An ecological floating island for ecological restoration
Through the motor system and wrinkled canvas design driven by solar panels, the drift resistance problem caused by the accumulation of aquatic and debris during the floating process of existing ecological floating islands is solved, and rapid cleaning and stability improvement is achieved, which improves the use of floating islands. Efficiency and stability.
Patent Information
- Application Number
- CN202310283328.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-03-22
- Publication Date
- 2025-01-10
- Estimated Expiration
- 2043-03-22
AI Technical Summary
When the existing ecological floating islands are floating for a long time, the accumulation of aquatic weeds and debris between the floating bodies leads to drift resistance, which requires manual cleaning of the docking, which is troublesome and takes up floating time, affecting the efficiency of use.
An ecological restoration of ecological floating island was designed, and a motor system powered by solar panels can lift and lower planting racks and planting pots on the water surface, remotely control the cleaning of aquatic weeds and debris, reduce the center of gravity of the floating island, improve stability, and pass through folds. Canvas provides wind protection.
It can quickly clean aquatic weeds and debris without shore, improve the efficiency and stability of floating islands, reduce labor demand for cleaning operations, avoid drift resistance, and extend the service life of the equipment.
Smart Images

Figure CN117865356B_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of ecological floating islands, and in particular to an ecological floating island for ecological restoration. Background Art
[0002] More than 90% of the water pollution and ecological destruction in China's land and water space is caused by eutrophication due to excessive N and P content in the water body. N and P are the most basic essential nutrients for plant growth. Ecological floating island technology uses floating materials as a matrix or carrier to plant higher aquatic plants or terrestrial plants in eutrophic waters. Through the absorption or adsorption of plant roots, nitrogen, phosphorus and organic pollutants in the water body are reduced, thereby purifying the water quality through biological control methods. At the same time, by harvesting plants, the rich nutrients in the water body are removed from the water body, improving water quality and creating a good water environment.
[0003] When the existing ecological floating islands are used for a long time, the parts of the multiple rows of planting containers between the floats that are in contact with the water surface will collect and accumulate a large amount of aquatic plants and debris and cause drift resistance to the floating islands. The floating islands need to be brought to shore to manually remove the aquatic plants and debris attached to them. The operation is troublesome and laborious, and the cleaning operation will also occupy the normal floating time of the floating islands, which is not conducive to improving the utilization efficiency of the floating islands. Summary of the invention
[0004] In view of this, the present invention provides an ecological floating island for ecological restoration to solve the problem that the floating island needs to be brought ashore to manually remove aquatic plants and debris attached to it, which is troublesome and laborious to operate, and the cleaning operation will also occupy the normal floating time of the floating island, which is not conducive to improving the utilization efficiency of the floating island.
[0005] The present invention provides an ecological floating island for ecological restoration, which specifically includes: a base plate, wherein the base plate is symmetrically arranged at two locations, two floating bodies are fixed to the bottom of the two base plates by screw locking, and two cross-bracing connecting rods are welded symmetrically between the front and rear end sections of the two base plates; two first motors are symmetrically fixedly installed between the middle sections of the two cross-bracing connecting rods, and a vertical lead screw is axially installed on each of the two first motors; two second motors are symmetrically arranged at the top of the front end sections of the two base plates, and two rearward supporting longitudinal lead screws are axially installed on each of the two second motors; four vertical support positioning shafts are symmetrically welded to the front and rear ends of the two base plates, and a solar cell panel is slidably installed on the upper half of the four vertical support positioning shafts, and the four A horizontally arranged static installation frame is welded and supported on the lower half of the vertical support positioning axis; a sliding square frame is slidably installed on the lower half of the two vertical support positioning axes at the bottom position of the static installation frame, and a rectangular pleated canvas is hung between the sliding square frame and the static installation frame; a planting rack is slidably installed on the bottom section of the four vertical support positioning axes, and the planting rack as a whole is composed of two symmetrical longitudinal bottom plates and a row of support frames with a U-shaped structure welded at the top of the two longitudinal bottom plates at equal intervals, wherein six rows of planting pots are inserted and installed in the spacing grooves between a row of support frames, and the six rows of planting pots are staggered left and right in the spacing grooves between a row of support frames; an electrical box is supported and installed on the right half of the rear side horizontal support connecting rod.
[0006] Furthermore, four slip rings are symmetrically welded on the front and rear side rods of the sliding frame, four hanging ears are symmetrically welded on the four slip rings, and four hanging ears are symmetrically welded on the top sections of the four vertical support positioning shafts, and four tension springs are symmetrically connected between the eight upper and lower hanging ears.
[0007] Furthermore, four Z-shaped top rods are symmetrically welded downwards at the middle positions of the front and rear ends of the solar panel, and the bottom horizontal sections of the four Z-shaped top rods are correspondingly screwed through the two vertical lead screws.
[0008] Furthermore, two connecting rods are symmetrically rotatably connected to the middle sections of the two longitudinal base plates, and two shaft sleeves are rotatably connected to the tail end sections of the two connecting rods, and the two shaft sleeves are correspondingly threadedly matched with the two longitudinal lead screws.
[0009] Furthermore, two stress-bearing ear blocks are symmetrically welded on the middle sections of the front and rear side rods of the sliding frame, and the solar panel and the two Z-shaped top rods slide downward and come into contact with the two stress-bearing ear blocks.
[0010] Furthermore, a row of positioning holes is provided at the top of a row of support frames, and two rod sleeves are welded symmetrically at the top of a row of support frames close to the electrical box side, wherein the inside of the right rod sleeve is provided with an internal thread, and a threaded positioning shaft is screwed through the two rod sleeves.
[0011] Furthermore, the interior of the planting pot is used to plant water-loving plants with well-developed root systems. The roots extend through the perforations on the bottom plate of the planting pot and are placed in the water. The planting pot as a whole has a conical structure, and two L-shaped support rods are symmetrically welded on the circumferential outer wall of the top part of the planting pot. A short plug rod is welded downward at the bottom of the head end of the two L-shaped support rods.
[0012] Furthermore, the short plug rod is plugged into and matched with the top portion of the support frame, and the threaded positioning shaft is penetrated and matched with the L-shaped support rod close to the side of the electrical box.
[0013] Furthermore, a solar controller, an inverter, a battery and a G remote control module are installed inside the electrical box, and the solar panel is electrically connected to the battery through the solar controller and the inverter, and the battery is electrically connected to the first motor and the second motor.
[0014] Photovoltaic power generation is based on the principle of the photovoltaic effect, using solar panels to directly convert sunlight energy into electrical energy. Whether it is used independently or connected to the grid, the solar photovoltaic power generation group includes: solar panels, solar controllers, batteries and inverters. The solar panels absorb light energy and convert it into electrical energy and store it in the battery. The solar controller and inverter output the electrical energy to assist in energy supply.
[0015] Beneficial Effects
[0016] 1. In the present invention, during normal use, the solar panel slides upward and the planting rack is raised and separated, leaving most of the space on the top of the planting rack for sunlight to irradiate the plants in the planting pots. When it is windy, the two motors can be remotely controlled to reverse and drive the vertical screw to push the solar panel to slide downward and lower the height to the planting rack. The lowering of the solar panel can lower the center of gravity of the entire floating island, avoid facing the wind at a high altitude, and improve the stability of the floating island on the water surface and its wind resistance and anti-tilting ability.
[0017] 2. The present invention can raise the planting rack out of the water surface when docking, so that the roots of green plants extending in the water can be exposed all at once without the need to dismantle all the planting pots one by one. This facilitates the one-time centralized and rapid cleaning of the aquatic plants and other debris stuck to the roots, avoiding the drift resistance of the floating island caused by the debris entangled in the roots, which affects the floating purification use of the floating island on the water surface over a large area. In addition, when the floating island is used for a long time, the part of the six rows of planting pots between the two buoys that contacts the water surface will collect and accumulate a large amount of aquatic plants and debris and cause drift resistance to the floating island. The planting rack and the six rows of planting pots can be raised by remotely starting the two second motors, so that the aquatic plants and debris attached to the planting pots can fall off by themselves by gravity, which saves the trouble of manually cleaning the aquatic plants and debris attached to the floating island only when it is docked. It is labor-saving and convenient to use, and the cleaning operation of the aquatic plants and debris attached to the floating island does not occupy its normal use time.
[0018] 3. In the present invention, during normal use, the tension springs at four sides pull the sliding frame to drive it upward so that the pleated canvas is in a contracted state, and the space around the planting frame is opened to facilitate light transmission to the plants in the planting pots. In windy weather, the pleated canvas can be pulled down and unfolded to form a rectangular windbreak fence. This rectangular windbreak fence is placed on the planting frame to cover and protect the green plants used to restore the water ecology, so as to prevent the green plants from being broken and killed by strong winds, affecting the normal performance of the floating island and requiring the trouble of replacing the green plants later.
[0019] 4. The present invention, through the power transmission of two Z-shaped top rods and two load-bearing ear blocks, the wind shield mechanism of the present invention can be driven to unfold by the descending driving force of the solar panel on a windy day, which eliminates the need to additionally configure a driving motor for the wind shield mechanism to retract and unfold, which helps to reduce the overall cost and cost of the equipment and improve the cost performance. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] In order to more clearly illustrate the technical solution of the embodiment of the present invention, the drawings of the embodiment are briefly introduced below.
[0021] The drawings described below are only related to some embodiments of the present invention, but are not intended to limit the present invention.
[0022] In the attached picture:
[0023] Figure 1 It is a schematic diagram of the rear structure of the ecological restoration ecological floating island of the present invention.
[0024] Figure 2 It is a schematic diagram of the front structure of the ecological restoration ecological floating island of the present invention.
[0025] Figure 3 It is a schematic diagram of the bottom structure of the ecological restoration ecological floating island of the present invention.
[0026] Figure 4 It is a schematic diagram of the installation position of the pleated canvas of the ecological restoration ecological floating island of the present invention.
[0027] Figure 5 It is a schematic diagram of the installation position of the planting frame of the ecological restoration ecological floating island of the present invention.
[0028] Figure 6 It is a schematic diagram of the sliding frame structure of the ecological restoration ecological floating island of the present invention.
[0029] Figure 7 It is a schematic diagram of the planting frame structure of the ecological floating island for ecological restoration of the present invention.
[0030] Figure 8 It is a schematic diagram of the planting pot structure of the ecological floating island for ecological restoration of the present invention.
[0031] Fig. 9 The ecological restoration of the ecological floating island of the present invention Figure 1 A schematic diagram of the enlarged structure of part A.
[0032] Reference numerals list
[0033] 1. Base plate; 101. Floating body; 102. Horizontal support connecting rod; 103. Vertical support positioning shaft; 104. Stationary installation frame; 105. Sliding box; 106. Load-bearing ear block; 2. First motor; 3. Second motor; 4. Solar panel; 401. Z-shaped top rod; 5. Pleated canvas; 6. Planting rack; 601. Threaded positioning shaft; 602. Support frame; 603. Connecting rod; 7. Planting pot; 701. L-shaped support rod. DETAILED DESCRIPTION
[0034] In order to make the purpose, scheme and advantages of the technical solution of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described below in conjunction with the drawings of specific embodiments of the present invention.
[0035] Example: Please refer to Figures 1 to 9 As shown:
[0036] The present invention provides an ecological floating island for ecological restoration, comprising a base plate 1, wherein the base plate 1 is symmetrically arranged at two locations, two floating bodies 101 are fixed to the bottom of the two base plates 1 by screw locking, and two horizontal bracing connecting rods 102 are welded symmetrically between the front and rear end sections of the two base plates 1; two first motors 2 are symmetrically fixedly installed between the middle sections of the two horizontal bracing connecting rods 102, and a vertical lead screw is axially installed on each of the two first motors 2; two second motors 3 are symmetrically arranged at the top of the front end sections of the two base plates 1, and two longitudinal lead screws supporting backwards are axially installed on each of the two second motors 3; four vertical support positioning shafts 103 are symmetrically welded at the front and rear ends of the two base plates 1, and the four vertical support positioning shafts 103 are symmetrically welded. A solar cell panel 4 is slidably mounted on the upper half of the positioning shaft 103, and a horizontally arranged static installation frame 104 is welded and supported on the lower half of the four vertical support positioning shafts 103; a sliding square frame 105 is slidably mounted on the lower half of the two vertical support positioning shafts 103 at the bottom of the static installation frame 104, and a rectangular pleated canvas 5 is hung between the sliding square frame 105 and the static installation frame 104; a planting rack 6 is slidably mounted on the bottom section of the four vertical support positioning shafts 103, and the planting rack 6 is composed of two symmetrical longitudinal bottom plates and a row of support frames 602 of a U-shaped structure welded to the top of the two longitudinal bottom plates at equal intervals, wherein one row of support frames 6 02, six rows of planting pots 7 are inserted and installed in the spacing grooves between a row of support frames 602, and the six rows of planting pots 7 are arranged alternately on the left and right in the spacing grooves between a row of support frames 602; an electrical box is supported and installed on the right half of the rear cross-bracing connecting rod 102; a row of positioning holes are provided at the top of a row of support frames 602, and two rod sleeves are welded symmetrically at the top position of a row of support frames 602 near the electrical box side, wherein the inside of the right rod sleeve is provided with an internal thread, and a threaded positioning shaft 601 is screwed through the two rod sleeves; the interior of the planting pot 7 is used to plant water-loving plants with well-developed root systems, and the roots extend through the perforations on the bottom plate of the planting pot 7 and are placed in the water, and the planting pot 7 is a conical structure as a whole, and the planting pot Two L-shaped support rods 701 are symmetrically welded on the circumferential outer wall of the top part of 7, and a short plug rod is welded downward at the bottom of the head end of the two L-shaped support rods 701; four slip rings are symmetrically welded on the front and rear side rods of the sliding frame 105, and four hanging ears are symmetrically welded on the four slip rings, and four hanging ears are symmetrically welded on the top sections of the four vertical support positioning shafts 103, and four tension springs are symmetrically connected between the eight hanging ears at the top and bottom; four Z-shaped top rods 401 are symmetrically welded downward at the middle positions of the front and rear ends of the solar cell panel 4, and the bottom horizontal sections of the four Z-shaped top rods 401 correspond to the two vertical lead screws that penetrate and screw together. When in normal use, the solar cell panel 4 slides upward and rises away from the planting frame 6 (refer to Figure 1), leaving most of the space on the top of the planting rack 6 empty for sunlight to irradiate the plants in the planting pots 7. When it is windy, the two motors 2 can be remotely controlled to reverse and drive the vertical screw to push the solar panel 4 to slide downward and lower its height to the planting rack 6. The lowering of the solar panel 4 can lower the center of gravity of the entire floating island, avoid facing the wind at a high altitude, and improve the stability of the floating island on the water surface and its wind resistance and anti-tilting ability.
[0037] Among them, two connecting rods 603 are symmetrically rotatably connected on the middle sections of the two longitudinal bottom plates, and two shaft sleeves are rotatably connected on the tail end sections of the two connecting rods 603, and the two shaft sleeves are correspondingly screwed through the two longitudinal screws. The two connecting rods 603, the two shaft sleeves and the planting rack 6 are connected together to form two crank slider mechanisms. Through these two mechanisms, the two shaft sleeves can slide back and forth to push and drive the planting rack 6 and the six rows of planting pots 7 to slide upward and separate from the water surface, and the two second motors 3 can drive the two shaft sleeves to slide back and forth through the two longitudinal screws, providing a driving force for the planting rack 6 to rise and fall, and when docking, the planting rack 6 can be lifted off the water surface, so that the roots of green plants extending in the water can be exposed all at once without having to disassemble and remove all the planting pots 7 one by one. This makes it convenient to carry out a one-time centralized and rapid cleaning of the aquatic plants and other debris stuck to the roots, avoiding the drift resistance of the floating island caused by the debris entangled on the roots, affecting the floating purification use of the floating island on a large area on the water surface. In addition, when the floating island is used for a long time, the part of the six rows of planting pots 7 between the two floating bodies 101 that contacts the water surface will collect and accumulate a large amount of aquatic plants and debris, causing drift resistance to the floating island. The planting racks 6 and the six rows of planting pots 7 can be raised by remotely starting the two second motors 3, so that the aquatic plants and debris attached to the planting pots 7 can fall off by themselves by gravity, which saves the trouble of manually cleaning the aquatic plants and debris attached to the floating island by bringing it ashore. It is labor-saving and convenient to use, and the cleaning operation of the aquatic plants and debris attached to the floating island does not occupy its normal use time.
[0038] Among them, two force-bearing ear blocks 106 are symmetrically welded on the middle section of the front and rear side rods of the sliding frame 105. The solar panel 4 and the two Z-shaped top rods 401 slide downward and abut against the two force-bearing ear blocks 106. During normal use, the four tension springs pull the sliding frame 105 to slide upward so that the pleated canvas 5 is in a contracted state (refer to Figure 1), the space around the planting rack 6 is opened to facilitate light transmission to the plants in the planting pots 7, and in windy weather, the solar panel 4 can slide down and lower its height, and the two force-bearing ear blocks 106 and the sliding frame 105 can be pushed downward by two Z-shaped top rods 401, so that the pleated canvas 5 can be unfolded to form a rectangular windbreak fence. This rectangular windbreak fence is placed on the planting rack 6 to cover and protect the green plants on it for restoring the water ecology, so as to prevent the green plants from being broken and killed by strong winds, affecting the normal performance of the floating island, and requiring the trouble of replacing the green plants later. In addition, through the power transmission between the two Z-shaped top rods 401 and the two force-bearing ear blocks 106, the windbreak mechanism of the present invention can be driven to unfold by the descending driving force of the solar panel 4 on windy days, which saves the need to additionally configure a driving motor for telescopic expansion and contraction for the windbreak mechanism, which helps to reduce the overall cost and cost of the equipment and improve the cost performance.
[0039] Among them, the short plug rod is plugged into and matched with the top part of the support frame 602, and the threaded positioning shaft 601 is penetrated and matched with the L-shaped support rod 701 close to the side of the electrical box. The threaded positioning shaft 601 can be plugged into and positioned with the L-shaped support rod 701 to keep the planting pot 7 fixed on the planting frame 6.
[0040] Among them, a solar controller, an inverter, a battery and a 4G remote control module are installed inside the electrical box, and the solar panel 4 is electrically connected to the battery through the solar controller and the inverter, and the battery is electrically connected to the first motor 2 and the second motor 3. The 4G remote control module can remotely control the start-up and forward and reverse rotation switching of the four motors. Lifting limiters are installed on the solar panel 4 and the planting rack 6. Through the lifting limiters, the two or four motors can automatically cut off the power and stop after the work is completed.
[0041] Specific usage and function of this embodiment: In the present invention, the interior of the planting pot 7 is used to plant water-loving plants with well-developed root systems. The roots extend through the perforations on the bottom plate of the planting pot 7 and are placed in the water. Through the absorption or adsorption of the plant roots, nitrogen, phosphorus and organic pollutants in the water are reduced, thereby purifying the water quality and restoring the water ecology.
[0042] During normal use, the solar panel 4 slides upward and the planting frame 6 rises away (refer to Figure 1 ), leaving most of the space at the top of the planting rack 6 empty for sunlight to irradiate the plants in the planting pots 7. When it is windy, the two motors 2 can be remotely controlled to reverse and drive the vertical screw to push the solar panel 4 to slide down and lower the height to the planting rack 6. The lowering of the height of the solar panel 4 can lower the center of gravity of the entire floating island, avoid facing the wind at a high altitude, and improve the stability of the floating island on the water surface and its wind resistance and anti-tilting ability;
[0043] The two connecting rods 603, the two shaft sleeves and the planting rack 6 are connected together to form two crank slider mechanisms. Through the two mechanisms, the two shaft sleeves can slide forward and backward to push the planting rack 6 and the six rows of planting pots 7 to slide upward and separate from the water surface, and the two second motors 3 can rotate forward and reverse through the two longitudinal screws to drive the two shaft sleeves to slide forward and backward, providing a driving force for the planting rack 6 to rise and fall, and when docking, the planting rack 6 can be lifted up and out of the water, so that the roots of the green plants extending in the water do not need to be disassembled and removed one by one. If there are planting pots 7, they can all be exposed at once, which is convenient for one-time centralized and rapid cleaning of waterweeds and other debris that are sticky and entangled on the roots. When the floating island is used for a long time, the part of the six rows of planting pots 7 between the two floating bodies 101 that contacts the water surface will collect and accumulate a large amount of waterweed debris, causing drift resistance to the floating island. The planting rack 6 and the six rows of planting pots 7 can be raised by remotely starting the two second motors 3, so that the waterweed debris attached to the planting pots 7 can fall off by themselves by gravity.
[0044] During normal use, the four tension springs pull the sliding frame 105 to drive it upward so that the pleated canvas 5 is in a contracted state (refer to Figure 1 ), the space around the planting rack 6 is opened to facilitate light transmission to the plants in the planting pots 7, and in windy weather, the solar panel 4 can slide down to reduce its height and push the two force-bearing ear blocks 106 and the sliding frame 105 downward through two Z-shaped top rods 401, so that the pleated canvas 5 can be unfolded to form a rectangular windbreak fence. This rectangular windbreak fence is placed on the planting rack 6 to cover and protect the green plants on it for restoring the water ecology, so as to prevent the green plants from being broken and killed by strong winds.
Claims
1. An ecological restoration floating island, characterized in that: include: A base plate (1), wherein the base plate (1) is symmetrically arranged at two locations, two floating bodies (101) are fixed to the bottom of the two base plates (1) by screw locking, and two cross-bracing connecting rods (102) are welded symmetrically between the front and rear end sections of the two base plates (1); two first motors (2) are symmetrically fixedly installed between the middle sections of the two cross-bracing connecting rods (102), and a vertical lead screw is axially installed on each of the two first motors (2); two second motors (3) are symmetrically arranged at the top of the front end sections of the two base plates (1), and two longitudinal lead screws supporting backwards are axially installed on each of the two second motors (3); four vertical support positioning shafts (103) are symmetrically welded at the front and rear ends of the two base plates (1), a solar cell panel (4) is slidably installed on the upper half of the four vertical support positioning shafts (103), and the lower half of the four vertical support positioning shafts (103) are welded to support There is a horizontally arranged static installation frame (104); a sliding square frame (105) is slidably installed on the lower half of the two vertical support positioning shafts (103) at the bottom position of the static installation frame (104), and a rectangular pleated canvas (5) is hung between the sliding square frame (105) and the static installation frame (104); a planting frame (6) is slidably installed on the bottom section of the four vertical support positioning shafts (103), and the planting frame (6) is composed of two symmetrical longitudinal bottom plates and a row of supporting frames (602) with equidistant intervals welded to the top of the two longitudinal bottom plates, wherein six rows of planting pots (7) are inserted and installed in the spacing grooves between the rows of supporting frames (602), and the six rows of planting pots (7) are arranged in a left-right staggered manner in the spacing grooves between the rows of supporting frames (602); an electrical box is supported and installed on the right half of the rear side of the horizontal support connecting rod (102); Four sliding rings are welded symmetrically on the front and rear side rods of the sliding frame (105), four hanging ears are welded symmetrically on the four sliding rings, and four hanging ears are welded symmetrically on the top sections of the four vertical support positioning shafts (103), and four tension springs are symmetrically connected between the eight hanging ears. Four Z-shaped top rods (401) are symmetrically welded downwards at the middle positions of the front and rear ends of the solar cell panel (4), and the bottom horizontal sections of the four Z-shaped top rods (401) are correspondingly screwed with two vertical lead screws passing through; Two force-bearing ear blocks (106) are symmetrically welded on the middle sections of the front and rear side rods of the sliding frame (105), and the solar panel (4) and the two Z-shaped top rods (401) slide downward to abut against the two force-bearing ear blocks (106).
2. An ecological restoration ecological floating island as claimed in claim 1, characterized in that: Two connecting rods (603) are symmetrically rotatably connected on the middle sections of the two longitudinal bottom plates, and two shaft sleeves are rotatably connected on the tail ends of the two connecting rods (603), and the two shaft sleeves are correspondingly screwed through the two longitudinal lead screws.
3. The ecological restoration floating island according to claim 1, characterized in that: A row of positioning holes is provided at the top of each row of the support frames (602), and two rod sleeves are welded symmetrically at the top of each row of the support frames (602) near the electrical box, wherein an internal thread is provided inside the right rod sleeve, and a threaded positioning shaft (601) is screwed through the two rod sleeves.
4. The ecological restoration floating island according to claim 1, characterized in that: The interior of the planting pot (7) is used for planting water-loving plants with well-developed root systems, the roots of which extend through the perforations on the bottom plate of the planting pot (7) and are placed in the water, and the planting pot (7) as a whole is a conical structure, and two L-shaped support rods (701) are symmetrically welded on the circumferential outer wall of the top part of the planting pot (7), and a short plug rod is welded downward at the bottom of the head end of the two L-shaped support rods (701).
5. The ecological restoration ecological floating island as claimed in claim 4, characterized in that: The short plug rod is plugged into the top portion of the support frame (602), and the threaded positioning shaft (601) is penetrated and matched with the L-shaped support rod (701) close to the side of the electrical box.
6. The ecological restoration floating island according to claim 1, characterized in that: A solar controller, an inverter, a battery and a 4G remote control module are installed inside the electrical box, and the solar panel (4) is electrically connected to the battery through the solar controller and the inverter, and the battery is electrically connected to the first motor (2) and the second motor (3).
Citation Information
Patent Citations
Windproof and anti-toppling mechanism of solar cell panel
CN112542981A
Multifunctional cultivation device and method for gardening aquatic plants
CN114521482A
Ecological floating island of artificial wetland
CN209923019U
Greening nursery stock cultivation device with windproof structure
CN216567319U