A water platform monitoring device based on Beidou system

Abstract

The present invention discloses a water platform monitoring device based on the Beidou system, comprising a floating plate and a float arranged at the bottom of the floating plate for floating on the water surface. The upper end of the floating plate is provided with a layered collection mechanism, the layered collection mechanism comprising a through hole arranged in the middle of the floating plate, the through hole being vertically movably connected to an outer cylinder, the inner side of the outer cylinder being vertically sealed and movably connected to a sampling rod, the upper end of the floating plate being provided with a bracket located above the outer cylinder, and the upper end of the outer cylinder being provided with a fixing frame. The water platform monitoring device based on the Beidou system can collect water samples at different depths in a water body through the layered collection mechanism, and the detection mechanism and the guide groove component can respectively receive and detect the water samples collected by the layered collection mechanism, thereby facilitating the detection of water bodies at different depths, being easy to use, and improving efficiency.

Description

Technical Field

[0001] The present invention relates to the field of water quality monitoring, and in particular to a water platform monitoring device based on the Beidou system. Background Art

[0002] The application of the BeiDou satellite system in hydrological monitoring relies primarily on its navigation, positioning, and communication capabilities. The positioning services provided by the BeiDou satellite system enable the precise geographic location of hydrological monitoring points to be acquired in real time, providing the foundation for accurate subsequent data collection. Furthermore, the BeiDou satellite system's communication capabilities enable the remote transmission of real-time monitoring data to monitoring centers, enabling rapid data processing and analysis.

[0003] In terms of water quality monitoring, the BeiDou system, combined with sensors and other equipment, can monitor water quality in real time. These sensors detect changes in water quality parameters such as dissolved oxygen, pH, and turbidity, and transmit this data to a monitoring center. The monitoring center can leverage the data transmission services provided by the BeiDou satellite system to rapidly receive and process this monitoring data. Using data processing algorithms, the center can extract useful information, providing data support for water environment protection efforts.

[0004] Currently, when testing and collecting aquatic ecological samples, the detection platform floats on the surface of the water body, so it can only collect water samples from the surface layer. This makes it difficult to classify and detect water samples from different water layers. This has limitations, is inconvenient to use, and has relatively low detection efficiency. Therefore, it is necessary to propose a water platform monitoring device based on the Beidou system to solve the above problems. Summary of the Invention

[0005] The main purpose of the present invention is to provide a water platform monitoring device based on the Beidou system, which can effectively solve the problems in the background technology.

[0006] To achieve the above-mentioned object, the technical solution adopted by the present invention is as follows: a water platform monitoring device based on the Beidou system, comprising a floating plate and a floating body arranged at the bottom of the floating plate for floating on the water surface, the upper end of the floating plate is provided with a layered collection mechanism, the layered collection mechanism includes a through hole arranged in the middle of the floating plate, the through hole is vertically movably connected to an outer cylinder, the inner side of the outer cylinder is vertically sealed and movably connected to a sampling rod, the upper end of the floating plate is provided with a bracket located above the outer cylinder, the upper end of the outer cylinder is provided with a fixing frame, the top of the fixing frame is fixedly provided with a first linear motor for driving the sampling rod to rise and fall, the upper end of the bracket is provided with a third linear motor, and the output end of the third linear motor is fixedly connected to the upper end of the first linear motor, so that the third linear motor can drive the first linear motor, the fixing frame, the outer cylinder, and the sampling rod to rise and fall as a whole, the side wall of the sampling rod is provided with a plurality of sampling storage cavities along the height direction, and the outer cylinder is provided with a through groove corresponding to the sampling storage cavities.

[0007] Preferably, a blocking block is fixedly provided at the bottom of the outer cylinder, and a first spring is vertically provided between the top of the blocking block and the bottom of the outer cylinder.

[0008] Preferably, when the first spring is in the initial state, the multiple sampling storage cavities and the multiple through slots are in a staggered state, and at this time, the distances between the through slots and the corresponding sampling storage cavities increase successively from bottom to top, and it is configured that when one of the through slots matches the corresponding sampling storage cavity, the adjacent through slot above it is in a staggered state with the corresponding sampling storage cavity.

[0009] Preferably, a detection mechanism is provided at one end of the top of the floating plate, and the detection mechanism includes a sliding plate movably connected to one end of the top of the floating plate along the radial direction of the floating plate, and the upper end of the sliding plate is rotatably connected to the detection plate, and the top periphery of the detection plate is evenly provided with detection grooves with the same number as the sampling storage cavity, and the inside of the detection groove is provided with a sensor for detecting water quality, and a second linear motor for driving the sliding plate to move back and forth is provided at one end of the top of the floating plate, and a gear ring is fixedly provided on the outside of the detection plate, and a rack for intermittently meshing with the gear ring is provided at one end of the top of the floating plate.

[0010] Preferably, the side wall of the outer cylinder is provided with a notch which corresponds one-to-one with the through slot and is adapted to the detection disk, and the notch is spaced apart from the through slot.

[0011] Preferably, a sliding groove is provided on the sliding plate, a slider is slidingly connected to the inner side of the sliding groove, a sliding rod is provided on the inner side of the sliding groove, the slider is movably connected to the sliding rod, and the moving direction of the slider is perpendicular to the moving direction of the sliding plate, and the detection disk is rotatably connected to the top of the slider.

[0012] Preferably, a linear guide rail is provided at the corresponding position of the top of the floating plate and the sliding plate, and the sliding plate is movably guided and matched with the linear guide rail.

[0013] Preferably, a guide groove component is provided at the corresponding position of the top of the floating plate and the detection plate, and the guide groove component includes a pair of parallel straight guide grooves, and the ends of the two straight guide grooves are symmetrically provided with oblique guide grooves, and the oblique guide grooves at the ends of the two straight guide grooves are connected and form a "V" shape, the end of the oblique guide groove at one end of the straight guide groove is provided with a step, and the inner side of the oblique guide groove at the other end is provided with a slope, and the two steps at the ends of the two straight guide grooves are diagonally arranged, and the steps correspond to the slope, and a depression with a depth greater than that of the straight guide groove and the oblique guide groove is formed between the steps and the slope;

[0014] A groove is provided at the bottom of the slider, a guide column is movably connected to the inner side of the groove, a second spring is vertically provided between the top of the guide column and the top of the inner cavity of the groove, the lower end of the guide column is movably guided and connected to the straight guide groove and the oblique guide groove, and is configured so that when the gear ring is engaged with the rack, the guide column is located on the inner side of one of the straight guide grooves.

[0015] Preferably, a waste outlet corresponding to and communicating with the detection slots is provided at the bottom of the detection tray, and a solenoid valve is provided on the waste outlet.

[0016] Preferably, a propeller is provided at the bottom of the floating plate.

[0017] Compared with the existing technology, the present invention provides a water platform monitoring device based on the Beidou system, which has the following beneficial effects:

[0018] The Beidou system-based water platform monitoring device can collect water samples at different depths in the water body through the set layered collection mechanism. The detection mechanism and the guide groove component can respectively receive and detect the water samples collected by the layered collection mechanism, thereby facilitating the detection of water bodies at different depths, being easy to use and improving efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a structural schematic diagram of the present invention;

[0020] Figure 2 It is a structural schematic diagram of another perspective of the present invention;

[0021] Figure 3 This is a schematic structural diagram of the present invention with the bracket and the floating plate disassembled;

[0022] Figure 4 It is a schematic diagram of the overall structure of the third linear motor, the first linear motor, the outer cylinder, and the sampling rod of the present invention;

[0023] Figure 5 This is a schematic structural diagram of the present invention in which the sampling rod and the outer cylinder are disassembled;

[0024] Figure 6 This is a schematic diagram of the structure of the detection mechanism and the floating plate of the present invention in a disassembled state;

[0025] Figure 7 This is a schematic structural diagram of the present invention in which the detection plate and the sliding plate are disassembled;

[0026] Figure 8 This invention Figure 7 A structural diagram from another perspective based on the above;

[0027] Figure 9 It is a schematic diagram of the cross-sectional structure of the slider of the present invention;

[0028] Figure 10 It is a structural schematic diagram of the guide groove component of the present invention.

[0029] In the figure: 1. floating plate; 2. bracket; 3. propeller; 4. outer cylinder; 5. first linear motor; 6. detection plate; 7. second linear motor; 8. floating body; 9. third linear motor; 10. through hole; 11. fixing frame; 12. sampling rod; 13. through groove; 14. blocking block; 15. first spring; 16. sampling storage chamber; 17. notch; 18. straight guide groove; 19. rack; 20. sliding plate; 21. linear guide rail; 22. slide groove; 23. slide rod; 24. slider; 25. detection groove; 26. gear ring; 27. sensor; 28. waste outlet; 29. ​​guide column; 30. inclined guide groove; 31. step; 32. slope; 33. groove; 34. second spring. DETAILED DESCRIPTION

[0030] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.

[0031] like Figure 1-10 As shown, a water platform monitoring device based on the Beidou system includes a floating plate 1 and a floating body 8 arranged at the bottom of the floating plate 1 for floating on the water surface. The upper end of the floating plate 1 is provided with a layered collection mechanism, which includes a through hole 10 arranged in the middle of the floating plate 1. The through hole 10 is vertically movably connected to an outer cylinder 4. The inner side of the outer cylinder 4 is vertically sealed and movably connected to a sampling rod 12. The upper end of the floating plate 1 is provided with a bracket 2 located above the outer cylinder 4. The upper end of the outer cylinder 4 is provided with a fixing frame 11. The fixing frame 11 A first linear motor 5 for driving the sampling rod 12 to rise and fall is fixedly provided on the top of the bracket 2, and a third linear motor 9 is provided on the upper end of the bracket 2, and the output end of the third linear motor 9 is fixedly connected to the upper end of the first linear motor 5, so that the third linear motor 9 can drive the overall rise and fall of the first linear motor 5, the fixed bracket 11, the outer cylinder 4, and the sampling rod 12. A plurality of sampling storage cavities 16 are provided on the side wall of the sampling rod 12 along the height direction, and a through groove 13 corresponding to the sampling storage cavities 16 is provided on the outer cylinder 4.

[0032] In order to increase the stability of the sampling rod 12 , a blocking block 14 is fixedly provided at the bottom of the outer cylinder 4 , and a first spring 15 is vertically provided between the top of the blocking block 14 and the bottom of the outer cylinder 4 .

[0033] In order to achieve sequential sampling and subsequent sequential liquid discharge, it is configured that when the first spring 15 is in the initial state, the multiple sampling storage cavities 16 and the multiple through slots 13 are in a staggered state, and at this time, the distances from the through slots 13 to the corresponding sampling storage cavities 16 increase successively from bottom to top, and it is configured that when one of the through slots 13 coincides with the corresponding sampling storage cavity 16, the adjacent through slot 13 above it is in a staggered state with the corresponding sampling storage cavity 16.

[0034] One end of the top of the floating plate 1 is provided with a detection mechanism, which includes a sliding plate 20 movably connected to one end of the top of the floating plate 1 along the radial direction of the floating plate 1. Specifically, a linear guide rail 21 is provided at the corresponding position of the top of the floating plate 1 and the sliding plate 20. The sliding plate 20 and the linear guide rail 21 are movably guided and matched. The upper end of the sliding plate 20 is rotatably connected to the detection plate 6. The top periphery of the detection plate 6 is evenly provided with a number of detection slots 25 that is the same as the sampling storage cavity 16. A sensor 27 for detecting water quality is provided inside the detection slot 25. One end of the top of the floating plate 1 is provided with a A second linear motor 7 is provided for driving the sliding plate 20 to move back and forth. A gear ring 26 is fixedly provided on the outer side of the detection disk 6. A rack 19 for intermittently engaging with the gear ring 26 is provided at one end of the top of the floating disk 1. The side wall of the outer cylinder 4 is provided with a notch 17 corresponding to the through groove 13 and adapted to the detection disk 6, and the notch 17 is spaced apart from the through groove 13. A slide groove 22 is provided on the sliding plate 20, and a slider 24 is slidably connected to the inner side of the slide groove 22. A slide rod 23 is provided on the inner side of the slide groove 22. The slider 24 is movably connected to the slide rod 23, and the movable slider 24 The moving direction is perpendicular to the moving direction of the sliding plate 20. The detection disk 6 is rotatably connected to the top of the slider 24. A guide groove component is provided at the top of the floating plate 1 and the corresponding position of the detection disk 6. The guide groove component includes a pair of parallel straight guide grooves 18. The ends of the two straight guide grooves 18 are symmetrically provided with oblique guide grooves 30, and the oblique guide grooves 30 at the ends of the two straight guide grooves 18 are connected and form a "V" shape. The end of the oblique guide groove 30 at one end of the straight guide groove 18 is provided with a step 31, and the inner side of the oblique guide groove 30 at the other end is provided with a slope 32, and the two ends of the two straight guide grooves 18 are symmetrically provided with oblique guide grooves 30. The steps 31 are arranged diagonally, and the steps 31 correspond to the slope 32, and a depression with a depth greater than the straight guide groove 18 and the oblique guide groove 30 is formed between the steps 31 and the slope 32. A groove 33 is provided at the bottom of the slider 24, and a guide column 29 is movably connected to the inner side of the groove 33. A second spring 34 is vertically provided between the top of the guide column 29 and the top of the inner cavity of the groove 33. The lower end of the guide column 29 is movably guided and connected to the straight guide groove 18 and the oblique guide groove 30, and is configured so that when the ring gear 26 is engaged with the rack 19, the guide column 29 is located on the inner side of one of the straight guide grooves 18.

[0035] In order to facilitate the discharge of waste liquid after testing, a waste outlet 28 corresponding to and communicating with the testing slots 25 is provided at the bottom of the testing tray 6 , and a solenoid valve is provided on the waste outlet 28 .

[0036] In order to realize the movement of the floating plate 1, a propeller 3 is provided at the bottom of the floating plate 1. The propeller 3 is a conventional technical means and will not be described in detail.

[0037] When in use, the propeller 3 can move the device to the specified position, and then control the third linear motor 9 to drive the first linear motor 5, the outer cylinder 4, the sampling rod 12, and the fixing frame 11 to move downward as a whole, and stop when it moves downward to the appropriate displacement. Then the first linear motor 5 drives the sampling rod 12 to move downward alone, and then the first spring 15 is compressed. The reverse force generated by the first spring 15 can increase the stability of the sampling rod 12, and then the lowest sampling storage chamber 16 first matches the lowest through groove 13, and then the water sample at this depth enters the lowest sampling storage chamber 16. As the sampling rod 12 moves downward, the subsequent sampling storage chambers 16 match the corresponding through grooves 13 in turn, and then the water samples enter the sampling storage chambers 16 in turn, and then the first linear motor 5 drives the sampling rod 12 to move downward alone, and then the first spring 15 is compressed. The reverse force generated by the first spring 15 can increase the stability of the sampling rod 12, and then the lowest sampling storage chamber 16 first matches the lowest through groove 13, and then the water sample at this depth enters the lowest sampling storage chamber 16. The motor 5 continues to drive the sampling rod 12 to move downward until the uppermost sampling storage chamber 16 is displaced to the bottom of the uppermost through slot 13, thereby being offset from the through slot 13. At this time, the sampling storage chamber 16 is blocked, and then the third linear motor 9 drives the sampling rod 12 and the outer cylinder 4 to move upward as a whole, and then controls the second linear motor 7 to drive the sliding plate 20 to move back and forth. When the sliding plate 20 moves toward the through hole 10, the guide post 29 moves in a straight guide groove 18 close to the rack 19. At this time, the gear ring 26 engages with the rack 19, so that the detection disk 6 rotates, and then the guide post 29 enters the oblique guide groove 30. When the guide post 29 coincides with the depression between the step 31 and the slope 32, the second spring 34 resets, and the guide post 29 falls into the depression. At this time, the detection disk 6 One end is just located in the notch 17, and at this time one of the detection slots 25 just corresponds to the uppermost through slot 13, and then the first linear motor 5 drives the sampling rod 12 to move upward, and the uppermost sampling storage chamber 16 first matches the uppermost through slot 13, and then the water sample flows into the detection slot 25 through the through slot 13, and is then detected by the sensor 27, and then the second linear motor 7 drives the sliding plate 20 to reset, and the guide post 29 passes through the inclined guide slot 30 into the straight guide slot 18 on the side away from the rack 19 under the restriction of the step 31 and the guidance of the slope 32, and then the second spring 34 is reset, and the gear ring 26 is separated from the rack 19. When the guide post 29 reaches the recess away from one end of the through hole 10, the guide post 29 continues to fall, and then the third linear motor The machine 9 continues to drive the outer cylinder 4 and the sampling rod 12 to move upward as a whole until the recess 17 below corresponds to the detection disk 6 again. Then, the second linear motor 7 continues to drive the sliding plate 20 to move toward the through hole 10. Under the restriction of the step 31 and the guidance of the slope 32, the guide post 29 enters the straight guide groove 18 near the side of the rack 19 again. At this time, the ring gear 26 engages with the rack 19 again, so that the detection disk 6 rotates. When it reaches the depression near the through hole 10, one end of the detection disk 6 just corresponds to the recess 17, and the detection groove 25 just corresponds to the through groove 13. Then, the first linear motor 5 is continued to be controlled to drive the sampling rod 12 to move upward, so that the water sample in the sampling storage chamber 16 below flows down. The cycle can realize the detection of water samples at different depths.

[0038] It should be noted that, since the distance between the sampling storage chamber 16 and the corresponding through groove 13 gradually increases from bottom to top, when the sampling rod 12 moves downward, the lowest sampling storage chamber 16 first matches the lowest through groove 13, and when the sampling rod 12 rises, the uppermost sampling storage chamber 16 matches the uppermost through groove 13. Therefore, when sampling, the deepest water sample first enters the lowest sampling storage chamber 16, and when testing, the shallowest water sample first flows into the testing groove 25 for testing.

[0039] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A water platform monitoring device based on the Beidou system, comprising a floating plate (1) and a floating body (8) arranged at the bottom of the floating plate (1) for floating on the water surface, characterized in that: The upper end of the floating plate (1) is provided with a layered collection mechanism, and the layered collection mechanism includes a through hole (10) provided in the middle of the floating plate (1), the through hole (10) is vertically movably connected to the outer cylinder (4), the inner side of the outer cylinder (4) is vertically sealed and movably connected to the sampling rod (12), the upper end of the floating plate (1) is provided with a bracket (2) located above the outer cylinder (4), the upper end of the outer cylinder (4) is provided with a fixing frame (11), the top of the fixing frame (11) is fixedly provided with a first linear motor (5) for driving the sampling rod (12) to rise and fall, the upper end of the bracket (2) is provided with a third linear motor (9), and the output end of the third linear motor (9) is fixedly connected to the upper end of the first linear motor (5), so that the third linear motor (9) can drive the first linear motor (5), the fixing frame (11), the outer cylinder (4), and the sampling rod (12) to rise and fall as a whole, and the side wall of the sampling rod (12) is along the A plurality of sampling storage cavities (16) are provided in the height direction, and a through groove (13) corresponding to the sampling storage cavities (16) is provided on the outer cylinder (4); a detection mechanism is provided at one end of the top of the floating disc (1), and the detection mechanism includes a sliding plate (20) movably connected to one end of the top of the floating disc (1) along the radial direction of the floating disc (1), and the upper end of the sliding plate (20) is rotatably connected to the detection disc (6), and the top periphery of the detection disc (6) is evenly provided with the same number of detection grooves (25) as the sampling storage cavities (16), and the inner side of the detection groove (25) is provided with a sensor (27) for detecting water quality, and a second linear motor (7) for driving the sliding plate (20) to move back and forth is provided at one end of the top of the floating disc (1), a gear ring (26) is fixedly provided on the outer side of the detection disc (6), and a rack (19) for intermittently meshing with the gear ring (26) is provided at one end of the top of the floating disc (1).

2. The Beidou system-based water platform monitoring device according to claim 1, characterized in that: A blocking block (14) is fixedly provided at the bottom of the outer cylinder (4), and a first spring (15) is vertically provided between the top of the blocking block (14) and the bottom of the outer cylinder (4).

3. The Beidou system-based water platform monitoring device according to claim 2, characterized in that: When the first spring (15) is in an initial state, the plurality of sampling storage cavities (16) and the plurality of through slots (13) are in a staggered state, and at this time, the distances from the through slots (13) to the corresponding sampling storage cavities (16) increase from bottom to top, and the configuration is such that when one of the through slots (13) coincides with the corresponding sampling storage cavity (16), the adjacent through slot (13) above it is in a staggered state with the corresponding sampling storage cavity (16).

4. The Beidou system-based water platform monitoring device according to claim 1, characterized in that: The side wall of the outer cylinder (4) is provided with a notch (17) corresponding one-to-one to the through slot (13) and adapted to the detection disk (6), and the notch (17) and the through slot (13) are spaced apart.

5. The Beidou system-based water platform monitoring device according to claim 1, characterized in that: The sliding plate (20) is provided with a sliding groove (22), the inner side of the sliding groove (22) is slidably connected to a slider (24), the inner side of the sliding groove (22) is provided with a sliding rod (23), the slider (24) is movably connected to the sliding rod (23), and the moving direction of the slider (24) is perpendicular to the moving direction of the sliding plate (20), and the detection disk (6) is rotatably connected to the top of the slider (24).

6. The Beidou system-based water platform monitoring device according to claim 1, characterized in that: A linear guide rail (21) is provided at the top of the floating plate (1) corresponding to the sliding plate (20), and the sliding plate (20) and the linear guide rail (21) are movably guided and matched.

7. The Beidou system-based water platform monitoring device according to claim 5, characterized in that: A guide groove component is provided at the corresponding position of the top of the floating plate (1) and the detection plate (6), and the guide groove component includes a pair of parallel straight guide grooves (18), and the ends of the two straight guide grooves (18) are symmetrically provided with oblique guide grooves (30), and the oblique guide grooves (30) at the ends of the two straight guide grooves (18) are connected and form a "V" shape, and the end of the oblique guide groove (30) at one end of the straight guide groove (18) is provided with a step (31), and the inner side of the oblique guide groove (30) at the other end is provided with a slope (32), and the two steps (31) at the ends of the two straight guide grooves (18) are diagonally provided, and the steps (31) correspond to the slope (32), and a depression with a depth greater than that of the straight guide groove (18) and the oblique guide groove (30) is formed between the steps (31) and the slope (32); A groove (33) is provided at the bottom of the slider (24), and a guide column (29) is movably connected to the inner side of the groove (33). A second spring (34) is vertically provided between the top of the guide column (29) and the top of the inner cavity of the groove (33). The lower end of the guide column (29) is movably connected to the straight guide groove (18) and the oblique guide groove (30), and is configured so that when the gear ring (26) is engaged with the rack (19), the guide column (29) is located on the inner side of one of the straight guide grooves (18).

8. The Beidou system-based water platform monitoring device according to claim 7, characterized in that: The bottom of the detection disk (6) is provided with a waste outlet (28) corresponding to and communicating with the detection slot (25), and a solenoid valve is provided on the waste outlet (28).

9. The Beidou system-based water platform monitoring device according to claim 1, characterized in that: A propeller (3) is provided at the bottom of the floating plate (1).

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