Efficient floating island combining floating aeration and regular polygon spliced floating basins

Abstract

The invention discloses a floating aeration and regular polygon spliced floating basin combined efficient floating island which comprises a floating disc, a pentagonal disc is fixedly mounted on the upper surface of the floating disc, frame plates are fixedly mounted on the pentagonal lower surface of the pentagonal disc, and snap fasteners are fixedly mounted at one ends of the frame plates, so that the floating disc can be buckled and spliced with another group of floating discs through the snap fasteners; four groups of V-shaped frames are fixedly mounted in the floating disc, a planting groove is formed among the four groups of V-shaped frames, supporting mechanisms are rotatably mounted in the four groups of V-shaped frames, each group of supporting mechanisms can be mutually buckled and spliced above the planting groove, and an aeration generating mechanism is fixedly mounted among the four groups of V-shaped frames. Through the design of the supporting mechanism and the aeration generation mechanism, after plants are planted, surrounding rods can be formed through the supporting rods to support the plants, water flow impact is reduced, meanwhile, the aeration generation mechanism below the floating disc can aerate water, the content of dissolved oxygen in the water can be increased, and plant root respiration and water ecological system balance can be promoted.

Description

Technical Field

[0001] The invention relates to the technical field of floating plates, in particular to a high-efficiency floating island combining floating aeration with regular polygonal spliced ​​floating basins. Background Art

[0002] Environmental pollution has always been an issue that deserves special attention. Among them, water resources are the most in need of close attention. The reason is that household and industrial wastewater will inevitably be discharged into rivers or ditches. In other words, rivers and lakes are very easy to be polluted. In view of this, some businesses have thought from another perspective and developed corresponding supporting measures, planting aquatic plants through a large number of floating trays to form ecological floating islands, helping to stabilize water quality and achieve the purpose of repairing the environment.

[0003] For example, a Chinese patent with announcement number CN205222818U discloses a planting float, which is used to float on a liquid surface. The planting float includes a main body, at least one first connecting part, and at least one second connecting part; the main body has a receiving hole for accommodating a planting seat, the at least one first connecting part extends integrally to the main body, and the at least one second connecting part extends integrally to the main body; wherein the first connecting part is provided for pivotally combining with the second connecting part of another planting float, and the second connecting part is provided for pivotally combining with the first connecting part of another planting float. The present invention is provided with two connecting parts at the same time, and the user can quickly connect two planting floats through this design; and when the planting float is designed to be combined with another planting float through the connecting part, the connecting angle can be adjusted by relative pivoting according to external force to avoid the connection part from being broken due to long-term force.

[0004] However, the above-mentioned floating planting tray cannot provide a support for the planted plants. On the water surface, without a support structure, the plants will fall down due to wind, water flow impact or uneven growth, which will lead to the death of the plants.

[0005] At the same time, the water cannot be aerated during daily use, which will cause stratification of the water body and reduce the material exchange between the upper and lower water bodies. As a result, the nutrients in the lower water body cannot be effectively brought to the upper layer for absorption by plant roots, and the oxygen in the upper water body is difficult to penetrate into the lower layer, which will affect the balance of the entire water ecosystem. Summary of the invention

[0006] The purpose of the present invention is to provide an efficient floating island combining floating aeration with regular polygonal spliced ​​floating basins to solve the problems raised in the above background technology that the planted plants cannot be supported after planting and aeration cannot be added to the water during daily use.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] An efficient floating island combining floating aeration and a regular polygon spliced floating basin, comprising: a floating disk, on the upper surface of which a pentagonal disk is fixedly installed, and frame plates are fixedly installed on the lower surfaces of the five corners of the pentagonal disk. One end of each frame plate is fixedly installed with a snap button, enabling the floating disk to be snap-fitted and spliced with another set of floating disks through the snap button;

[0009] Wherein, four groups of V-shaped frames are fixedly installed inside the floating disk. A planting groove is formed between the four groups of V-shaped frames. Support mechanisms are rotatably installed inside each of the four groups of V-shaped frames. Each group of support mechanisms can be snap-fitted and spliced with each other above the planting groove, enabling the support mechanisms to support the plants planted in the planting groove;

[0010] Wherein, an aeration generating mechanism is fixedly installed between the four groups of V-shaped frames, and the air outlet end of the aeration generating mechanism penetrates and is installed at the lower surface of the floating disk.

[0011] Preferably, a rubber tire is fixedly installed between the floating disk and the frame plate, enabling the rubber tire to exert a protective force and a floating force on the floating disk.

[0012] Preferably, the outer surface of the rubber tire can be disengaged from the inner top of the frame plate, so that the rubber tire is stuck between the frame plate and the floating disk. When each group of floating disks is spliced through the snap button at one end of the frame plate, it will drive the rubber tires extending from the frame plate to touch each other, thereby achieving the purpose of buffering the impact force.

[0013] Preferably, the support mechanism includes four groups of rotating rods, which are respectively rotatably installed inside the four groups of V-shaped frames. Two support rods are fixedly installed on the outer surface of each group of rotating rods to form an L shape, and a half-ring buckle is fixedly installed at the other end of each group of support rods.

[0014] Preferably, each group of half-ring buckles can be rotatably snap-fitted on the outer surfaces of two adjacent rotating rods through the rotating rods and are located above the planting groove.

[0015] Preferably, each group of support rods is in a U shape. When the four groups of rotating rods are all snap-fitted on the outer surfaces of two adjacent rotating rods through the half-ring buckles at one end of the support rods, the U-shaped support rods can form a rectangular surrounding rod above the planting groove, thereby enabling the plants planted in the planting groove to be supported and preventing the plants from being blown down on the water surface.

[0016] Preferably, the rotating rods, support rods and half-ring buckles are integrally formed and made of plastic material.

[0017] Preferably, the aeration generating mechanism comprises a motor, the motor is fixedly installed between four groups of V-shaped frames, the output shaft of the motor penetrates the lower surface of the floating plate and rotates in the drum, the drum is fixedly installed on the lower surface of the floating plate, an impeller is rotatably installed in the drum, the impeller is fixedly connected to the output shaft penetrating into the drum, and the drum is connected to the floating plate, so that the air in the floating plate can be sucked into the drum;

[0018] The motor can be powered by a photovoltaic panel, and the photovoltaic panel is installed in a ring shape on the upper surface of the pentagonal plate.

[0019] Preferably, a water suction port is provided on the lower surface of the rotating drum, a water outlet is provided on the outer surface of the rotating drum, and the inside of the water outlet is arranged in a grid shape.

[0020] Preferably, the impeller can be driven by the motor to rotate in the drum, and a certain negative pressure environment can be formed inside the drum, so that the surrounding air and water can be sucked into the drum. The sucked air and water will be fully mixed in the drum by the stirring action of the impeller. When the water mixed with air reaches the water outlet, the mixed liquid will be dispersed into smaller droplets and bubbles due to the blocking and dividing effect of the grid of the water outlet. During the rising process, the bubbles will gradually release the oxygen contained therein into the surrounding water body, thereby achieving aeration of the water body and increasing the dissolved oxygen content in the water body.

[0021] Compared with the prior art, the present invention has the following beneficial effects:

[0022] 1. Through the design of floating plates, pentagonal plates, planting troughs, rubber tires, supporting mechanisms and aeration generating mechanisms, when in use, the staff can combine multiple groups of floating plates together through snaps according to the water area, and in the process of splicing, the rubber tires set on the outer surface of the floating plates will be driven to touch each other to play a buffering role, and then the staff can use this to plant plants in the planting troughs opened in each group of floating plates. After planting, the staff can push the supporting mechanism to buckle on the outer surface of the supporting mechanism of the two adjacent groups and be above the planting trough. The rectangular fence formed by the mutual buckling can exert a support function on the plants planted in the planting trough. The floating plate after splicing and planting can then be pushed into the water, and the aeration generating mechanism at the lower end of the floating plate will be submerged in the water, while the upper end will be connected to the floating plate, and then the aeration generating mechanism can be started to form a certain negative pressure environment inside, and the surrounding air and water will be sucked into the aeration generating mechanism for full mixing, and then the mixed liquid will be discharged from the outer surface, and due to the blocking and segmentation effect of the grid at the discharge port, the mixed liquid will be dispersed into smaller droplets and bubbles. During the rising process, the bubbles will gradually release the oxygen contained in them into the surrounding water body, thereby achieving the aeration effect on the water body and increasing the dissolved oxygen content in the water body;

[0023] Among them, multiple groups of floating plates are spliced ​​together according to the water area by snaps, which can make full use of the water space. Whether it is a small pond or a large lake, the number and layout of the floating plates can be adjusted according to the actual situation, so as to maximize the use of the water area for plant planting and improve the utilization rate of water resources;

[0024] The supporting mechanism is buckled to form a rectangular fence to support the plants in the planting trough, so that the plants are easily affected by water flow and wind in the water surface environment. This supporting structure can effectively fix the plants, reduce the possibility of plant lodging, and ensure the normal growth of the plants;

[0025] The aeration mechanism draws in air and water and mixes them by forming negative pressure, and then disperses the mixed liquid into small droplets and bubbles through the grid-like discharge port to release oxygen into the water body. This process can significantly increase the dissolved oxygen content in the water body and improve the water quality. Adequate dissolved oxygen is beneficial to the survival and reproduction of various organisms in the water, such as aquatic animals such as fish and shrimp, and microorganisms that decompose organic matter. The bubbles produced by aeration can also drive the upper and lower layers of the water body to circulate during the rising process, which helps to break the stratification of the water body, allowing the oxygen-rich water in the upper layer to exchange with the water in the lower layer, and bringing nutrients in the lower layer of water to the upper layer for absorption by plant roots. At the same time, it can also transport oxygen from the upper layer to the lower layer to maintain the balance of the entire water ecosystem.

[0026] 2. Through the design of rotating rods, supporting rods and semi-ring buckles, after the plants are planted in the planting troughs, the staff can rotate the semi-ring buckles at one end of the supporting rods on the outer surfaces of the four groups of rotating rods and install them on the outer surfaces of the two adjacent groups of rotating rods, so that the U-shaped supporting rods can form a rectangular fence above the planting trough, thereby being able to enclose the plants planted in the planting trough for support operations, thereby reducing the shaking of the plants caused by the impact of water flow, ensuring the stability of the plant roots, avoiding damage to plant growth due to the impact of water flow, and preventing plants from growing disorderly on the water surface and entangled with each other, ensuring that the plants have enough space to stretch their branches and leaves, which is conducive to photosynthesis of plants.

[0027] 3. Through the design of the motor, drum, water outlet, impeller and water suction port, after the float is pushed into the water, the float can drive the drum connected and installed on the lower surface to be submerged in the water. Then the motor can be started to drive the impeller fixedly connected at one end of the output shaft to rotate in the drum, so that the impeller can form a negative pressure space inside the drum, and the surrounding air and water can be sucked into the drum under the action of the pressure difference. The air and water sucked into the drum will be fully mixed under the stirring action of the impeller. The blade structure and rotational motion of the impeller constantly change the flow direction and speed of the air and water, so as to promote the uniform mixing of the two to form an air-water mixture. When the water mixed with the air is thrown to the water outlet When the water flows upward, the grid structure of the water outlet plays a role of blocking and dividing. This structure will disperse the mixed liquid into smaller droplets and bubbles. During the rising process, the oxygen in the bubbles will gradually be released into the surrounding water due to the pressure difference between water and air and the contact interface between the bubbles and the water body, thereby achieving aeration of the water body, ultimately increasing the dissolved oxygen content in the water body, and helping to break the stratification of the water body, so that the oxygen-rich water in the upper layer can be exchanged with the water in the lower layer, and the nutrients in the lower layer of water can be brought to the upper layer for absorption by plant roots. At the same time, the oxygen in the upper layer can also be transported to the lower layer to maintain the balance of the entire water ecosystem. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a schematic diagram of the structure in which multiple groups of floating plates of the present invention are spliced ​​together by snaps;

[0029] Figure 2 It is a schematic structural diagram of a rectangular enclosure bar formed by the interlocking support mechanisms of the present invention;

[0030] Figure 3 It is a schematic diagram of the structure of the rubber tire extending from the frame plate of the present invention;

[0031] Figure 4 It is a structural schematic diagram of the supporting mechanism of the present invention;

[0032] Figure 5 is a schematic structural diagram of a photovoltaic panel of the present invention;

[0033] Figure 6 It is a structural schematic diagram of the floating plate of the present invention;

[0034] Figure 7 It is a structural schematic diagram of the rotary drum and the water outlet of the present invention;

[0035] Figure 8 It is a schematic structural diagram of the aeration generating mechanism of the present invention.

[0036] In the figure: 1. pentagonal plate; 101. frame plate; 102. snap button; 103. floating plate; 104. V-shaped frame; 105. planting trough; 106. rubber tire; 107. photovoltaic panel; 2. supporting mechanism; 201. rotating rod; 202. supporting rod; 203. semi-ring buckle; 3. aeration generating mechanism; 301. motor; 302. rotating drum; 303. water outlet; 304. impeller; 305. water intake. DETAILED DESCRIPTION

[0037] 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.

[0038] See also Figure 1-Figure 8 , this embodiment provides the following technical solutions:

[0039] like Figure 1-Figure 3 As shown, a high-efficiency floating island combining floating aeration with regular polygonal splicing floating basins comprises: a floating plate 103, a pentagonal plate 1 is fixedly mounted on the upper surface of the floating plate 103, a frame plate 101 is fixedly mounted on the lower surface of the five corners of the pentagonal plate 1, and a snap 102 is fixedly mounted on one end of the frame plate 101, so that the floating plate 103 can be snapped and spliced ​​with another group of floating plates 103 through the snap 102;

[0040] Among them, four groups of V-shaped frames 104 are fixedly installed in the floating plate 103, and planting grooves 105 are formed between the four groups of V-shaped frames 104. Support mechanisms 2 are rotatably installed in the four groups of V-shaped frames 104. Each group of support mechanisms 2 can be mutually buckled and spliced ​​above the planting grooves 105, so that the support mechanisms 2 can support the plants planted in the planting grooves 105;

[0041] The aeration generating mechanism 3 is fixedly installed between the four groups of V-shaped frames 104 , and the air outlet end of the aeration generating mechanism 3 is installed on the lower surface of the floating plate 103 .

[0042] A rubber tire 106 is fixedly installed between the floating plate 103 and the frame plate 101 , so that the rubber tire 106 can exert a protective force and a floating force on the floating plate 103 .

[0043] The outer surface of the rubber tire 106 can be pushed out from the frame plate 101, so that the rubber tire 106 is stuck between the frame plate 101 and the floating plate 103. When each group of floating plates 103 is spliced ​​together through the snaps 102 at one end of the frame plate 101, the rubber tires 106 extending from the frame plate 101 will be driven to touch each other, thereby achieving the purpose of buffering the impact force.

[0044] Through the design of the floating plate 103, the pentagonal plate 1, the planting trough 105, the rubber tire 106, the supporting mechanism 2 and the aeration generating mechanism 3, when in use, the staff can splice and combine multiple groups of floating plates 103 together through the snaps 102 according to the water area, and in the process of splicing, the rubber tires 106 set on the outer surface of the floating plate 103 will be driven to touch each other to play a buffering role, and then the staff can use it to plant plants in the planting trough 105 opened in each group of floating plates 103. After planting, the staff can push the supporting mechanism 2 to be buckled on the outer surface of the supporting mechanism 2 of the two adjacent groups and be above the planting trough 105, and the rectangular fence formed by the mutual buckling can The planted plants are given a support function, and then the spliced ​​and planted floating plate 103 can be pushed into the water, and the aeration generating mechanism 3 at the lower end of the floating plate 103 will be submerged in the water, and the upper end will be connected to the floating plate 103, and then the aeration generating mechanism 3 can be started to form a certain negative pressure environment inside, and the surrounding air and water will be sucked into the aeration generating mechanism 3 to be fully mixed, and then the mixed liquid will be discharged from the outer surface, and due to the blocking and segmentation effect of the grid of the discharge port, the mixed liquid will be dispersed into smaller droplets and bubbles. During the rising process, the bubbles will gradually release the oxygen contained therein into the surrounding water body, thereby realizing the aeration effect on the water body and increasing the dissolved oxygen content in the water body;

[0045] The plurality of floating plates 103 are spliced ​​together according to the water area by snaps 102, so that the water area can be fully utilized. Whether it is a small pond or a large lake, the number and layout of the floating plates 103 can be adjusted according to the actual situation, so as to maximize the use of the water area for plant planting and improve the utilization rate of water resources.

[0046] The supporting mechanism 2 is buckled to form a rectangular fence to provide support for the plants in the planting trough 105, so that the plants are easily affected by water flow and wind in the water surface environment. This supporting structure can effectively fix the plants, reduce the possibility of plant lodging, and ensure the normal growth of the plants.

[0047] The aeration generating mechanism 3 sucks in air and water and mixes them by forming negative pressure, and then disperses the mixed liquid into small droplets and bubbles through the grid-shaped discharge port to release oxygen into the water body. This process can significantly increase the dissolved oxygen content in the water body and improve the water quality. Sufficient dissolved oxygen is beneficial to the survival and reproduction of various organisms in the water, such as aquatic animals such as fish and shrimp, and microorganisms that decompose organic matter. The bubbles generated by aeration can also drive the upper and lower layers of the water body to circulate during the rising process, which helps to break the stratification of the water body, so that the oxygen-rich water in the upper layer can be exchanged with the water in the lower layer, and the nutrients in the lower layer of the water body can be brought to the upper layer for absorption by plant roots. At the same time, the oxygen in the upper layer can also be transported to the lower layer to maintain the balance of the entire water ecosystem.

[0048] As shown Figure 4-Figure 5 in the figure, the supporting mechanism 2 includes four groups of rotating rods 201, the four groups of rotating rods 201 are respectively rotatably installed in the four groups of V-shaped frames 104, two groups of supporting rods 202 are fixedly installed on the outer surface of each group of rotating rods 201 to form an L shape, and the other ends of each group of supporting rods 202 are fixedly installed with semi-circular buckles 203.

[0049] Each semi-circular buckle 203 can be rotatably buckled on the outer surfaces of two adjacent groups of rotating rods 201 through the rotating rod 201 and is located above the planting groove 105.

[0050] Each group of supporting rods 202 is in a U shape. When the four groups of rotating rods 201 are buckled on the outer surfaces of two adjacent groups of rotating rods 201 through the semi-circular buckles 203 at one end of the supporting rods 202, the U-shaped supporting rods 202 can form a rectangular surrounding rod above the planting groove 105, so as to support the plants planted in the planting groove 105 to prevent the plants from being blown down by the wind on the water surface.

[0051] The rotating rod 201, the supporting rod 202 and the semi-circular buckle 203 are integrally formed and made of plastic material.

[0052] Through the design of the rotating rod 201, the supporting rod 202 and the semi-circular buckle 203, after the plants are planted in the planting groove 105, when the staff rotates the semi-circular buckle 203 at one end of the supporting rod 202 on the outer surface of the four groups of rotating rods 201 and buckles it on the outer surfaces of two adjacent groups of rotating rods 201, the U-shaped supporting rod 202 can form a rectangular surrounding rod above the planting groove 105, so as to support the plants planted in the planting groove 105 inside for support operation, thereby reducing the shaking of the plants caused by the water flow impact, ensuring the stability of the plant roots, avoiding damage to the plant growth caused by the water flow impact, and preventing the plants from growing disorderly on the water surface and winding around each other, ensuring that the plants have enough space to stretch their branches and leaves, which is beneficial to the photosynthesis of the plants.

[0053] As shown Figure 6-Figure 8 in the figure, the aeration generating mechanism 3 includes a motor 301, the motor 301 is fixedly installed between the four groups of V-shaped frames 104, the output shaft of the motor 301 penetrates to the lower surface of the floating disk 103 and rotates in a rotating cylinder 302, the rotating cylinder 302 is fixedly installed on the lower surface of the floating disk 103, an impeller 304 is rotatably installed in the rotating cylinder 302, the impeller 304 is fixedly connected to the output shaft penetrating into the rotating cylinder 302, and the rotating cylinder 302 is communicated with the floating disk 103, so that the air in the floating disk 103 can be inhaled into the rotating cylinder 302;

[0054] Among them, the motor 301 can be powered by the photovoltaic panel 107, and the photovoltaic panel 107 is paved in a ring shape on the upper surface of the pentagonal disk 1.

[0055] A water suction port 305 is provided on the lower surface of the rotating drum 302 , and a water outlet 303 is provided on the outer surface of the rotating drum 302 . The inside of the water outlet 303 is arranged in a grid shape.

[0056] The impeller 304 can be driven by the motor 301 to rotate in the drum 302, and a certain negative pressure environment can be formed inside the drum 302, so that the surrounding air and water can be sucked into the drum 302. The sucked air and water will be fully mixed by the stirring action of the impeller 304 in the drum 302. When the water mixed with air reaches the water outlet 303, the mixed liquid will be dispersed into smaller droplets and bubbles due to the blocking and dividing effect of the grid of the water outlet 303. During the rising process, the bubbles will gradually release the oxygen contained therein into the surrounding water body, thereby realizing the aeration effect on the water body and increasing the dissolved oxygen content in the water body.

[0057] Through the design of the motor 301, the drum 302, the water outlet 303, the impeller 304 and the water suction port 305, after the floating plate 103 is pushed into the water, the floating plate 103 can drive the drum 302 connected and installed on the lower surface to be submerged in the water, and then the motor 301 can be started to drive the impeller 304 fixedly connected at one end of the output shaft to rotate in the drum 302, so that the impeller 304 can form a negative pressure space inside the drum 302, and the surrounding air and water can be sucked into the drum 302 under the action of the pressure difference. The air and water sucked into the drum 302 will be fully mixed under the stirring action of the impeller 304, and the blade structure and rotational motion of the impeller 304 constantly change the flow direction and speed of the air and water, so as to promote the uniform mixing of the two and form a negative pressure space. When the water mixed with air is thrown to the water outlet 303, the grid structure of the water outlet 303 plays a role of blocking and dividing. This structure will disperse the mixed liquid into smaller droplets and bubbles. During the rising process, the oxygen in the bubbles will gradually be released into the surrounding water due to the pressure difference between water and air and the contact interface between the bubbles and the water body, thereby achieving aeration of the water body, and ultimately increasing the dissolved oxygen content in the water body. It also helps to break the stratification of the water body, allowing the oxygen-rich water in the upper layer to exchange with the water in the lower layer, bringing nutrients in the lower layer of water to the upper layer for absorption by plant roots, and also transporting oxygen from the upper layer to the lower layer to maintain the balance of the entire water ecosystem.

[0058] Specifically, in this embodiment, the buoyancy of the floating plate is calculated using the following equation:

[0059] Buoyancy = ρ water ×g×V displaced .

[0060] Example: Assume the density of water is ρ water =1000kg / m 3, the acceleration due to gravity is g == 9.8 m / s 2 , the volume of water displaced by the floating disk is V displaced = 0.1 m 3 , then the buoyant force is:

[0061] Buoyant force = 1000 kg / m 3 × 9.8 m / s 2 × 0.1 m 3 = 980 N.

[0062] Technical effect: Sufficient buoyant force can ensure that the floating disk floats stably on the water surface, providing a stable plant growth environment.

[0063] Summarize and sort out the working steps of this solution according to the above technical solution: When in use, the staff can splice multiple groups of floating disks 103 together through snap buttons 102 according to the water area, and during the splicing process, the rubber tires 106 sleeved on the outer surface of the floating disks 103 will be pushed against each other to play a buffering role. Subsequently, the staff can plant plants in the planting grooves 105 opened in each group of floating disks 103. After planting, when the staff rotates the semi-circular buckles 203 at one end of the support rods 202 on the outer surface of the four rotating rods 201 and buckles them on the outer surface of the adjacent two rotating rods 201, the U-shaped support rods 202 can form a rectangular surrounding rod above the planting grooves 105, thereby being able to enclose and support the plants planted in the planting grooves 105, further reducing the swaying of the plants caused by water flow impact and ensuring the stability of the plant roots. Subsequently, the floating disks 103 after splicing and planting can be pushed into the water, enabling the floating disks 103 to drive the rotating cylinders 302 connected to the lower surface to sink into the water. Then, the motor 301 can be started to drive the impeller 304 fixedly connected to one end of the output shaft to rotate in the rotating cylinder 302. As a result, a negative pressure space can be formed inside the rotating cylinder 302 by the impeller 304, and the surrounding air and water can be sucked into the rotating cylinder 302 under the action of the pressure difference. The air and water sucked into the rotating cylinder 302 will be充分混合 under the stirring action of the impeller 304. The blade structure and rotational movement of the impeller 304 continuously change the flow direction and speed of the air and water, promoting their uniform mixing to form an air-water mixture. When the water mixed with air is thrown to the water outlet 303, the grid structure of the water outlet 303 plays a role of blocking and dividing. This structure will disperse the mixture into smaller liquid droplets and bubbles. During the upward movement of the small liquid droplets and bubbles, due to the pressure difference between water and air and the contact interface between the bubbles and the water body, the oxygen in the bubbles will gradually be released into the surrounding water body, thereby realizing the aeration effect on the water body.

[0064] In summary: when in use, the staff can splice multiple groups of floating plates 103 according to the area of ​​the water area, and after planting plants, they can also use the support rods 202 to form a fence to support the plants and reduce the impact of water flow. At the same time, the aeration generating mechanism 3 under the floating plate 103 can aerate the water body, increase the dissolved oxygen content in the water body, improve water quality, and promote plant root respiration and the balance of the water ecosystem.

[0065] Parts not involved in the present invention are the same as the prior art or can be implemented by the prior art. Although the embodiments of the present invention have been shown and described, it is understood by those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An efficient floating island combining floating aeration with regular polygonal splicing floating basins, characterized in that: Including: A floating disk (103), on the upper surface of which a pentagonal disk (1) is fixedly installed. On the lower surface of each of the five corners of the pentagonal disk (1), a frame plate (101) is fixedly installed. At one end of the frame plate (101), a snap button (102) is fixedly installed. The floating disk (103) can be buckled and spliced with another set of floating disks (103) through the snap button (102), where: Four V-shaped frames (104) are fixedly installed inside the floating disk (103). A planting groove (105) is formed between the four V-shaped frames (104). A supporting mechanism (2) is rotatably installed in each of the four V-shaped frames (104). Each group of the supporting mechanisms (2) can be buckled and spliced with each other above the planting groove (105), so that the supporting mechanism (2) can support the plants planted in the planting groove (105); An aeration generating mechanism (3) is fixedly installed between the four V-shaped frames (104). The air outlet end of the aeration generating mechanism (3) penetrates and is installed at the lower surface of the floating disk (103).

2. According to claim 1, a high-efficiency floating island combining floating aeration and regular polygonal splicing floating basins is characterized by: A rubber tire (106) is fixedly installed between the floating disk (103) and the frame plate (101), so that the rubber tire (106) can exert a protective force and a floating force on the floating disk (103).

3. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 2 is characterized by: The outer surface of the rubber tire (106) can be pushed out from inside the frame plate (101), so that the rubber tire (106) is stuck between the frame plate (101) and the floating disk (103). When each group of floating disks (103) is spliced through the snap button (102) at one end of the frame plate (101), it will drive the rubber tires (106) extending out from inside the frame plate (101) to touch each other, so as to achieve the purpose of buffering the impact force.

4. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 1 is characterized by: The supporting mechanism (2) includes four rotating rods (201). The four rotating rods (201) are respectively rotatably installed in the four V-shaped frames (104). On the outer surface of each rotating rod (201), two supporting rods (202) are fixedly installed to form an L shape, and at the other end of each supporting rod (202), a half-ring buckle (203) is fixedly installed.

5. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 4 is characterized by: Each group of the half-ring buckles (203) can be rotatably buckled on the outer surfaces of the adjacent two rotating rods (201) through the rotating rod (201) and is located above the planting groove (105).

6. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 4 is characterized by: Each group of the supporting rods (202) is in a U shape. When the four rotating rods (201) are buckled on the outer surfaces of the adjacent two rotating rods (201) through the half-ring buckles (203) at one end of the supporting rods (202), the U-shaped supporting rods (202) can form a rectangular surrounding rod above the planting groove (105), and thus can perform a supporting operation on the plants planted in the planting groove (105) to prevent the plants from being blown down on the water surface.

7. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 6 is characterized by: The rotating rod (201), the supporting rod (202) and the half-ring buckle (203) are integrally formed and are made of plastic material.

8. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 1 is characterized by: The aeration generating mechanism (3) comprises a motor (301), the motor (301) is fixedly mounted between four groups of V-shaped frames (104), the output shaft of the motor (301) penetrates the lower surface of the floating plate (103) and rotates in a rotating drum (302), the rotating drum (302) is fixedly mounted on the lower surface of the floating plate (103), an impeller (304) is rotatably mounted in the rotating drum (302), the impeller (304) is fixedly connected to the output shaft penetrating the rotating drum (302), and the rotating drum (302) is connected to the floating plate (103), so that the air in the floating plate (103) can be sucked into the rotating drum (302); The motor (301) can be powered by a photovoltaic panel (107), and the photovoltaic panel (107) is installed in a ring shape on the upper surface of the pentagonal plate (1).

9. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 8, characterized in that: The lower surface of the rotating drum (302) is provided with a water suction port (305), the outer surface of the rotating drum (302) is provided with a water outlet (303), and the inside of the water outlet (303) is arranged in a grid shape.

10. The high-efficiency floating island combining floating aeration and regular polygonal splicing floating basin according to claim 8, characterized in that: The impeller (304) can be driven by the motor (301) to rotate in the drum (302), and a negative pressure environment can be formed inside the drum (302), thereby being able to suck surrounding air and water into the drum (302). The sucked air and water will be fully mixed in the drum (302) by the stirring action of the impeller (304). When the water mixed with air reaches the water outlet (303), the mixed liquid will be dispersed into droplets and bubbles due to the blocking and dividing action of the grid of the water outlet (303). During the rising process, the bubbles will gradually release the oxygen contained therein into the surrounding water body, thereby achieving aeration of the water body and increasing the dissolved oxygen content in the water body.

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