Water quality monitoring device for environmental protection

Abstract

This utility model provides a water quality monitoring device for environmental protection, including a floating base, a detection device body disposed on the top surface of the floating base, and a sampling tube disposed on the surface of the detection device body. The floating base, the detection device body, and the sampling tube are combined to form the detection device body. Several sets of buoyancy enhancement modules are disposed on the side of the floating base, and the several sets of buoyancy enhancement modules work together to surround the floating base. The several sets of buoyancy enhancement modules connected to the side of the floating base work together to uniformly increase the surface area of ​​the detection device body, thereby improving the floating stability of the detection device body. The connection method of the buoyancy enhancement modules allows for the quick installation of multiple sets of enhancement modules when the detection device body is in use, reducing the area of ​​the detection device body during transportation and facilitating transportation by personnel.

Description

Technical Field

[0001] This utility model relates to the field of water quality monitoring, specifically to a water quality monitoring device for environmental protection. Background Technology

[0002] Water quality monitoring is the process of monitoring and measuring the types of pollutants in water bodies, the concentrations of various pollutants, and their changing trends to evaluate water quality. The monitoring scope is very broad, including unpolluted and polluted natural water (rivers, lakes, seas, and groundwater) as well as various types of industrial wastewater. Floating water quality monitoring devices are a type of water quality monitoring device, offering advantages such as flexibility and real-time monitoring.

[0003] Traditional floating devices are easily affected by natural factors such as wind, waves, and water flow. To increase the stability of floating water quality monitoring devices, the surface area of ​​the float is usually increased to increase buoyancy and reduce the risk of capsizing caused by wind, waves, or water flow. However, this greatly increases the area of ​​the monitoring device, making it inconvenient for staff to transport. Therefore, we propose a water quality monitoring device for environmental protection to solve the above problems. Utility Model Content

[0004] To address the aforementioned issues, this utility model provides a water quality monitoring device for environmental protection, comprising a floating base, a detection device body disposed on the top surface of the floating base, and a sampling tube disposed on the surface of the detection device body. The floating base, the detection device body, and the sampling tube are combined to form the detection device body. Several sets of buoyancy enhancement modules are disposed on the side of the floating base, and the several sets of buoyancy enhancement modules work together to surround the floating base.

[0005] Several sets of buoyancy-enhancing modules connected to the side of the floating base work together to uniformly increase the surface area of ​​the detection device body, thereby improving the floating stability of the detection device body.

[0006] Preferably, the buoyancy enhancement module includes a limiting ring, several sets of slots, retaining rings, several sets of connecting plates, and a floating plate. The limiting ring is disposed on one side of the surface of the floating base. Several sets of slots are equally spaced on the surface of the limiting ring. The retaining rings are engaged inside the limiting ring. Several sets of connecting plates are disposed on the surface of the retaining rings. The number of connecting plates is the same as the number of slots. Each set of connecting plates is engaged in a corresponding slot. A floating plate is disposed at the end of each set of connecting plates.

[0007] Preferably, the outer sides of several groups of floating plates are all set to be arc-shaped, and the several groups of floating plates are combined to form a ring plate.

[0008] Preferably, a protective module is provided at the bottom of the surface of the floating base. The protective module includes a protective cylinder and several sets of wave-damping holes. The protective cylinder is located at the edge of the surface of the floating base, and the several sets of wave-damping holes are all opened on the surface of the protective cylinder.

[0009] Preferably, the surface of the protective module is provided with several sets of cutting modules. Each cutting module includes a limiting plate, a mounting groove, a cutting blade, two sets of mounting plates, and two sets of locking blocks. The limiting plate is located on one side of the protective cylinder surface. The mounting groove is opened on the surface of the limiting plate and extends vertically through the limiting plate. The cutting blade is locked inside the mounting groove. The two sets of mounting plates are symmetrically arranged on both sides of the cutting blade surface. The two sets of locking blocks are respectively located at the top of the two sets of mounting plates.

[0010] Preferably, the inner wall of the mounting groove is formed with a rectangular sliding groove, and the end of the cutting blade is engaged in the rectangular sliding groove.

[0011] Preferably, the two sets of blocks are fitted together in a "V" shape, and each set of blocks is elastic.

[0012] Preferably, the sampling port of the sampling tube is provided with a protective ball, which is composed of several sets of annular protective strips.

[0013] The beneficial effects of this utility model are:

[0014] In this invention, the side of the floating base is provided with several sets of buoyancy-enhancing modules, which work together to surround the floating base. The several sets of buoyancy-enhancing modules connected to the side of the floating base work together to uniformly increase the surface area of ​​the detection device body, thereby improving the floating stability of the detection device body. The connection method of the buoyancy-enhancing modules allows for the quick installation of multiple sets of amplification modules when the detection device body is in use, reducing the area of ​​the detection device body during transportation and facilitating transportation by staff.

[0015] This utility model also includes a limiting plate, a mounting groove, a cutting blade, two sets of mounting plates, and two sets of locking blocks. When aquatic plants wrap around the surface of the protective cylinder, the detection device, driven by the water flow, can automatically cut the aquatic plants through the cooperation of several sets of cutting blades, thereby avoiding the problem of aquatic plants entangled and hindering the movement of the detection device. This structure makes it easy to replace the cutting blades after they become dull, ensuring the cutting ability of the cutting blades to cut aquatic plants. Attached Figure Description

[0016] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0017] Figure 2 This is a three-dimensional structural diagram of the present invention;

[0018] Figure 3This is a partial structural schematic diagram of the present invention;

[0019] Figure 4 This is a partial structural schematic diagram of the present invention;

[0020] Figure 5 This is a partial structural schematic diagram of the present invention;

[0021] Figure 6 For the present utility model Figure 5 A schematic diagram of the explosion structure.

[0022] In the diagram: 1. Floating base; 2. Detection device body; 3. Sampling tube; 4. Buoyancy enhancement module; 41. Limiting ring; 42. Slot; 43. Snap ring; 44. Connecting plate; 45. Floating plate; 5. Protection module; 51. Protective cylinder; 52. Wave-damping hole; 6. Cutting module; 61. Limiting plate; 62. Mounting slot; 63. Cutting blade; 64. Mounting plate; 65. Locking block; 7. Protective ball. Detailed Implementation

[0023] The technical solution of this utility model will now be clearly and completely described with reference to the embodiments and accompanying drawings. Obviously, the described embodiments are merely one embodiment of this utility model, and not all embodiments. Based on this embodiment, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model. Specific embodiments are as follows:

[0024] A water quality monitoring device for environmental protection, such as Figures 1-6 The device includes a floating base 1, a detection device body 2 disposed on the top of the surface of the floating base 1, and a sampling tube 3 disposed on the surface of the detection device body 2. The floating base 1, the detection device body 2 and the sampling tube 3 are combined to form the detection device body. Several sets of buoyancy enhancement modules 4 are disposed on the side of the floating base 1, and the several sets of buoyancy enhancement modules 4 work together to surround the floating base 1.

[0025] Several sets of buoyancy-enhancing modules 4 connected to the side of the floating base 1 work together to uniformly increase the surface area of ​​the detection device body, thereby improving the floating stability of the detection device body.

[0026] The buoyancy enhancement module 4 includes a limiting ring 41, several sets of slots 42, retaining rings 43, several sets of connecting plates 44, and a floating plate 45. The limiting ring 41 is disposed on one side of the surface of the floating base 1. Several sets of slots 42 are equally spaced on the surface of the limiting ring 41. The retaining rings 43 are engaged inside the limiting ring 41. Several sets of connecting plates 44 are disposed on the surface of the retaining rings 43. The number of connecting plates 44 is the same as the number of slots 42. Each set of connecting plates 44 is engaged in a corresponding set of slots 42. The ends of the sets of connecting plates 44 are provided with floating plates 45. In use, the floating plate 45 is perpendicular to the floating base 1, and the retaining rings 43 are placed at the opening of the limiting ring 41. At the same time, each set of connecting plates 44 is engaged with the corresponding slot 42. Alignment is achieved by locking the retaining ring 43 inside the limiting ring 41. The connecting plate 44, driven by the 53, enters the slot 42. The floating plate 45 is rotated, and the connecting plate 44 rotates synchronously under the drive of the floating plate 45 until the connecting plate 44 rotates to the bottom of the slot 42 and the floating plate 45 is in a horizontal state. Several sets of floating plates 45 are connected to the surface of the floating base 1 in sequence. The surface area of ​​the detection device body is increased by the cooperation of several sets of floating plates 45, thereby increasing the buoyancy of the detection device body and making the detection device body less prone to tipping over. This connection method allows for the quick installation of multiple sets of floating plates 45 when the detection device body is in use, reducing the area of ​​the detection device body during transportation and facilitating transportation by staff.

[0027] The outer sides of several sets of floating plates 45 are all set to be arc-shaped, and the several sets of floating plates 45 are combined to form a ring plate; setting the outer sides of the floating plates 45 to be arc-shaped can disperse the water flow, thereby effectively reducing the impact force and resistance of the water flow; the several sets of floating plates 45 are combined with the floating base 1 to form a circular base, so that the circular base is symmetrical in different directions, which can distribute the force more evenly, thereby improving the stability of the detection device body.

[0028] The bottom surface of the floating base 1 is provided with a protective module 5. The protective module 5 includes a protective cylinder 51 and several sets of wave-damping holes 52. The protective cylinder 51 is located at the edge of the surface of the floating base 1, and the several sets of wave-damping holes 52 are all opened on the surface of the protective cylinder 51. The protective cylinder 51 can protect the sampling tube 3 and prevent floating objects in the water from impacting the sampling tube 3 and thus damaging it. The several sets of wave-damping holes 52 work together to change the propagation path and direction of the waves, reduce the energy of the waves, thereby reducing the impact force of the waves on the detection device, and thus protecting the detection device.

[0029] The protective module 5 has several sets of cutting modules 6 on its surface. Each cutting module 6 includes a limiting plate 61, a mounting groove 62, a cutting blade 63, two sets of mounting plates 64, and two sets of locking blocks 65. The limiting plate 61 is located on one side of the protective cylinder 51. The mounting groove 62 is formed on the surface of the limiting plate 61 and extends vertically through it. The cutting blade 63 is locked inside the mounting groove 62. The two sets of mounting plates 64 are symmetrically arranged on both sides of the cutting blade 63. The two sets of locking blocks 65 are respectively located at the top of the two sets of mounting plates 64. The two sets of locking blocks 65 cooperate in a "V" shape, and each set of locking blocks 65 is elastic. In use, the cutting blade 63 is placed at the bottom of the limiting plate 61, aligning the cutting blade 63 with the end of the mounting groove 62, and the two sets of locking blocks 65 are pressed towards the center. The two ends of the blades are squeezed together and pushed into the mounting groove 62, pushing the cutting blade 63. The inner wall of the mounting groove 62 continuously squeezes the two sets of locking blocks 65 until the cutting blade 63 is completely inside the mounting groove 62. The two ends of the two sets of locking blocks 65 spring open to the sides until the two ends of the two sets of locking blocks 65 respectively abut against the top sides of the mounting groove 62. The two sets of locking blocks 65 cooperate to limit and fix the cutting blade 63. In this way, when water plants wrap around the surface of the protective cylinder 51, the detection device can automatically cut the water plants under the action of the water flow and through the cooperation of several sets of cutting blades 63, thereby avoiding the problem of water plants wrapping around and hindering the movement of the detection device. This structure makes it easy to replace the cutting blade 63 after it becomes dull, ensuring the cutting ability of the cutting blade 63 to cut water plants.

[0030] The inner wall of the mounting groove 62 is formed with a rectangular sliding groove, and the end of the cutting blade 63 is engaged in the rectangular sliding groove. The rectangular sliding groove and the end of the cutting blade 63 further limit the cutting blade 63, making the cutting blade 63 more stable when it is installed inside the mounting groove 62.

[0031] The sampling port of the sampling tube 3 is equipped with a protective ball 7, which is composed of several sets of annular protective strips. The protective ball 7 can protect the sampling tube 3 and prevent floating objects in the water from being sucked into the sampling tube 3 and thus clogging the sampling tube 3.

[0032] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A water quality monitoring device for environmental protection, comprising a floating base (1), a detection device body (2) disposed on the top surface of the floating base (1), and a sampling tube (3) disposed on the surface of the detection device body (2), wherein the floating base (1), the detection device body (2), and the sampling tube (3) are combined to form the detection device body, characterized in that: The side of the floating base (1) is provided with several sets of buoyancy enhancement modules (4), and the several sets of buoyancy enhancement modules (4) work together to surround the floating base (1) in a circle. Several sets of buoyancy-enhancing modules (4) connected to the side of the floating base (1) work together to uniformly increase the surface area of ​​the detection device body, thereby improving the stability of the floating of the detection device body.

2. The water quality monitoring device for environmental protection according to claim 1, characterized in that: The buoyancy enhancement module (4) includes a limiting ring (41), several sets of slots (42), a retaining ring (43), several sets of connecting plates (44), and a floating plate (45). The limiting ring (41) is disposed on one side of the surface of the floating base (1). Several sets of slots (42) are equally spaced on the surface of the limiting ring (41). The retaining ring (43) is engaged inside the limiting ring (41). Several sets of connecting plates (44) are disposed on the surface of the retaining ring (43). The number of connecting plates (44) is the same as the number of slots (42). Each set of connecting plates (44) is engaged in a corresponding slot (42). A floating plate (45) is disposed at the end of each set of connecting plates (44).

3. A water quality monitoring device for environmental protection according to claim 2, characterized in that: The outer sides of several sets of floating plates (45) are all set to be arc-shaped, and several sets of floating plates (45) are combined to form a ring plate.

4. A water quality monitoring device for environmental protection according to claim 1, characterized in that: The bottom surface of the floating base (1) is provided with a protective module (5). The protective module (5) includes a protective cylinder (51) and several sets of wave-damping holes (52). The protective cylinder (51) is located at the edge of the surface of the floating base (1), and the several sets of wave-damping holes (52) are all opened on the surface of the protective cylinder (51).

5. A water quality monitoring device for environmental protection according to claim 4, characterized in that: The protective module (5) has several sets of cutting modules (6) on its surface. The cutting module (6) includes a limiting plate (61), a mounting groove (62), a cutting blade (63), two sets of mounting plates (64), and two sets of locking blocks (65). The limiting plate (61) is located on one side of the surface of the protective cylinder (51). The mounting groove (62) is opened on the surface of the limiting plate (61) and vertically penetrates the limiting plate (61). The cutting blade (63) is locked inside the mounting groove (62). The two sets of mounting plates (64) are symmetrically arranged on both sides of the surface of the cutting blade (63). The two sets of locking blocks (65) are respectively located at the top of the two sets of mounting plates (64).

6. A water quality monitoring device for environmental protection according to claim 5, characterized in that: The inner wall of the mounting groove (62) is formed with a rectangular sliding groove, and the end of the cutting blade (63) is engaged in the rectangular sliding groove.

7. A water quality monitoring device for environmental protection according to claim 5, characterized in that: The two sets of blocks (65) are fitted together in a "V" shape, and each set of blocks (65) is elastic.

8. A water quality monitoring device for environmental protection according to claim 1, characterized in that: The sampling port of the sampling tube (3) is equipped with a protective ball (7), which is composed of several sets of annular protective strips.

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