 123 with the outside air is opened to release oxygen outward through the air exchange control pipe 123; when the active sensor detects that the carbon dioxide content in the air exchange control pipe 123 exceeds the standard, the air valve at the interface between the blue algae precipitation conveying pipe 121 and the graded conveying pipe 111 is opened, and the air valve between the graded conveying pipe 111 and the air exchange control pipe 123 is closed, and the dead blue-green algae are pressurized by the gradually increasing gas pressure of carbon dioxide in the closed space to be transported downward to the blue-green algae anaerobic precipitation barrel 421 through the blue-green algae culture pipe 112, the graded conveying pipe 111, the blue algae precipitation conveying pipe 121 and the blue-green algae precipitation pipe 31 in sequence. When the water content in the air in the air exchange control pipe 123 is insufficient, the active sensor 13 transmits a signal, which is then transmitted to the multiple graded conveying pipes 111 and the blue-green algae culture pipe 112 through the water pump 412, the upward water supply pipe 33 and the blue-green algae water supply pipe 122, and the blue-green algae culture pipe 112 is a transparent hose.

[0031] The conical umbrella top 1 is provided with a blue algae precipitation delivery pipe 121 and a blue-green algae water supply pipe 122, and the pipe 3 is provided with a blue algae precipitation pipe 31 whose two ends are respectively connected to the blue algae precipitation delivery pipe 121 and the blue algae anaerobic precipitation tank 421 in the hydropower treatment transfer station 4, and a rainwater collection pipe 32 whose two ends are respectively connected to the output end of the rainwater filter processor 2 and the water storage tank 411 in the hydropower treatment transfer station 4, and an upward water supply pipe 33 (a water pump is provided on the water storage tank 411) which is connected to the water storage tank 411 in the hydropower treatment transfer station 4 and supplies water to the conical umbrella top 1. 412 is used for pumping water), the blue-green algae anaerobic precipitation tank 421 is connected to the methane generator 424 through a gas transmission pipeline 423 located in the hydropower treatment transfer station 4 (a pressurizer 422 may be provided on the connecting pipeline), so that the fermented gas in the blue-green algae anaerobic precipitation tank 421 is transported to the methane generator 424 for power generation, and the methane generator 424 is electrically connected to an energy storage box 425 located in the hydropower treatment transfer station 4 to realize electrical energy storage, and the energy storage box 425 is electrically connected to the electrical facilities on the hydropower treatment transfer station 4 or the retractable adjustable seat 5.

[0032] The rainwater filtration processor 2 includes a primary water filtration membrane 21, a secondary filter 22 and a temporary water storage area 23 which are sequentially arranged in the lower body of the conical umbrella top 1 from top to bottom. The peripheries of the primary water filtration membrane 21 and the secondary filter 22 are sealed and connected to the periphery of the lower body of the conical umbrella top 1. The upper end of the temporary water storage area 23 is connected to the lower end of the conical umbrella top 1. The upper end of the rainwater collection pipe 32 extends into the temporary water storage area 23, and the lower end of the rainwater collection pipe 32 extends into the water storage tank 411. When working, rainwater is first filtered and precipitated with large particles of impurities through the primary water filtration membrane 21 to obtain relatively clean water quality; the secondary filter 22 on the second layer continues to filter large particles of impurities and microorganisms using an ultrafiltration membrane to obtain relatively clean water quality; the filtered water will be temporarily stored in the temporary water storage area 23, and when the water level is reached, it will be transmitted downward to the water storage tank 411 through the water collection pipe 32.

[0033] The above-mentioned foldable, retractable and adjustable seat 5 includes a plurality of sheet-type wooden boards 513 of the same shape (the sheet-type wooden boards 513 are in the shape of stepped boards, that is, a small rectangular notch is provided on the basis of a large rectangular board, the edge of the rectangular notch serves as a sitting edge, and the sitting edges of a plurality of sheet-type wooden boards 513 are connected to form a sitting surface, and of course, the large rectangular board and the small rectangle are not limited to the rectangular shape) and a folding frame 512 connected between adjacent sheet-type wooden boards 513, and a plurality of sheet-type wooden boards 513 are arranged radially in a ring shape, and rollers 514 are provided on at least the sheet-type wooden boards 513 at the head and tail ends of the foldable, retractable and adjustable seat 5, and a slide rail 52 is provided on the hydropower treatment transfer station 4, and the rollers 514 are arranged on the slide rail 5 2, when in motion, the sheet-type wooden board 513 at the head and tail ends of the foldable and retractable adjustable seat 5 slides on the slide rail 52 by means of the roller 514, and when the foldable and retractable adjustable seat 5 is unfolded to the maximum, that is, the sheet-type wooden board 513 at the head and tail ends is attached after being circled 360 degrees around the water and electricity treatment transfer station 4 (in the shape of a stepped truncated cone), so as to realize a seat with a stepped shape in the entire circumferential direction; when the foldable and retractable adjustable seat 5 is partially unfolded, that is, the sheet-type wooden board 513 at the head and tail ends is unfolded less than 360 degrees on the water and electricity treatment transfer station 4 (in the shape of a stepped truncated cone), seats of different heights are formed on the foldable and retractable adjustable seat 5 and the water and electricity treatment transfer station 4, so as to be suitable for children and adults to ride.

[0034] The above-mentioned folding frame 512 can be a scissors frame or a honeycomb panel. The four ends of the scissors frame are respectively connected to two adjacent sheet-type wooden boards 513. The scissors frame can be made of steel pipes, aluminum pipes, etc., and the honeycomb panel can be made of paper materials. The telescopic folding direction of the honeycomb panel is the spacing direction of adjacent sheet-type wooden boards 513. A supporting cloth strip covering the folding frame 512 and supporting the seat bearer is also provided between the adjacent sheet-type wooden boards 513. The supporting cloth strip can be connected to the edge of the sitting side of the sheet-type wooden board 513, so as to support the seat bearer.

[0035] Pressure sensors 426 are evenly distributed in the circumferential direction on the above-mentioned hydropower treatment transfer station 4, and lamps are provided on the conical umbrella top 1, the pipeline 3, the hydropower treatment transfer station 4 or the foldable and retractable adjustable seat 5. The pressure sensors 426 are connected in series on the circuit that supplies power to individual lamps, so that individual lamps light up when the pressure sensors 426 are stressed. When the passengers sit on the seats, the pressure sensors 426 are stressed to connect the circuit, so that the corresponding lamps light up, thereby increasing the brightness of the lighting; a seat cushion 427 is provided above the pressure sensor 426.

[0036] The upper end of the above-mentioned pipe 3 and the lower end of the conical umbrella top 1 can be fixedly connected, and the cone axis of the conical umbrella top 1 forms an angle less than 180 degrees and greater than 120 degrees with the axis of the pipe 3. The pipe 3 and the conical umbrella top 1 are rotated by a driving component such as a motor so that the surface of the conical umbrella top 1 can face the sunlight (that is, the cone axis of the conical umbrella top 1 faces the sun); or the upper end of the pipe 3 is connected to the universal ball 34 at the lower end of the conical umbrella top 1 to realize the universal rotation of the conical umbrella top 1 relative to the pipe 3, and the rotation of the conical umbrella top 1 is realized by the driving mechanism so that the cone axis of the conical umbrella top 1 faces the sun (the driving mechanism is a prior art and will not be described here).

[0037] Compared with the prior art, the interactive bionic sunshade facility based on blue-green algae power generation of the present invention has the following beneficial results: (1) The present invention adopts a combination of organic and inorganic methods to produce a bionic sunshade facility. The bionic sunshade facility uses an ETFE film to make an umbrella surface. A transparent hose is placed in the cavity formed in the umbrella surface to cultivate blue-green algae. Blue-green algae are large single-cell prokaryotes that can perform photosynthesis. During their growth, they absorb carbon dioxide and release oxygen. At the same time, their growth quantity is affected by light intensity. When there is sufficient sunlight, their quantity increases, and when there is insufficient sunlight, their quantity decreases. The sunshade capacity is positively correlated with the quantity of blue-green algae. This can simulate the changing effect of sunshade on trees in nature and simulate the natural experience of enjoying the cool under the shade of trees.

[0038] (2) The present invention is a new type of green urban public infrastructure based on biomass power generation. It mainly uses blue-green algae to generate electricity to form a relatively independent system. In addition to providing electricity to ensure the autonomous operation of the entire sunshade system, it can also provide part of the energy to the outside, complementing other facilities to form a public activity space service network.

[0039] (3) The two-way interactivity of the present invention. On the one hand, the seats fully consider ergonomics. The foldable and retractable seats on the top are in line with the adult scale, and the fixed seats on the bottom are in line with the children's scale, taking care of the needs of different groups of people. On the other hand, the facility realizes all-weather interaction with people. During the day, the canopy intelligently controls the angle according to the sun's position, and the shadow area guides the seat to change its unfolding position. At night, the lighting and brightness of the corresponding area are controlled according to the pressure sensor set under the seat, realizing precise energy use and avoiding waste.

[0040] (4) The present invention is an innovation in applying biomass energy to the field of urban street facilities. The flexible recycling of blue-green algae in the device responds to the recycling and regeneration needs in the sustainable urban development goals. The energy generated by blue-green algae is combined with public activities to provide a new initiative and feasibility for carbon neutrality in the field of urban construction. It is in line with the current green development trend as a whole and has the foresight to adapt to future elastic needs.

[0041] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to the specific implementation methods described. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An interactive bionic sunshade facility based on blue-green algae power generation, characterized by: The invention comprises a conical umbrella top (1), a rainwater filter processor (2) arranged in the lower part of the conical umbrella top (1), a pipe (3) supporting the conical umbrella top, a hydropower treatment transfer station (4) arranged in the lower part of the pipe (3), and a foldable and retractable adjustable seat (5) arranged on the outer periphery of the hydropower treatment transfer station (4); the conical umbrella top (1) is provided with a blue algae precipitation conveying pipe (121) and a blue-green algae water supply pipe (122); the pipe (3) is provided with a blue-green algae precipitation pipe (31) whose two ends are respectively connected to the blue algae precipitation conveying pipe (121) and the blue-green algae anaerobic precipitation barrel (421) in the hydropower treatment transfer station (4); and a blue-green algae precipitation pipe (31) whose two ends are respectively connected to the output end of the rainwater filter processor (2) and the water storage tank (411) in the hydropower treatment transfer station (4). ) is connected to a rainwater collection pipe (32) connected to the water storage tank (411) in the hydropower treatment transfer station (4), and an upward water supply pipe (33) is connected to the conical umbrella top (1) and supplies water. The blue-green algae anaerobic precipitation tank (421) is connected to the methane generator (424) through a gas transmission pipeline (423) located in the hydropower treatment transfer station (4), so that the fermented gas in the blue-green algae anaerobic precipitation tank (421) is transported to the methane generator (424) to generate electricity. The methane generator (424) is electrically connected to an energy storage box (425) located in the hydropower treatment transfer station (4) to realize electric energy storage. The energy storage box (425) is electrically connected to the hydropower treatment transfer station (4) or the electrical facilities on the retractable and adjustable seat (5).

2. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 1 is characterized by: The conical umbrella top (1) is formed into a cone shape by a plurality of frames and ETFE films surrounding the frames.

3. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 1 is characterized by: The skeleton comprises three inclinedly arranged blue algae precipitation transport pipes (121), a blue-green algae water supply pipe (122) and an air exchange control pipe (123); a plurality of groups of stepped horizontally arranged graded transport pipes (111) are connected between each of the blue algae precipitation transport pipes (121), the blue-green algae water supply pipes (122) and the air exchange control pipe (123); and a plurality of blue-green algae culture pipes (112) are connected between the upper and lower adjacent graded transport pipes (111).

4. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 1 or 3, characterized in that: The rainwater filtration processor (2) comprises a primary water filtration membrane (21), a secondary filter (22) and a temporary water storage area (23) which are arranged in sequence from top to bottom in the lower body of the conical umbrella top (1); the peripheries of the primary water filtration membrane (21) and the secondary filter (22) are sealedly connected to the peripheries of the lower body of the conical umbrella top (1); the upper end of the temporary water storage area (23) is connected to the lower end of the conical umbrella top (1); the upper end of the rainwater collection pipe (32) extends into the temporary water storage area (23); and the lower end of the rainwater collection pipe (32) extends into the water storage tank (411).

5. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 1 is characterized by: The foldable, retractable and adjustable seat (5) comprises a plurality of sheet-type wooden boards (513) of the same shape and a folding frame (512) connected between adjacent sheet-type wooden boards (513), wherein the plurality of sheet-type wooden boards (513) are radially arranged in a ring shape, and rollers (514) are provided on at least the sheet-type wooden boards (513) at the head and tail ends of the foldable, retractable and adjustable seat (5), and a slide rail (52) is provided on the hydropower treatment transfer station (4), and the rollers (514) slide on the slide rail (52).

6. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 5 is characterized by: The folding frame (512) is a scissor frame or a honeycomb board, and a supporting cloth strip covering the folding frame (512) and supporting the seat is provided between adjacent sheet-type wooden boards (513).

7. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 5 is characterized by: Pressure sensors (426) are evenly distributed in the circumferential direction on the hydropower treatment transfer station (4); lamps are provided on the conical umbrella top (1), the pipeline (3), the hydropower treatment transfer station (4) or the foldable and retractable adjustable seat (5); and pressure sensors (426) are connected in series to the circuits for supplying power to individual lamps, so that the individual lamps light up when the pressure sensors (426) are subjected to force.

8. The interactive bionic sunshade facility based on blue-green algae power generation according to claim 1 is characterized by: The upper end of the pipe (3) and the lower end of the conical umbrella top (1) are connected by a universal ball joint, so as to realize universal rotation of the conical umbrella top (1) relative to the pipe (3).

9. A working method of an interactive bionic sunshade facility based on blue-green algae power generation as claimed in any one of claims 1 to 8, characterized in that: When the activity sensor (13) detects that the oxygen content inside the air exchange control tube (123) increases, the air valve is controlled to open to release oxygen to the outside through the air exchange control tube (123); when the activity sensor detects that the carbon dioxide content inside the air exchange control tube (123) exceeds the standard, the air valve at the interface between the cyanobacteria precipitation conveying tube (121) and the graded conveying tube (111) is opened, and the air valve between the graded conveying tube (111) and the air exchange control tube (123) is closed, so that the dead algae are pressurized by gradually increasing the gas pressure of carbon dioxide in the closed space. The dead blue-green algae are sequentially transported downwards to the blue-green algae anaerobic precipitation tank (421) through the blue-green algae culture tube (112), the graded transport tube (111), the blue-green algae precipitation transport tube (121) and the blue-green algae precipitation tube (31); when the water content in the air in the air exchange control tube (123) is insufficient, the activity sensor (13) transmits a signal, which is then transmitted through the water pump (412), the upward water supply tube (33) and the blue-green algae water supply tube (122) to the multiple graded transport tubes (111) and the blue-green algae culture tube (112), and the blue-green algae culture tube (112) is a transparent hose.

10. The working method of the interactive bionic sunshade facility based on blue-green algae power generation according to claim 1 is characterized by: The conical rainwater filtration processor processes rainwater twice and temporarily stores rainwater once. First, the rainwater is filtered and precipitated with large particles of impurities through the primary water filtration membrane (21) to obtain relatively clean water quality. The second-layer secondary filter (22) uses an ultrafiltration membrane to continue filtering large particles of impurities and microorganisms to obtain relatively clean water quality. The filtered water will be temporarily stored in the temporary water storage area (23). When the water level is reached, it will be transmitted downward through the water collection pipe (32).

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