Integrated floating platform based on water ecological environment monitoring and resource protection

Abstract

The present invention discloses an integrated floating platform based on water ecological environment monitoring and resource protection, including a floating plate, the bottom of which is provided with an underwater image acquisition device for collecting aquatic species data, a water quality acquisition device for collecting water quality data, and an electrical device, the top of which is provided with a planting trough, and aquatic plants are planted in the planting trough, and the bottom of the planting trough is provided with a seepage hole. The present invention performs ecological monitoring in water bodies such as lakes and wetlands, collects water quality and aquatic species data in real time and transmits it to an external monitoring terminal, ensuring that the ecological environment of the water body is effectively protected, and when the pump body draws water into the housing and passes it through the water quality detection device for detection, the water is also discharged through the hollow tube and the liquid outlet, which not only increases the oxygen content of the water, but also allows the water to be purified by the aquatic plants and then discharged back into the water body from the seepage hole, completing the purification and repair of the water body in the water body and achieving better resource protection.

Description

Technical Field

[0001] The present invention relates to the technical field of water ecological environment monitoring and protection, and in particular to an integrated floating platform based on water ecological environment monitoring and resource protection. Background Art

[0002] Lakes, wetlands and other water bodies are important water sources in many areas. Their water quality is directly related to the drinking water safety of residents. Therefore, real-time monitoring of lakes, wetlands and other water bodies is necessary. Monitoring the water quality of water bodies can timely understand the water quality status, discover potential water quality problems, and thus take measures. Monitoring aquatic species data in water bodies can help protect aquatic biodiversity and maintain the ecological balance of water bodies.

[0003] Currently, monitoring of lakes, wetlands, and other water bodies typically involves multiple sensors mounted on the bottom of a floating platform. While this method can monitor water quality, it cannot purify or repair the water in these areas, limiting its use. To address this issue, we propose an integrated floating platform for water ecological environment monitoring and resource protection. Summary of the Invention

[0004] The purpose of the present invention is to provide an integrated floating platform based on water ecological environment monitoring and resource protection, so as to solve the technical problem proposed in the above-mentioned background technology that the monitoring method using multiple sensors installed on the bottom of the floating plate cannot purify and repair water bodies in lakes, wetlands and other water bodies, and has certain limitations.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] The integrated floating platform based on water ecological environment monitoring and resource protection includes a floating board, the bottom of which is provided with an underwater image acquisition device for collecting aquatic species data, a water quality acquisition device for collecting water quality data, and an electrical device for remotely transmitting the collected aquatic species data and water quality data to an external monitoring terminal. A planting trough is provided on the top of the floating board, and aquatic plants are planted in the planting trough. A water seepage hole is provided at the bottom of the planting trough; wherein,

[0007] The water quality collection device comprises:

[0008] The pump body is arranged below the floating plate and is connected to the housing through a pipeline, and the housing is mounted on the floating plate through a bearing frame, and a water quality detection device is arranged in the housing; and

[0009] The hollow tube is horizontally arranged above the shell and is connected with the shell through a pipeline. The bottom of the hollow tube is provided with a liquid outlet for supplying water to the aquatic plants.

[0010] A further improvement is that the water quality collection device further includes:

[0011] A water inlet cylinder is arranged outside the pump body, and a water filtering hole is opened on the outer wall of the water inlet cylinder;

[0012] An impeller is rotatably disposed in the water inlet cylinder and located below the pump body input end, and is driven to rotate by water entering the pump body input end. The impeller is transmission-connected to a transmission rod, which movably passes through the bottom of the water inlet cylinder and is connected to a bracket. One end of the bracket is provided with a brush plate for cleaning the outer wall of the water inlet cylinder;

[0013] A placement seat is provided at the other end of the bracket, and a groove is provided on the side facing the water inlet cylinder. A cutting knife is movably provided in the groove, and the cutting knife is connected to the output end of the compression container component 1 through an elastic component 1. The compression container component 1 is inserted into the outer side of the placement seat, and the compression container component 1 is connected to the compression container component 2 through a pipeline. The compression container component 2 is provided at the lower end of the placement seat, and the compression container component 2 stores pressure medium. A ball is embedded in one end of the compression container component 2 and slides against the outer wall of the water inlet cylinder. The compression container component 2 is provided with a spring component for driving it to return to its original position; and,

[0014] There are several groups of arc-shaped protrusions, which are arranged in a ring array on the outer wall of the water inlet cylinder to drive the compression container component 2 to squeeze the pressure medium into the compression container component 1. After the pressure medium enters the interior of the compression container component 1, the cutting knife is driven to contact the outer wall of the water inlet cylinder.

[0015] A further improvement is that a hard tube is provided on the top of the water inlet cylinder, the hard tube is connected to the output end of the pump body, the hard tube movably passes through the float and is connected to the shell through the telescopic tube, and a driving device is provided in the float to drive the hard tube to move up and down.

[0016] A further improvement is that the hollow tube passes through a gear plate through a pipeline and is connected to the housing. The gear plate is rotatably arranged on the top of the housing, and an elastic reset part is provided at the connection between the gear plate and the housing. A toothless gear is engaged with one side of the gear plate. The shaft of the toothless gear movably passes through the housing and is transmission-connected to impeller 2. Impeller 2 is rotatably arranged in the housing, and the housing is driven to rotate by water entering the housing.

[0017] A further improvement is that a storage shell for storing medicine is provided on the top of the hollow tube, the discharge end of the storage shell is connected to the hollow tube, and a solenoid valve is provided in the discharge end. The solenoid valve is controlled to open by an electrical device when the water quality detection device detects that the water quality reaches a preset threshold.

[0018] A further improvement is that a transmission rod 2 is vertically rotatably inserted on the hollow tube, and the transmission rod 2 and the shell are connected by a gear set. The transmission rod is located on the outer wall of the hollow tube and is sleeved with a cam 1. One end of the cam 1 slides against a movable sealing plate for closing the discharge end of the storage shell. The movable sealing plate is slidably arranged on the top inner wall of the hollow tube and is driven to move by the cam 1, and a discharge port corresponding to the discharge end of the storage shell is provided on the movable sealing plate. The discharge port intermittently corresponds to the discharge end of the storage shell when the movable sealing plate moves. The top inner wall of the hollow tube is also provided with a reset spring that drives the movable sealing plate to reset.

[0019] A further improvement is that a cam 2 is provided at the top end of the second transmission rod located above the hollow tube, one end of the second cam is slidably abutted against a connecting frame, the connecting frame is slidably arranged above the hollow tube, one end of the connecting frame is provided with a knocking ball for contacting the storage shell, the connecting frame is driven by the second cam to move to the side away from the storage shell, and an elastic part 2 is provided on the hollow tube for driving the connecting frame to reset.

[0020] A further improvement is that a photovoltaic device is provided on the top of the floating plate.

[0021] A further improvement is that a propeller device is provided at the bottom of the floating plate.

[0022] Compared with the prior art, the present invention has the following beneficial effects:

[0023] 1) The present invention conducts ecological monitoring in water areas such as lakes and wetlands, collects water quality and aquatic species data in real time, and transmits it to an external monitoring terminal, ensuring that the ecological environment of the water area is effectively protected. In addition, when the pump body draws water into the housing and passes it through the water quality detection device for detection, the water is also discharged through the hollow tube and the liquid outlet nozzle, which not only increases the oxygen content of the water, but also allows the water to be purified by aquatic plants and then discharged back into the water area through the seepage hole, completing the purification and repair of the water body in the water area and achieving better resource protection.

[0024] 2) The present invention can filter the incoming water through the water inlet cylinder and the water seepage hole to prevent pipe blockage, etc. At the same time, when the pump body pumps water, the impeller 1 drives the transmission rod 1, and the transmission rod 1 drives the brush plate to rub the outer wall of the water inlet cylinder through the bracket, effectively preventing the water filter hole from being blocked and affecting the water entering the water inlet cylinder. In addition, the ball intermittently contacts the arc-shaped protrusion, and then the piston rod in the compression container part 2 drives the piston to squeeze the pressure medium into the cylinder body of the compression container part 1, and then drives the piston in the compression container part 1 to drive the piston rod to push the cutting knife to contact the water inlet cylinder, cutting off the water plants and other entanglements on the outer wall of the water inlet cylinder, thereby improving the cleaning effect;

[0025] 3) After water enters the housing, the present invention drives the second impeller to drive the toothless gear, which drives the gear plate, and the gear plate drives the hollow tube to rotate, thereby fully supplying water to the aquatic plants in the planting trough and improving the purification and repair effect of the water body;

[0026] 4) The transmission rod 2 of the present invention drives the cam 1 to intermittently drive the movable sealing plate to squeeze the reset spring, so that the discharge port intermittently corresponds to the discharge end of the storage shell. When the water quality reaches a preset threshold, the agent can be intermittently added to further improve the purification and repair effect of the water body. When the transmission rod 2 rotates, the cam 2 is also used to intermittently drive the connecting frame to squeeze the elastic member 2, so that the knocking ball is away from the storage shell. Subsequently, the elastic member 2 drives the connecting frame to reset and knocks the storage shell through the knocking ball, so that the knocking ball is away from the vibration of the storage shell, which facilitates the internal agent to better pass through the discharge end of the storage shell downward while avoiding the compaction or solidification of the internal agent. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 This is a schematic structural diagram of the floating platform of the present invention;

[0028] Figure 2 This is a cross-sectional view of the water inlet tube structure of the present invention;

[0029] Figure 3 This is a schematic diagram of the arc-shaped protrusion structure of the present invention;

[0030] Figure 4 For the present invention Figure 1 A magnified view of structure A in .

[0031] Figure: 1. Floating plate; 2. Underwater image acquisition device; 3. Electrical device; 4. Planting trough; 5. Aquatic plants; 6. Seepage hole; 7. Propeller device; 8. Carrying frame; 9. Driving device; 10. Water inlet cylinder; 11. Water filter hole; 12. Pump body; 13. Hard pipe; 14. Impeller 1; 15. Transmission rod 1; 16. Brush plate; 17. Placement seat; 18. Cutting knife; 19. Compression container 1; 20. Elastic member 1; 21. Compression container part 2; 22. Ball bearing; 23. Arc-shaped protrusion; 24. Impeller 2; 25. Housing; 26. Hollow tube; 27. Water quality detection device; 28. Gear plate; 29. Toothless gear; 30. Liquid outlet; 31. Storage shell; 32. Solenoid valve; 33. Movable sealing plate; 34. Gear set; 35. Cam 1; 36. Connecting frame; 37. Elastic part 2; 38. Photovoltaic device; 39. Cam 2. DETAILED DESCRIPTION

[0032] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. 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 making creative efforts are within the scope of protection of the present invention.

[0033] See also Figure 1-Figure 2 , an integrated floating platform based on water ecological environment monitoring and resource protection, including a floating board 1, used for floating in lakes, wetlands and other waters for ecological monitoring, a propeller device 7 is provided at the bottom of the floating board 1, which is convenient for moving in the water and adjusting the monitoring position;

[0034] The bottom of the floating platform 1 is provided with an underwater image acquisition device 2 for collecting aquatic species data, a water quality acquisition device for collecting water quality data, and an electrical device 3 for remotely transmitting the collected aquatic species data and water quality data to an external monitoring terminal. The underwater image acquisition device 2 is an underwater camera with waterproof function, high resolution and good image stability, and is equipped with lighting equipment (such as LED lights) to provide sufficient light. The external monitoring terminal can obtain the aquatic species data by analyzing and processing the image data collected by the underwater image acquisition device 2. The electrical device 3, for example, is a wireless module and a controller, which facilitates real-time communication with the external monitoring terminal through the wireless module. The controller is used to control the electrical components on the floating platform.

[0035] A photovoltaic device 38 is provided on the top of the floating plate 1. The photovoltaic device 38 includes photovoltaic panels and batteries, etc., which can be used to power the electrical devices on the floating platform.

[0036] A planting trough 4 is provided on the top of the floating plate 1, and aquatic plants 5 are planted in the planting trough 4. The planting trough 4 is annular, and the aquatic plants 5 are, for example, water lilies, duckweed, or water spinach. A water seepage hole 6 is provided at the bottom of the planting trough 4.

[0037] Water quality collection devices include:

[0038] The pump body 12 is disposed below the floating plate 1 and is connected to a housing 25 via a pipeline. The housing 25 is mounted on the floating plate 1 via a support frame 8. A water quality detection device 27 is disposed within the housing 25. The water quality detection device 27 is, for example, a water quality detector or a water quality detection sensor, which will not be described in detail herein; and

[0039] The hollow tube 26 is horizontally arranged above the shell 25 and is connected to the shell 25 through a pipeline. Both ends of the hollow tube 26 are closed. A liquid outlet 30 for supplying water to the aquatic plants 5 is provided at the bottom of the hollow tube 26.

[0040] The floating platform conducts ecological monitoring in lakes, wetlands and other water areas, collects water quality and aquatic species data in real time and transmits it to an external monitoring terminal to ensure that the ecological environment of the water area is effectively protected. In addition, when the pump body 12 draws water into the shell 25 and passes it through the water quality detection device 27 for detection, the water is also discharged through the hollow tube 26 and the liquid outlet 30, which not only increases the oxygen content of the water, but also allows the water to be purified by the aquatic plants 5 and then discharged back into the water area from the seepage hole 6, completing the purification of the water body in the water area and achieving better resource protection.

[0041] See also Figure 3 As an example, the water quality collection device of this embodiment further includes:

[0042] The water inlet cylinder 10 is provided outside the pump body 12, and the upper and lower ends are both closed. The outer wall of the water inlet cylinder 10 is provided with a water filter hole 11, which is specifically provided below the pump body 12, so that water is pumped out from bottom to top by the pump body 12;

[0043] The impeller 14 is rotatably arranged in the water inlet cylinder 10 and is located below the input end of the pump body 12. It is driven to rotate by the water entering the input end of the pump body 12. The impeller 14 is connected to the transmission rod 15 through a bevel gear set 34 (two sets of meshing bevel gears). The transmission rod 15 is movably connected to the bottom of the water inlet cylinder 10 and is connected to a bracket. One end of the bracket is provided with a brush plate 16 for cleaning the outer wall of the water inlet cylinder 10. When the pump body 12 pumps water, the impeller 14 rotates, and the impeller 14 drives the transmission rod 15. The transmission rod 15 drives the brush plate 16 through the bracket to rub the outer wall of the water inlet cylinder 10, effectively preventing the water filter hole 11 from being blocked and affecting the water entering the water inlet cylinder 10.

[0044] The placement seat 17 is provided at the other end of the bracket, and a groove is provided on the side facing the water inlet cylinder 10. A cutting knife 18 is movably provided in the groove for cutting off entanglements such as water plants wrapped around the outer wall of the water inlet cylinder 10. The cutting knife 18 is connected to the output end of the compression container component 19 through an elastic component 120. The elastic component 120 can be a spring. The compression container component 19 is inserted into the outer side of the placement seat 17. The compression container component 19 is connected to the compression container component 21 through a pipeline. The compression container component 21 is provided at the lower end of the placement seat 17. The compression container component 21 stores a pressure medium, which can be hydraulic oil. A ball 22 is embedded at one end of the compression container component 21 and slides against the outer wall of the water inlet cylinder 10. The above-mentioned compression container component 19 and the compression container component 21 both include a cylinder, a piston movably provided in the cylinder, a piston rod connected to the piston and having one end passing through the cylinder and extending to the outside of the cylinder. The compression container component 21 is provided with a spring component for driving it to reset; and,

[0045] The arc-shaped protrusions 23 are provided in a plurality of groups and are arranged in a ring array on the outer wall of the water inlet cylinder 10 for driving the compression container part 21 to squeeze the pressure medium into the compression container part 19. After the pressure medium enters the compression container part 19, the cutting blade 18 is driven to contact the outer wall of the water inlet cylinder 10. When the bracket rotates, the placement seat 17 is also driven to rotate. During the rotation, the ball 22 intermittently contacts the arc-shaped protrusions 23, thereby driving the piston rod in the compression container part 21 to drive the piston to squeeze the pressure medium into the cylinder body of the compression container part 19. The piston in the compression container part 19 is then driven to drive the piston rod to push the cutting blade 18 to contact the water inlet cylinder 10, cutting off the water plants and other entanglements on the outer wall of the water inlet cylinder 10, thereby improving the cleaning effect.

[0046] A hard tube 13 is provided on the top of the water inlet cylinder 10, and the hard tube 13 is connected to the output end of the pump body 12. The hard tube 13 movably passes through the floating plate 1 and is connected to the shell 25 through the telescopic tube. A driving device 9 is provided in the floating plate 1 to drive the hard tube 13 to move up and down. The driving device 9 is, for example, a servo motor, a reducer, and a gear provided at the output end of the reducer, and a rack provided on the outer wall of the hard tube 13. In this way, the collection depth can be easily adjusted to realize water quality monitoring at different depths.

[0047] See also Figure 4 Preferably, the hollow tube 26 of this embodiment passes through a gear plate 28 through a pipeline and is in communication with the housing 25. The gear plate 28 is rotatably arranged on the top of the housing 25 through a bearing, and an elastic reset member is provided at the connection between the gear plate 28 and the housing 25. The elastic reset member is a torsion spring, which is used to drive the rotating gear plate 28 to reset. A toothless gear 29 is engaged with one side of the gear plate 28, which is used to drive the gear plate 28 to reset after rotating a preset angle. For example, after the gear plate 28 rotates from 0 degrees to 360 degrees, it is reversed from 360 degrees to 0 degrees under the action of the elastic reset member.

[0048] The shaft of the toothless gear 29 moves through the housing 25 and is connected to the impeller 2 24. The shaft of the toothless gear 29 and the impeller 2 24 can be connected by a bevel gear set 34. The impeller 2 24 is rotatable in the housing 25. The housing 25 is driven to rotate by the water entering the housing 25. After the water enters the housing 25, the impeller 2 24 is driven, and then the impeller 2 24 drives the toothless gear 29. The toothless gear 29 drives the gear plate 28, and the gear plate 28 drives the hollow tube 26 to rotate, thereby fully supplying water to the aquatic plants 5 in the planting trough 4. When the teeth of the toothless gear 29 are separated from the gear plate 28, the gear plate 28 rotates and resets under the action of the elastic reset member.

[0049] Preferably, a storage shell 31 for storing a medicine is provided at the top of the hollow tube 26 of this embodiment. The top of the storage shell 31 has a passage for adding a medicine, such as a powdered purifier, etc. The discharge end of the storage shell 31 is connected to the hollow tube 26, and a solenoid valve 32 is provided in the discharge end. The solenoid valve 32 is controlled to open by the electrical device 3 when the water quality detection device 27 detects that the water quality reaches a preset threshold. When the water quality detection device 27 detects that the water quality does not reach the preset threshold, the medicine in the storage shell 31 will not be used to avoid waste of the medicine. When the water quality reaches the preset threshold, the medicine in the storage shell 31 can be discharged into the hollow tube 26 and discharged along with the water flow in the hollow tube 26, thereby improving the water purification effect.

[0050] As a preferred embodiment, a transmission rod 2 is vertically rotatably inserted on the hollow tube 26 of this embodiment, and a bearing is provided at the connection between the transmission rod 2 and the hollow tube 26. The transmission rod 2 and the shell 25 are connected through a gear set 34. The gear set 34 is two sets of meshing gears. The transmission rod is located on the outer wall of the hollow tube 26 and is sleeved with a cam 35. One end of the cam 35 slides against a movable sealing plate 33 for closing the discharge end of the storage shell 31. The movable sealing plate 33 is slidingly arranged on the inner wall of the top of the hollow tube 26 and is driven to move by the cam 35. A discharge port corresponding to the discharge end of the storage shell 31 is provided on the movable sealing plate 33. The discharge port intermittently corresponds to the discharge end of the storage shell 31 when the movable sealing plate 33 moves. A reset spring is also provided on the inner wall of the top of the hollow tube 26 to drive the movable sealing plate 33 to return to its original position.

[0051] When the hollow tube 26 rotates, it drives the transmission rod 2, and the transmission rod 2 and the shell 25 cooperate through the gear set 34 so that the transmission rod 2 drives the cam 1 35. The cam 1 35 intermittently drives the movable sealing plate 33 to squeeze the reset spring, and then the discharge port intermittently corresponds to the discharge end of the storage shell 31. If the solenoid valve 32 in the discharge end is opened, the medicine in the storage shell 31 is quantitatively discharged into the hollow tube 26.

[0052] Preferably, the top of the second transmission rod of this embodiment is located above the hollow tube 26 and is provided with a second cam 39. One end of the second cam 39 is slidably abutted against a connecting frame 36. The vertical cross-section of the connecting frame 36 is L-shaped. The connecting frame 36 is slidably arranged above the hollow tube 26. The connecting frame 36 can be slidably arranged on the hollow tube 26 using a slider and a slide rail. One end of the connecting frame 36 is provided with a knocking ball for contacting the storage shell 31. The connecting frame 36 is driven by the second cam 39 to move to a side away from the storage shell 31. The hollow tube 26 is provided with a second elastic member 37 for driving the connecting frame 36 to reset.

[0053] When the transmission rod 2 rotates, the cam 2 39 intermittently drives the connecting frame 36 to squeeze the elastic member 2 37, so that the knocking ball is away from the storage shell 31. Subsequently, the elastic member 2 37 drives the connecting frame 36 to reset and knock the storage shell 31 through the knocking ball, so that the knocking ball is away from the storage shell 31 and vibrates, which facilitates the internal medicine to pass through the discharge end of the storage shell 31 downward and avoids the internal medicine from becoming compacted or solidified.

[0054] While 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 these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An integrated floating platform for water ecological environment monitoring and resource protection, comprising a floating plate (1), characterized in that: An underwater image acquisition device (2) for collecting aquatic species data is provided at the bottom of the floating plate (1), a water quality acquisition device for collecting water quality data and an electrical device (3) for remotely transmitting the collected aquatic species data and water quality data to an external monitoring terminal are also provided on the floating plate (1), a planting trough (4) is provided on the top of the floating plate (1), and aquatic plants (5) are planted in the planting trough (4), and a water seepage hole (6) is provided at the bottom of the planting trough (4); wherein, The water quality collection device comprises: A pump body (12) is provided below the floating plate (1) and is connected to a housing (25) via a pipeline, and the housing (25) is provided on the floating plate (1) via a supporting frame (8), and a water quality detection device (27) is provided in the housing (25); and a hollow tube (26) horizontally arranged above the shell (25) and connected to the shell (25) through a pipeline, wherein a liquid outlet (30) for supplying water to the aquatic plants (5) is provided at the bottom of the hollow tube (26); The water quality collection device also includes: A water inlet cylinder (10) is arranged outside the pump body (12), and a water filter hole (11) is opened on the outer wall of the water inlet cylinder (10); An impeller (14) is rotatably disposed in the water inlet cylinder (10) and located below the input end of the pump body (12), and is driven to rotate by water entering the input end of the pump body (12). The impeller (14) is connected to a transmission rod (15) in a transmission manner. The transmission rod (15) movably passes through the bottom of the water inlet cylinder (10) and is connected to a bracket. One end of the bracket is provided with a brush plate (16) for cleaning the outer wall of the water inlet cylinder (10); A placement seat (17) is provided at the other end of the bracket, and a groove is provided on the side facing the water inlet cylinder (10). A cutting knife (18) is movably provided in the groove. The cutting knife (18) is connected to the output end of the compression container component (19) through an elastic component (20). The compression container component (19) is inserted into the outside of the placement seat (17). The compression container component (19) is connected to the compression container component (21) through a pipeline. The compression container component (21) is provided at the lower end of the placement seat (17). Pressure medium is stored in the compression container component (21). A ball (22) is embedded at one end of the compression container component (21). The ball (22) is in sliding contact with the outer wall of the water inlet cylinder (10). The compression container component (21) is provided with a spring component for driving it to reset; and, The arc-shaped protrusions (23) are provided in a plurality of groups and arranged in a ring array on the outer wall of the water inlet cylinder (10) for driving the second compression container component (21) to squeeze the pressure medium into the first compression container component (19). After the pressure medium enters the first compression container component (19), the first compression container component (19) drives the cutting blade (18) to contact the outer wall of the water inlet cylinder (10); The hollow tube (26) passes through a gear plate (28) through a pipeline and is communicated with the housing (25). The gear plate (28) is rotatably arranged on the top of the housing (25), and an elastic reset member is provided at the connection between the gear plate (28) and the housing (25). A toothless gear (29) is engaged on one side of the gear plate (28). The shaft of the toothless gear (29) movably passes through the housing (25) and is transmission-connected to the second impeller (24). The second impeller (24) is rotatably arranged in the housing (25). The second impeller (24) is driven to rotate by water entering the housing (25). A storage shell (31) for storing medicine is provided at the top of the hollow tube (26); a discharge end of the storage shell (31) is connected to the hollow tube (26); and a solenoid valve (32) is provided in the discharge end. The solenoid valve (32) is controlled to open by the electrical device (3) when the water quality detection device (27) detects that the water quality reaches a preset threshold value; A transmission rod 2 is vertically rotatably inserted on the hollow tube (26), and the transmission rod 2 and the shell (25) are connected by a gear set (34). The transmission rod is located on the outer wall of the hollow tube (26) and is provided with a cam 1 (35). One end of the cam 1 (35) is slidably abutted against a movable sealing plate (33) for closing the discharge end of the storage shell (31). The movable sealing plate (33) is slidably arranged on the top inner wall of the hollow tube (26) and is driven to move by the cam 1 (35). A discharge port corresponding to the discharge end of the storage shell (31) is provided on the movable sealing plate (33). The discharge port intermittently corresponds to the discharge end of the storage shell (31) when the movable sealing plate (33) moves. A reset spring for driving the movable sealing plate (33) to reset is also provided on the top inner wall of the hollow tube (26); The top end of the second transmission rod is located above the hollow tube (26) and is provided with a second cam (39). One end of the second cam (39) is slidably abutted against a connecting frame (36). The connecting frame (36) is slidably arranged above the hollow tube (26). One end of the connecting frame (36) is provided with a knocking ball for contacting the storage shell (31). The connecting frame (36) is driven by the second cam (39) to move to a side away from the storage shell (31). The hollow tube (26) is provided with a second elastic member (37) for driving the connecting frame (36) to reset.

2. The integrated floating platform according to claim 1, characterized in that: A hard tube (13) is provided at the top of the water inlet cylinder (10), the hard tube (13) is communicated with the output end of the pump body (12), the hard tube (13) movably penetrates the floating plate (1) and is communicated with the housing (25) through a telescopic tube, and a driving device (9) for driving the hard tube (13) to move up and down is provided in the floating plate (1).

3. The integrated floating platform according to claim 1, characterized in that: A photovoltaic device (38) is provided on the top of the floating plate (1).

4. The integrated floating platform according to claim 1, characterized in that: A propeller device (7) is provided at the bottom of the floating plate (1).

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