Water quality monitoring floating platform

Abstract

The utility model relates to the technical field of water quality monitoring equipment, in particular to a water quality monitoring floating platform which comprises a buoy body and a monitoring base detachably assembled on the upper end face of the buoy body, and a sampling barrel which extends downwards and penetrates through the buoy body is arranged at the center of the monitoring base. A plurality of sampling through grooves penetrating through the side wall of the sampling barrel are formed in the side wall of the sampling barrel, the sampling through grooves are equally formed in the sampling barrel along the same inclination angle, and the sampling barrel is arranged at the center of the monitoring base, extends downwards and penetrates through the buoy body, so that the detection barrel can extend into water flow to generate resistance; meanwhile, in order to reduce the pushing influence of flowing of the water flow on the detection barrel, a plurality of groups of sampling through grooves which are equally arranged along the same inclination angle are formed in the side wall of the sampling barrel, and the water flow can flow through the sampling barrel by utilizing the sampling through grooves, so that the situation that the flowing of the water flow pushes the floating platform to move is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of water quality monitoring equipment, in particular to a water quality monitoring floating platform. Background Art

[0002] Water is the source of life. Human beings cannot live without water in their lives and production activities. The quality of drinking water is closely related to human health. For large-scale water quality testing in lakes, water quality monitoring floating platforms are usually used. Due to the large amount of aquatic plants and sediment in lakes, sampling tubes are easily blocked, affecting water quality testing and causing a decrease in the accuracy of water quality testing. The role of the floating platform is to prevent the water quality monitoring device from contacting the water and to remind passing ships to avoid damage to the water quality monitoring device. Furthermore, solar photovoltaic panels are fixed on the floating platform to power the water quality monitoring device. This places certain requirements on the stability of the use of the floating platform. Once the floating platform encounters severe weather such as strong winds and rainstorms, the fluctuations of the water surface will affect the shape of the floating platform, and in severe cases, the floating platform will be overturned, thereby adversely affecting subsequent water quality inspections and monitoring. Therefore, a water quality monitoring floating platform is needed. Summary of the invention

[0003] In view of the above-mentioned shortcomings of the prior art, an object of the present invention is to provide a water quality monitoring floating platform to solve the problem of stability in use of the floating platform in the prior art.

[0004] To achieve the above objectives and other related objectives, the present invention provides the following technical solutions:

[0005] A water quality monitoring floating platform includes a buoy body and a monitoring base detachably mounted on the upper end surface of the buoy body, a sampling barrel extending downward and penetrating the buoy body is provided at the center of the monitoring base, a sampling slot penetrating the side wall of the sampling barrel is provided on the side wall of the sampling barrel, a plurality of groups of the sampling slots are equally divided along the same inclination angle on the sampling barrel, a warning base extending from the buoy body is provided at one end of the monitoring base, a warning light is provided on the warning base, and base handles are provided on both sides of the monitoring base.

[0006] To implement the above technical solution, a sampling barrel is arranged at the center of the monitoring base, and the sampling barrel is extended downward and penetrates the float body. The detection barrel can be used to extend into the water flow to generate resistance, thereby improving the stability of the float floating on the water surface. At the same time, in order to reduce the driving effect of the water flow on the detection barrel, a plurality of groups of sampling grooves are arranged at the same inclination angle and equally spaced on the side wall of the sampling barrel. The sampling grooves are used to allow water to flow through the sampling barrel, thereby reducing the situation where the water flow drives the movement of the float. Since the detection barrel is a cylindrical barrel, after the water flow that impacts the sampling barrel in the same direction enters the interior of the sampling barrel, the sampling grooves in the corresponding surface and the sampling grooves on the entry surface are intertwined with each other. In this way, while ensuring the flow of water, the situation where the water flow drives the movement of the float body can be reduced, thereby improving the floating stability of the float body on the water surface.

[0007] In one embodiment of the present invention, the monitoring base is provided with a connecting through hole for connecting to the float body, the upper end surface of the float body is provided with a bolt hole corresponding to the connecting through hole, the upper end surface of the monitoring base is provided with a power storage base, and the power storage base is provided with a bolt base, the bolt base is connected to the bolt hole and the connecting through hole by bolts, and the radial dimension of the bolt base is set larger than the radial dimension of the bolt hole.

[0008] To implement the above technical solution, by arranging the power storage base on the upper end surface of the monitoring base, the possibility of water flowing into the power storage base can be reduced, thereby ensuring the reliability of the use of the power storage base. The bolt base is connected to the bolt hole and the connecting through hole by bolts, which can ensure the stability of the connection between the power storage base, the monitoring base and the buoy body. The radial dimension of the bolt base is set to be larger than the radial dimension of the bolt hole, which can facilitate the addition of gaskets on the bolt base during the bolt installation process, thereby improving the sealing reliability of the power storage base.

[0009] In one embodiment of the present invention, a solar panel is disposed on the power storage base, a storage battery is disposed inside the power storage base, and the storage battery is electrically connected to the solar panel.

[0010] By implementing the above technical solution and arranging both the battery and the solar panel on the power storage base, the influence of the water flow on the stability of the battery and the solar panel can be reduced.

[0011] In one embodiment of the present invention, a plurality of sampling slots are also provided on the bottom end surface of the sampling barrel.

[0012] Implementing the above technical solution can improve the reliability and comprehensiveness of water sampling.

[0013] In one embodiment of the present invention, a sampling through hole is provided at the center of the float body, the sampling bucket is arranged in the sampling through hole, a trumpet-shaped guide port is provided at the bottom of the sampling through hole, the guide port opening is arranged toward the bottom of the float body, and the guide port surface is a smooth curved surface.

[0014] To implement the above technical solution, the sampling through hole is provided to facilitate the installation of the sampling barrel, and a trumpet-shaped guide port is provided at the bottom of the sampling through hole, which can reduce the impact damage of the water flow to the float body and improve the stability of the float body.

[0015] In one embodiment of the present invention, the side wall of the sampling barrel and the sampling through hole are spaced apart.

[0016] To implement the above technical solution, by setting a spacing between the side wall of the sampling barrel and the sampling through hole, the smoothness of water flowing in the sampling barrel can be improved.

[0017] As described above, a water quality monitoring floating platform of the present invention has the following beneficial effects: by setting a sampling bucket at the center of the monitoring base, and extending the sampling bucket downward and penetrating the float body, the detection bucket can be used to extend into the water flow to generate resistance, thereby improving the stability of the float floating on the water surface; at the same time, in order to reduce the driving effect of the flow of water on the detection bucket, a plurality of groups of sampling grooves are arranged at the same inclination angle and equally spaced on the side wall of the sampling bucket, and the sampling grooves are used to allow water to flow through the sampling bucket, thereby reducing the situation where the flow of water drives the movement of the floating platform; since the detection bucket is a cylindrical barrel, after the water flow that impacts the sampling bucket in the same direction enters the interior of the sampling barrel, the sampling grooves in the corresponding surface and the sampling grooves on the entry surface are intertwined with each other, so that the flow of water can be ensured while reducing the situation where the water flow drives the movement of the float body, thereby improving the floating stability of the float body on the water surface. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 Shown is a schematic diagram of the structure of a water quality monitoring floating platform disclosed in an embodiment of the present invention.

[0019] Figure 2 Shown is a schematic diagram of the monitoring base structure of the water quality monitoring floating platform disclosed in an embodiment of the present invention.

[0020] Figure 3 Shown is a schematic diagram of the connecting through-hole structure of the water quality monitoring floating platform disclosed in an embodiment of the present invention.

[0021] Figure 4 Shown is a schematic diagram of the bolt hole structure of the water quality monitoring floating platform disclosed in an embodiment of the present invention.

[0022] Component number description

[0023] 1. Float body; 2. Monitoring base; 3. Sampling bucket; 4. Sampling slot; 5. Warning base; 6. Warning light; 7. Base handle; 8. Connecting hole; 9. Bolt hole; 10. Power storage base; 11. Bolt base; 12. Solar panel; 13. Battery; 14. Sampling hole. DETAILED DESCRIPTION

[0024] The following specific embodiments illustrate the implementation of the present invention, and those familiar with the technology can easily understand other advantages and effects of the present invention from the contents disclosed in this specification. It should be noted that the following embodiments and features in the embodiments can be combined with each other without conflict.

[0025] See also Figures 1 to 4 The present invention provides a water quality monitoring floating platform, including a buoy body 1, a monitoring base 2 detachably mounted on the upper end surface of the buoy body 1, a sampling barrel 3 extending downward and penetrating the buoy body 1 is provided at the center of the monitoring base 2, a sampling groove 4 penetrating the side wall of the sampling barrel 3 is opened on the side wall of the sampling barrel 3, and a plurality of sampling grooves 4 are equally divided along the same inclination angle on the sampling barrel 3, a warning base 5 extending from the buoy body 1 is provided at one end of the monitoring base 2, a warning light 6 is provided on the warning base 5, and base handles 7 are provided on both sides of the monitoring base 2.

[0026] By setting a sampling barrel 3 at the center of the monitoring base 2 and extending the sampling barrel 3 downward and penetrating the buoy body 1, the detection barrel can be extended into the water flow to generate resistance, thereby improving the stability of the buoy floating on the water surface. At the same time, in order to reduce the driving effect of the water flow on the detection barrel, a plurality of groups of sampling grooves 4 are arranged at the same inclination angle and equally spaced on the side wall of the sampling barrel 3. The sampling grooves 4 are used to allow water to flow through the sampling barrel 3, thereby reducing the situation where the water flow drives the movement of the floating platform. Since the detection barrel is a cylindrical barrel, after the water flow that impacts the sampling barrel 3 in the same direction enters the sampling barrel 3, the sampling grooves 4 in the corresponding surface and the sampling grooves 4 on the entry surface are intertwined with each other. In this way, while ensuring the flow of water, the situation where the water flow drives the movement of the buoy body 1 can be reduced, thereby improving the floating stability of the buoy body 1 on the water surface.

[0027] The monitoring base 2 is provided with a connecting through hole 8 for connecting with the buoy body 1, and the upper end surface of the buoy body 1 is provided with a bolt hole 9 corresponding to the connecting through hole 8. The upper end surface of the monitoring base 2 is provided with a power storage base 10, and the power storage base 10 is provided with a bolt base 11. The bolt base 11 is connected to the bolt hole 9 and the connecting through hole 8 by bolts, and the radial dimension of the bolt base 11 is larger than the radial dimension of the bolt hole 9.

[0028] By arranging the power storage base 10 on the upper end surface of the monitoring base 2, the possibility of water flowing into the power storage base 10 can be reduced, thereby ensuring the reliability of the use of the power storage base 10. The bolt base 11 is connected to the bolt hole 9 and the connecting through hole 8 by bolts, which can ensure the connection stability between the power storage base 10 and the monitoring base 2 and the buoy body 1. The radial dimension of the bolt base 11 is set larger than the radial dimension of the bolt hole 9, which can facilitate the addition of gaskets on the bolt base 11 during the bolt installation process, thereby improving the sealing reliability of the power storage base 10.

[0029] A solar panel 12 is provided on the power storage base 10, and a battery 13 is provided inside the power storage base 10. The battery 13 and the solar panel 12 are electrically connected. Placing the battery 13 and the solar panel 12 on the power storage base 10 can reduce the impact of water flow on the stability of use of the battery 13 and the solar panel 12.

[0030] A plurality of sampling grooves 4 are also provided on the bottom end surface of the sampling barrel 3, which can improve the reliability and comprehensiveness of water sampling. A sampling through hole 14 is provided at the center of the float body 1, and the sampling barrel 3 is arranged in the sampling through hole 14. A trumpet-shaped diversion port is provided at the bottom of the sampling through hole 14, and the opening of the diversion port is arranged toward the bottom of the float body 1. The surface of the diversion port is a smooth curved surface. The sampling through hole 14 can facilitate the installation of the sampling barrel 3, and the trumpet-shaped diversion port is provided at the bottom of the sampling through hole 14, which can reduce the impact damage of the water flow to the float body 1 and improve the stability of the float body 1. The side wall of the sampling barrel 3 and the sampling through hole 14 are spaced apart. By setting the side wall of the sampling barrel 3 and the sampling through hole 14 apart, the smoothness of the water flow in the sampling barrel 3 can be improved.

[0031] The present invention arranges a sampling barrel at the center of the monitoring base, and extends the sampling barrel downward and penetrates the buoy body. The detection barrel can be used to extend into the water flow to generate resistance, thereby improving the stability of the buoy floating on the water surface. At the same time, in order to reduce the driving effect of the flow of water on the detection barrel, a plurality of groups of sampling grooves arranged at the same inclination angle and equally spaced are arranged on the side wall of the sampling barrel. The sampling grooves are used to allow water to flow through the sampling barrel, thereby reducing the situation where the flow of water drives the movement of the floating platform. Since the detection barrel is a cylindrical barrel, after the water flow that impacts the sampling barrel in the same direction enters the interior of the sampling barrel, the sampling grooves in the corresponding surface and the sampling grooves on the entry surface are intertwined with each other. In this way, the flow of water can be ensured while reducing the situation where the water flow drives the movement of the buoy body, thereby improving the floating stability of the buoy body on the water surface.

[0032] The above embodiments are merely illustrative of the principles and effects of the present invention, and are not intended to limit the present invention. All equivalent modifications or changes made by those skilled in the art without departing from the spirit and technical ideas disclosed by the present invention shall still be covered by the claims of the present invention.

Claims

1. A water quality monitoring floating platform, characterized in that: It includes a float body and a monitoring base detachably mounted on the upper end surface of the float body, a sampling barrel extending downward and penetrating the float body is provided at the center of the monitoring base, a sampling groove penetrating the side wall of the sampling barrel is opened on the side wall of the sampling barrel, and a plurality of groups of sampling grooves are equally divided along the same inclination angle on the sampling barrel, a warning base extending from the float body is provided at one end of the monitoring base, a warning light is provided on the warning base, and base handles are provided on both sides of the monitoring base.

2. The water quality monitoring floating platform according to claim 1 is characterized in that: The monitoring base is provided with a connecting through hole for connecting with the float body, the upper end surface of the float body is provided with a bolt hole corresponding to the connecting through hole, the upper end surface of the monitoring base is provided with a power storage base, and the power storage base is provided with a bolt base. The bolt base is connected to the bolt hole and the connecting through hole by bolts, and the radial dimension of the bolt base is set larger than the radial dimension of the bolt hole.

3. The water quality monitoring floating platform according to claim 2 is characterized in that: A solar panel is arranged on the power storage base, a storage battery is arranged inside the power storage base, and the storage battery is electrically connected to the solar panel.

4. The water quality monitoring floating platform according to claim 2 is characterized in that: The bottom end surface of the sampling barrel is also provided with a plurality of sampling slots.

5. The water quality monitoring floating platform according to claim 1 is characterized in that: A sampling through hole is provided at the center of the float body, the sampling bucket is arranged in the sampling through hole, a trumpet-shaped flow guide port is provided at the bottom of the sampling through hole, the flow guide port opening is arranged toward the bottom of the float body, and the flow guide port surface is a smooth curved surface.

6. The water quality monitoring floating platform according to claim 5 is characterized in that: The side wall of the sampling barrel and the sampling through hole are spaced apart.

Images