Biodiversity water quality improving equipment

Abstract

The invention discloses biodiversity water quality improving equipment which comprises an equipment body, a floating part, a water guide pipe, a water inlet flower basket head, a micro-nano bubble generator, a large-flow submersible pump, a small molecular group water generator and magnetic equipment. Generated small molecular group water and magnetized water bond pollutant precipitates, the strong solubility and permeability enable microorganisms to penetrate sludge to degrade pollutants, the number of beneficial bacteria and algae is increased, generated charged microbubbles effectively repair a biological chain due to long retention time, and the self-cleaning capacity of water is enhanced; through the contact oxidation reaction of the filler and natural oxygenation of the nano bubble stone under the action of light, dissolved oxygen is more sufficient in effluent in a drop oxygenation mode, biodiversity is achieved, the biochemical rate is increased, the activity of water is enhanced, metabolism in fish and shrimp bodies is enhanced, and meat is more delicious after dirt in the bodies is released; and the yield and income of fishes and shrimps are increased.

Description

Technical Field

[0001] The invention relates to the technical field of aquaculture water treatment, in particular to a biodiversity water quality improvement device. Background Art

[0002] Tail water refers to the polluted water caused by leftover bait and feces during the aquaculture process. Aquaculture tail water will produce ammonia nitrogen, nitrite nitrogen, nitrate nitrogen, organic matter, phosphorus and harmful microorganisms. If aquaculture tail water is not treated promptly and effectively, it will not only deteriorate the environment of the aquaculture waters, but also cause outbreaks of diseases and even large-scale deaths of fish, shrimps and crabs, directly leading to a decline in the quality and output of aquaculture products and polluting the environment.

[0003] At present, the conventional way to treat water in aquaculture farms is to directly discharge it and re-introduce new water, but this will increase the cost of breeding. At the same time, the discharged water does not meet the emission standards and is likely to pollute the environment, which is not environmentally friendly. Summary of the invention

[0004] 1. Technical issues to be solved

[0005] In view of the deficiencies of the prior art, the present invention provides a biodiversity water quality improvement device to solve the above technical problems.

[0006] (II) Technical solution

[0007] In order to solve the above technical problems, the present invention provides the following technical solutions: a biodiversity water quality improvement device, characterized in that it includes: a device body, including a water storage chamber and a water quality treatment chamber, wherein the water storage chamber is provided with a water storage cavity, the water quality treatment chamber includes a bottom water flow cavity and an upper treatment cavity, and a partition plate is provided in the upper treatment cavity to divide the upper treatment cavity into a first filling cavity and a second filling cavity through the partition plate, the first filling cavity is arranged close to the water storage chamber, and the first filling cavity is provided with a first nano bubble stone layer, a first perforated plate layer, a first microbial filling layer and a second perforated plate layer from top to bottom, respectively, and the second filling cavity is provided with a second nano bubble stone layer, a third perforated plate layer, a second microbial filling layer and a fourth perforated plate layer from top to bottom, respectively, the water flows from the first filling cavity to the bottom water flow cavity, and then from the bottom water flow cavity to the second filling cavity; a floating member is arranged on the outside of the device body; a first water guide pipe, one end of which is arranged on one side end of the device body, and is connected to the water storage chamber, wherein the other end of the first water conduit is provided with a first water inlet basket head; a micro-nano bubble generator is arranged in the water storage chamber, and is used to generate nano-micro bubbles to aerate and oxygenate the circulating water in the water storage chamber of the water storage chamber; a large-flow submersible pump is arranged in the lower layer of the water in the water storage chamber of the water storage chamber; a small-molecule cluster water generator is used to generate small-molecule cluster water with strong permeability, and is arranged in the water storage chamber, wherein the input port of the small-molecule cluster water generator is connected to the output port of the large-flow submersible pump; a magnetic device is used to allow the water body to enter a high-strength magnetic cutting channel for magnetization to form magnetic water, wherein the input port of the magnetic device is connected to the output port of the small-molecule cluster water generator; wherein the horizontal plane where the top of the water storage chamber is located is higher than the horizontal plane where the first nano-bubble stone layer is located, the magnetic device is arranged at the top of the water storage chamber, and the output port of the magnetic device faces the first nano-bubble stone layer, so that the magnetic water generated by the magnetic device flows into the first nano-bubble stone layer.

[0008] Furthermore, the first nano-bubble stone layer and the second nano-bubble stone layer are both composed of nano-bubble stone, and the first microbial filler layer and the second microbial filler layer are both composed of suspended microbial filler balls, wherein the suspended microbial filler balls include a spherical three-dimensional suspension shell and a microbial filler arranged in the inner cavity of the suspension shell, and the outer surface of the suspension shell is provided with a plurality of flow holes connected to its inner cavity at intervals, and the microbial filler is not fully filled in the inner cavity of the suspension shell.

[0009] Furthermore, the first perforated plate layer, the second perforated plate layer, the third perforated plate layer and the fourth perforated plate layer are all composed of perforated plates, wherein the perforated plates are provided with through holes, and the aperture of the through holes is smaller than the outer diameter of the suspension shell.

[0010] Furthermore, the suspension shell is composed of a suspension material, wherein the buoyancy of the suspension shell in the water body is greater than the total weight of the suspension shell and the microbial filler.

[0011] Furthermore, a drop plate having a perforated plate water filtering structure and a tooth-shaped tail is provided on the top of one end of the second filling cavity away from the first filling cavity.

[0012] Furthermore, the floating member includes a first floating member and a second floating member which are symmetrically arranged on both sides of the equipment body and enable the equipment body to be suspended in the water body.

[0013] Furthermore, it also includes a second water pipe and a third water pipe, wherein one end of the second water pipe is arranged at one side end of the equipment body and is connected to the water storage chamber, and the other end of the second water pipe is provided with a second water inlet basket head, and one end of the third water pipe is arranged at one side end of the equipment body and is connected to the water storage chamber, and the other end of the third water pipe is provided with a third water inlet basket head; the first water inlet basket head, the second water inlet basket head and the third water inlet basket head are the same in shape and weight, the first water inlet basket head is connected to a first float, the second water inlet basket head is connected to a second float, and the third water inlet basket head is connected to a third float.

[0014] Furthermore, the first water inlet basket head, the second water inlet basket head and the third water inlet basket head all include a first tube body, a second tube body, a third tube body and a third tube body, wherein one end of the first tube body is used to connect with the first water conduit, the second water conduit or the third water conduit, the other end of the first tube body is vertically connected to the center of the second tube body, one end of the second tube body is connected to the third tube body, and the other end of the second tube body is connected to the fourth tube body, the third tube body and the fourth tube body are both square in shape, and a plurality of water inlet areas are arranged at intervals in the third tube body and the fourth tube body, and a plurality of water inlet holes are arranged at intervals in the water inlet areas.

[0015] Furthermore, the other end of the first tube body is rotatably connected to the center of the second tube body.

[0016] Furthermore, the first filling cavity is provided with a first stirring mechanism that rotates in a horizontal direction and is used to stir the nanostones of the first nanostone layer, the first filling cavity is also provided with a second stirring mechanism that rotates in a horizontal direction and is used to stir the suspended shell of the first microbial filling layer, the second filling cavity is provided with a third stirring mechanism that rotates in a horizontal direction and is used to stir the nanostones of the second nanostone layer, and the second filling cavity is also provided with a fourth stirring mechanism that rotates in a horizontal direction and is used to stir the suspended shell of the second microbial filling layer.

[0017] (III) Beneficial effects

[0018] Compared with the prior art, the present invention provides a biodiversity water quality improvement device, which has the following beneficial effects: the biodiversity water quality improvement device disclosed in the present invention includes a device body, a float, a water guide pipe, a water inlet basket head, a micro-nano bubble generator, a large-flow submersible pump, a small molecular cluster water generator and a magnetic device. In the above manner, the present invention allows the water body to circulate and flow through the above functional equipment to achieve water circulation without rotting. The generated small molecular cluster water and magnetized water bind pollutants to precipitate, and their strong solubility and permeability enable microorganisms to penetrate the silt to degrade pollutants, increase the number of beneficial bacteria and algae, and generate charged microbubbles. Because of the long residence time, the food chain is effectively repaired, and the self-purification ability of water is enhanced. In the contact oxidation reaction of the filler and the natural oxygenation of the nano bubble stone under the action of light, the outlet water is oxygenated by waterfall to make the dissolved oxygen more sufficient, thereby achieving biodiversity, improving the biochemical rate, and enhancing the activity of water. The metabolism in the body of fish and shrimp is strengthened, and the meat is more delicious after the dirt in the body is released, and the increase in production and income of fish and shrimp is achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic structural diagram of an embodiment of a biodiversity water quality improvement device of the present invention;

[0020] Figure 2 It is a structural schematic diagram of another embodiment of the biodiversity water quality improvement device of the present invention;

[0021] Figure 3 It is a schematic cross-sectional structure diagram of the biodiversity water quality improvement device of the present invention;

[0022] Figure 4 It is a structural schematic diagram of the water inlet basket head of the biodiversity water quality improvement device of the present invention;

[0023] Figure 5 This is a schematic diagram of the structure of the suspended microbial filler ball of the present invention;

[0024] Figure 6 It is a schematic diagram of the connection structure of the large flow submersible pump, the small molecular water generator and the magnetic device of the present invention;

[0025] Figure 7 It is a structural schematic diagram of the magnetic device of the present invention;

[0026] Figure 8 It is a structural schematic diagram of another embodiment of the biodiversity water quality improvement device of the present invention;

[0027] Fig. 9 for Figure 8 Schematic diagram of the cross-section structure of the device body. DETAILED DESCRIPTION

[0028] 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.

[0029] The present invention provides a biodiversity water quality improvement device, comprising a device body 10, a float 100, a first water pipe 11, a second water pipe 12, a third water pipe 13, a micro-nano bubble generator 14, a large flow submersible pump 15, a small molecular water generator 16 and a magnetic device 17.

[0030] The equipment body 10 includes a water storage chamber 101 and a water quality treatment chamber, wherein the water storage chamber 101 is provided with a water storage cavity 1011, the water quality treatment chamber includes a bottom water flow cavity 102 and an upper treatment cavity, and a partition plate 103 is provided in the upper treatment cavity to divide the upper treatment cavity into a first filling cavity 104 and a second filling cavity 105 through the partition plate 103, and the first filling cavity 104 is arranged close to the water storage chamber 101.

[0031] It should be understood that the water in this embodiment flows from the first filling cavity 104 to the bottom water cavity 102 , then flows from the bottom water cavity 102 to the second filling cavity 105 , and finally is discharged from the second filling cavity 105 .

[0032] In this embodiment, the first filler cavity 104 is provided with a first nano bubble stone layer 1041, a first perforated plate layer 1042, a first microbial filler layer 1043, and a second perforated plate layer 1044 from top to bottom. Further, the second filler cavity 105 is provided with a second nano bubble stone layer 1051, a third perforated plate layer 1052, a second microbial filler layer 1053, and a fourth perforated plate layer 1054 from top to bottom. In other words, the water flows from top to bottom in the order of the first nano bubble stone layer 1041, the first perforated plate layer 1042, the first microbial filler layer 1043, and the second perforated plate layer 1044 to the bottom water chamber 102, and then is discharged from the bottom water chamber 102 in the order of the fourth perforated plate layer 1054, the second microbial filler layer 1053, the third perforated plate layer 1052, and the second nano bubble stone layer 1051.

[0033] Preferably, the first nano-bubble stone layer 1041 and the second nano-bubble stone layer 1051 are both composed of nano-bubble stones, and the first microbial filler layer 1043 and the second microbial filler layer 1053 are both composed of suspended microbial filler balls 20. Further, the nano-bubble stone controls the particle size range to be 2 cm-5 cm.

[0034] It is worth noting that the nano-bubble stone used in this embodiment can utilize visible light to produce better energy-saving and oxygen-enhancing effects. It should be understood that the nano-bubble stone is light in weight and has a low monomer density, usually 0.2-1.2 g / cm3. The nano-bubble stone is porous and breathable, with a porosity of 50%-90% and a specific surface area greater than 2 m2 / g. Because the nano-bubble stone has a unique microcirculation system and carries many microorganisms in the water, there are many small holes on the nano-bubble stone, which become natural nests for microorganisms to parasitize. Most of the dirt and impurities in the water are organic matter, which become nutrients for microorganisms. The microorganisms will "eat" them as food, thereby achieving a cleaning effect. Therefore, the nano-bubble stone has a unique microcirculation system and carries a lot of microorganisms in the water. The nano-bubble stone has many small holes, which become natural nests for microorganisms to parasitize. Most of the dirt and impurities in the water are organic matter, which become nutrients for microorganisms. The microorganisms will "eat" them as food, thereby achieving a cleaning effect. The microorganisms in the nano-bubble stone can repeatedly purify the water to achieve a balance. This microcirculation system can ensure that the filter pool always remains clean without the need to add purifiers, flocculants and other substances. In addition, the nano-bubble stone undergoes cracking and advanced oxidation under light, and produces supercritical hydrogen-based free radicals in an ultra-low pressure and low temperature environment. Its bactericidal and oxidizing properties are more than 28 times stronger than ozone, and it is non-corrosive, making water molecules more active. These nano-bubble stones have a controlled particle size of 2 cm to 5 cm, are light in weight, and are covered with breathable micropores from the inside out. They are also called "electron-decomposed nano-sand and gravel" and are playing a key role in more and more ecological water management projects.

[0035] Furthermore, the suspended microbial filler ball 20 includes a spherical three-dimensional suspension shell 201 and a microbial filler arranged in the inner cavity of the suspension shell 201, wherein the outer surface of the suspension shell 201 is provided with a plurality of flow holes 202 connected with its inner cavity at intervals, and the microbial filler is not filled in the inner cavity of the suspension shell 201, so that the microbial filler has a certain space in the suspension shell 201, which can effectively prevent water blockage.

[0036] Preferably, the microbial filler fills 85% of the inner cavity of the suspension shell 201, that is, the microbial filler occupies 85% of the space of the inner cavity of the suspension shell 201, which can effectively achieve water treatment effect and prevent water blockage.

[0037] Furthermore, the first perforated plate layer 1042, the second perforated plate layer 1044, the third perforated plate layer 1052 and the fourth perforated plate layer 1054 are all composed of perforated plates, wherein the perforated plates are provided with through holes, and the aperture of the through holes is smaller than the outer diameter of the suspension shell 201, so that the suspension shell 201 cannot flow out and is restricted between the two layers of perforated plate layers.

[0038] In this embodiment, the suspension shell 201 is made of suspension material, wherein the buoyancy of the suspension shell 201 in the water body is greater than the total weight of the suspension shell 201 and the microbial filler, so that the entire suspended microbial filler ball 20 can be suspended in the water body.

[0039] Furthermore, in some embodiments, a first stirring mechanism for nano-bubble stones that rotates in a horizontal direction and is used to stir the first nano-bubble stone layer 1041 is provided in the first filling cavity 104, so that the position of the nano-bubble stones is constantly changed, which is more conducive to the contact of the nano-bubble stones with visible light to produce better energy-saving and oxygen-enhancing effects. That is, the first stirring mechanism will move back in the first nano-bubble stone layer 1041 in the first filling cavity 104 in a horizontal direction, and the first stirring mechanism will continuously stir the nano-bubble stones in the first nano-bubble stone layer 1041 during the movement, so that the nano-bubble stones are constantly rolling and changing positions, so that the nano-bubble stones at different positions can be exposed to the outside and contact the sunlight. In addition, a second stirring mechanism is provided in the first filling cavity 104, which rotates in the horizontal direction and is used to stir the suspended shell 201 of the first microbial filling layer 1043, so that the suspended shell 201 continuously changes position and rotates, making the water body more conducive to contact oxidation reaction and effectively preventing water blockage. Since the microbial filler is not fully filled in the inner cavity of the suspended shell 201, when the second stirring mechanism stirs the suspended shell 201 of the first microbial filling layer 1043, the microbial filler in the suspended shell 201 will continuously roll inside it, making the water body more conducive to contact oxidation reaction.

[0040] Furthermore, in some embodiments, a third stirring mechanism is provided in the second filling cavity 105, which rotates in a horizontal direction and is used to stir the nano-bubble stones in the second nano-bubble stone layer 1051, so that the position of the nano-bubble stones is constantly changed, which is more conducive to the contact between the nano-bubble stones and visible light to produce better energy-saving and oxygen-enhancing effects. That is, the third stirring mechanism will move back in the horizontal direction in the second nano-bubble stone layer 1051 in the second filling cavity 105, and the third stirring mechanism will continuously stir the nano-bubble stones in the second nano-bubble stone layer 1051 during the movement, so that the nano-bubble stones are constantly rolling and changing positions, so that the nano-bubble stones in different positions can be exposed to the outside and contact the sunlight. In addition, the second filling cavity 105 is also provided with a fourth stirring mechanism that rotates in the horizontal direction and is used to stir the suspended shell 201 of the second microbial filling layer 1053, so that the suspended shell 201 constantly changes position and rotates, making the water body more conducive to contact oxidation reaction and effectively preventing water blockage. Since the microbial filler is not fully filled in the inner cavity of the suspended shell 201, when the fourth stirring mechanism stirs the suspended shell 201 of the second microbial filler layer 1053, the microbial filler in the suspended shell 201 will continuously roll inside it, making the water body more conducive to contact oxidation reaction.

[0041] In this embodiment, a tooth-shaped water drop board is provided on the top of one end of the second filling cavity 105 away from the first filling cavity 104, so that water flows into the breeding pond through the water drop board, and the oxygenation effect is better.

[0042] Preferably, the horizontal plane where the water drop board is located is 200-350 mm higher than the water surface.

[0043] The float is disposed outside the device body 10 so that the device body 10 can float in the water through the float.

[0044] Preferably, the float includes a first float and a second float which are symmetrically arranged on both sides of the device body 10 and enable the device body 10 to float in the water.

[0045] One end of the first water pipe 11 is arranged at one side end of the equipment body 10, wherein the first water pipe 11 is connected to the water storage chamber 1011, so that water enters the water storage chamber 101 through the first water pipe 11, and the other end of the first water pipe 11 is provided with a first water inlet basket head 111.

[0046] One end of the second water pipe 12 is arranged at one side end of the equipment body 10, wherein the second water pipe 12 is connected to the water storage cavity 1011, so that water enters the water storage cavity 1011 of the water storage chamber 101 through the second water pipe 12, and the other end of the second water pipe 12 is provided with a second water inlet basket head 121.

[0047] One end of the third water pipe 13 is arranged at one side end of the equipment body 10, wherein the third water pipe 13 is connected to the water storage cavity 1011, so that water enters the water storage cavity 1011 of the water storage chamber 101 through the third water pipe 13, and the other end of the third water pipe 13 is provided with a third water inlet basket head 131.

[0048] It should be understood that the first water inlet basket head 111 , the second water inlet basket head 121 and the third water inlet basket head 131 are all water inlet basket heads that are not easily blocked.

[0049] It is worth noting that in a particular embodiment, Figure 2 As shown, the biodiversity water quality improvement device may only include a first water pipe 11, wherein the length of the first water pipe 11 is in the range of 10-15 meters, so that water from a long distance can be transported to the water storage cavity 1011 of the water storage chamber 101 through the first water pipe 11, thereby preventing the water from circulating in a short distance.

[0050] In this embodiment, the first water-entering flower basket head 111, the second water-entering flower basket head 121 and the third water-entering flower basket head 131 have the same shape and weight, wherein the first water-entering flower basket head 111 is connected to the first float 112 to suspend the first water-entering flower basket head 111 in the water body through the first float 112, the second water-entering flower basket head 121 is connected to the second float 122 to suspend the second water-entering flower basket head 121 in the water body through the second float 122, and the third water-entering flower basket head 131 is connected to the third float 132 to suspend the third water-entering flower basket head 131 in the water body through the third float 132.

[0051] It should be understood that in this embodiment, the buoyancy generated by the first buoy 112, the second buoy 122 and the third buoy 132 in the water is the same. Of course, in some embodiments, the buoyancy generated by the first buoy 112, the second buoy 122 and the third buoy 132 in the water may be different. Specifically, the buoyancy generated by the first buoy 112 in the water is greater than the buoyancy generated by the second buoy 122 in the water, and the buoyancy generated by the second buoy 122 in the water is greater than the buoyancy generated by the third buoy 132 in the water, so that the first water-entering flower basket head 111, the second water-entering flower basket head 121 and the third water-entering flower basket head 131 are respectively at different water depths (that is, the depth of the first water-entering flower basket head 111 is shallower than the depth of the second water-entering flower basket head 121, and the depth of the second water-entering flower basket head 121 is shallower than the depth of the third water-entering flower basket head 131), so as to transport water bodies of different depths into the water storage chamber 101, and the water quality treatment effect is better.

[0052] Furthermore, the first water inlet basket head 111, the second water inlet basket head 121 and the third water inlet basket head 131 all include a first tube body 21, a second tube body 22, a third tube body 23 and a third tube body 24, wherein one end of the first tube body 21 is used to connect with the first water conduit 11, the second water conduit 12 or the third water conduit 13, and the other end of the first tube body 21 is vertically connected to the center of the second tube body 22, one end of the second tube body 22 is connected to the third tube body 23, and the other end of the second tube body 22 is connected to the fourth tube body 24, wherein the third tube body 23 and the fourth tube body 24 are both square in shape, and a plurality of water inlet areas 25 are arranged at intervals in the third tube body 23 and the fourth tube body 24, and a plurality of water inlet holes are arranged at intervals in the water inlet area 25, so that water enters the third tube body 23 and the fourth tube body 24 through the plurality of water inlet holes.

[0053] Of course, in some embodiments, the other end of the first tube body 21 is rotatably connected to the center of the second tube body 22, so that when the equipment body 10 moves in the water body, it will drive the third tube body 23 and the fourth tube body 24 on the left and right sides to rotate, so as to change different positions to absorb water and prevent mud blockage, etc., especially the third tube body 23 and the fourth tube body 24 in the sludge of the water body, which drives the third tube body 23 and the fourth tube body 24 in the sludge to rotate, and can change different positions to absorb water, effectively preventing the sludge from clogging the tube body.

[0054] The micro-nano bubble generator 14 is disposed in the water storage chamber 10 and is used to generate nano-micro bubbles to aerate and oxygenate the circulating water in the water storage cavity of the water storage chamber 10 .

[0055] The large flow submersible pump 15 is arranged in the lower layer of the water body of the water storage chamber 1011 of the water storage chamber 101 .

[0056] The small-molecule water generator 16 is used to generate small-molecule water with strong permeability, wherein the small-molecule water generator 16 is arranged in the water storage chamber 101, and the input port of the small-molecule water generator 16 is connected to the output port of the large-flow submersible pump 15, so that the water pumped out by the large-flow submersible pump 15 is transported to the small-molecule water generator 16, so that the water is generated as small-molecule water with strong permeability through the small-molecule water generator 16. It should be understood that the small-molecule water generator 16 allows water to flow through a specially designed device at a certain speed, generating energy waves, and the energy waves resonate with the molecular water in the water, so that the molecular water in the water absorbs the energy of the wave, thereby breaking the bonds between the water molecular water, and the large molecular water becomes small-molecule water, wherein the small-molecule water has strong permeability, meets the required functions of the physiological activities of the human body and fish and shrimp, has strong water activity, and the small-molecule water reduces the viscosity of the water, increases the surface tension, and makes the pH value weakly alkaline, and increases the oxygen content, which is conducive to the absorption and replacement of animals, plants, fish and shrimp, and cell repair.

[0057] The magnetic device 17 is used to allow the water body to enter the high-intensity magnetic cutting channel for magnetization to form magnetic water, wherein the input port of the magnetic device 17 is connected to the output port of the small-molecule water generator 16, so that the small-molecule water with strong permeability generated by the small-molecule water generator 16 enters the magnetic device 17, so that the water body enters the high-intensity magnetic cutting channel through the magnetic device 17 for magnetization to form magnetic water. It should be understood that the magnetic device 17 is used to allow the water body to enter the high-intensity magnetic cutting narrow channel for magnetization to form magnetized water, and the magnetized water can change the charge state of the pollutants, making them easier to be adsorbed or precipitated, and can also promote the metabolic activities of microorganisms, effectively remove pollutants, and accelerate the degradation process of organic matter.

[0058] Further, such as Figure 7 As shown, the magnetic device 17 is provided with a long cylindrical spray pipe 171, wherein the end of the spray pipe 171 is sealed, and the side wall of the spray pipe 171 is provided with a plurality of spray holes at intervals along its length direction, so that the magnetic water output by the magnetic device 17 is sprayed out from the spray holes.

[0059] In this embodiment, the horizontal plane at the top of the water storage chamber 101 is higher than the horizontal plane at the first nano-bubble stone layer 1041, wherein the magnetic device 17 is arranged at the top of the water storage chamber 101, and the output port of the magnetic device 17 is facing the first nano-bubble stone layer 1041, so that the magnetic water generated by the magnetic device 17 flows into the first nano-bubble stone layer 1041.

[0060] Furthermore, in order to achieve energy saving, Figure 8-9 As shown, the side wall of the first filling cavity 104 is provided with a first chute 1045 in its length direction, and the first stirring mechanism includes a first stirring shaft 1046 passing through the first chute 1045 and located in the first nano-bubble stone layer 1041 of the first filling cavity 104, and a first fan blade structure 1047 located outside the side wall of the first filling cavity 104 and connected to the first stirring shaft 1046, wherein the first fan blade structure 1047 includes a plurality of fan blades rotatable in water, when the biodiversity water quality improvement equipment is placed on the water surface, the fan blades rotate on the water surface (natural wind blows the fan blades to rotate), and the fan blades will drive the first stirring shaft 1046 to rotate when rotating, so that the first stirring shaft 1046 will stir the nano-bubble stones in the first nano-bubble stone layer 1041, causing the nano-bubble stones to roll.

[0061] The side wall of the second filling cavity 105 is provided with a second chute 1055 in its length direction, and the second stirring mechanism includes a second stirring shaft 1056 passing through the second chute 1055 and located in the second nano-bubble stone layer 1051 of the second filling cavity 105, and a second fan blade structure 1057 located outside the side wall of the second filling cavity 105 and connected to the second stirring shaft 1056, wherein the second fan blade structure 1057 includes a plurality of fan blades rotatable in water, when the biodiversity water quality improvement equipment is placed on the water surface, the fan blades rotate on the water surface (natural wind blows the fan blades to rotate), and the fan blades will drive the second stirring shaft 1056 to rotate when rotating, so that the second stirring shaft 1056 will stir the nano-bubble stones in the second nano-bubble stone layer 1051, causing the nano-bubble stones to roll.

[0062] In addition, a power structure (such as a water pump) is also provided on one side end of the equipment body 10 of the biodiversity water quality improvement equipment. When the power structure is working, it can push the equipment body 10 to move in the water. When pushing the equipment body 10 to move, it will drive the blades of the first blade mechanism 1047 and the second blade mechanism 1057 to rotate, thereby driving the second stirring shaft 1056 and the second stirring shaft 1056 to rotate. At the same time, the first stirring shaft 1046 will also slide in the first slide groove 1045, and the second stirring shaft 1056 will also slide in the second slide groove 1055.

[0063] It should be noted that the terms "include", "comprises" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, an element defined by the sentence "comprises a ..." does not exclude the existence of other identical elements in the process, method, article or device including the element.

[0064] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A biodiversity water quality improvement device, characterized in that: include: The device body includes a water storage chamber and a water treatment chamber, wherein the water storage chamber is provided with a water storage chamber, the water treatment chamber includes a bottom water passage chamber and an upper treatment chamber, and a partition plate is provided in the upper treatment chamber to divide the upper treatment chamber into a first filler chamber and a second filler chamber through the partition plate, the first filler chamber is arranged close to the water storage chamber, the first filler chamber is provided with a first nano bubble stone layer, a first perforated plate layer, a first microbial filler layer and a second perforated plate layer from top to bottom, the second filler chamber is provided with a second nano bubble stone layer, a third perforated plate layer, a second microbial filler layer and a fourth perforated plate layer from top to bottom, the water flows from the first filler chamber to the bottom water passage chamber, and then flows from the bottom water passage chamber to the second filler chamber; A floating member, arranged outside the device body; A first water conduit, one end of which is arranged at one side of the equipment body and communicated with the water storage cavity, wherein the other end of the first water conduit is provided with a first water inlet basket head; A micro-nano bubble generator is arranged in the water storage chamber and is used to generate nano-micro bubbles to aerate and oxygenate the circulating water in the water storage cavity of the water storage chamber; A large flow submersible pump is arranged in the lower layer of the water body of the water storage cavity of the water storage chamber; A small-molecule water generator, used to generate small-molecule water with strong permeability, is arranged in the water storage chamber, wherein the input port of the small-molecule water generator is connected to the output port of the large-flow submersible pump; A magnetic device is used to allow water to enter a high-strength magnetic cutting channel for magnetization to form magnetic water, wherein the input port of the magnetic device is connected to the output port of the small molecular cluster water generator; Among them, the horizontal plane where the top of the water storage chamber is located is higher than the horizontal plane where the first nano-bubble stone layer is located, the magnetic device is arranged on the top of the water storage chamber, and the output port of the magnetic device is facing the first nano-bubble stone layer, so that the magnetic water generated by the magnetic device flows into the first nano-bubble stone layer.

2. The biodiversity water quality improvement device according to claim 1, characterized in that: The first nano-bubble stone layer and the second nano-bubble stone layer are both composed of nano-bubble stone, and the first microbial filler layer and the second microbial filler layer are both composed of suspended microbial filler balls, wherein the suspended microbial filler balls include a spherical three-dimensional suspension shell and a microbial filler arranged in the inner cavity of the suspension shell, and the outer surface of the suspension shell is provided with a plurality of flow holes connected to the inner cavity thereof at intervals, and the microbial filler is not fully filled in the inner cavity of the suspension shell.

3. The biodiversity water quality improvement device according to claim 2, characterized in that: The first perforated plate layer, the second perforated plate layer, the third perforated plate layer and the fourth perforated plate layer are all composed of perforated plates, wherein the perforated plates are provided with through holes, and the aperture of the through holes is smaller than the outer diameter of the suspension shell.

4. The biodiversity water quality improvement device according to claim 3, characterized in that: The suspension shell is composed of suspension materials, wherein the buoyancy of the suspension shell in water is greater than the total weight of the suspension shell and the microbial filler.

5. The biodiversity water quality improvement device according to claim 3, characterized in that: A drop plate including a perforated plate water filtering structure and a tooth-shaped tail is provided at the top of one end of the second filling cavity away from the first filling cavity.

6. The biodiversity water quality improvement device according to claim 1, characterized in that: The floating member includes a first floating member and a second floating member which are symmetrically arranged on both sides of the equipment body and enable the equipment body to be suspended in the water body.

7. The biodiversity water quality improvement device according to claim 1, characterized in that: It also includes a second water conduit and a third water conduit, wherein one end of the second water conduit is arranged at one side end of the equipment body and communicates with the water storage chamber, and the other end of the second water conduit is provided with a second water inlet basket head, and one end of the third water conduit is arranged at one side end of the equipment body and communicates with the water storage chamber, and the other end of the third water conduit is provided with a third water inlet basket head; The first water-entry flower basket head, the second water-entry flower basket head and the third water-entry flower basket head have the same shape and weight; the first water-entry flower basket head is connected to a first float; the second water-entry flower basket head is connected to a second float; and the third water-entry flower basket head is connected to a third float.

8. The biodiversity water quality improvement device according to claim 7, characterized in that: The first water inlet basket head, the second water inlet basket head and the third water inlet basket head all include a first tube body, a second tube body, a third tube body and a third tube body, wherein one end of the first tube body is used to connect with the first water conduit, the second water conduit or the third water conduit, the other end of the first tube body is vertically connected to the center of the second tube body, one end of the second tube body is connected to the third tube body, and the other end of the second tube body is connected to the fourth tube body, the third tube body and the fourth tube body are both square in shape, and a plurality of water inlet areas are arranged at intervals in the third tube body and the fourth tube body, and a plurality of water inlet holes are arranged at intervals in the water inlet areas.

9. The biodiversity water quality improvement device according to claim 8, characterized in that: The other end of the first tube is rotatably connected to the center of the second tube.

10. The biodiversity water quality improvement device according to claim 4, characterized in that: The first filling cavity is provided with a first stirring mechanism which rotates in a horizontal direction and is used to stir the nanostones of the first nanostone layer; the first filling cavity is also provided with a second stirring mechanism which rotates in a horizontal direction and is used to stir the suspended shell of the first microbial filling layer; the second filling cavity is provided with a third stirring mechanism which rotates in a horizontal direction and is used to stir the nanostones of the second nanostone layer; the second filling cavity is also provided with a fourth stirring mechanism which rotates in a horizontal direction and is used to stir the suspended shell of the second microbial filling layer.

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