A river flow monitoring device and monitoring method for water conservancy projects

Abstract

The present invention relates to the technical field of water conservancy projects, and specifically relates to a river flow monitoring device and monitoring method for water conservancy projects, including a first monitoring and adjusting main body, a second monitoring and adjusting main body, a fixedly installed support frame, and movable adjusting arms, with the movable adjusting arms symmetrically arranged. In the present invention, the rotor-type current meters in the first monitoring unit, the second monitoring unit, and the third monitoring unit can be evenly distributed in the river channel, enabling sufficient detection of the water flow at different positions in the river channel. Moreover, the multi-point detection is carried out synchronously, resulting in a larger detection range and more accurate detection results. By combining the width and depth of the detection area, the flow rate of the river channel can be conveniently calculated. Additionally, when using the rotor-type current meter to insert into the water flow for detection, the water flow radar speedometer arranged at the bottom of the fixed support cross plate can perform auxiliary non-contact detection. The two detection modes are carried out synchronously, making the detection and monitoring results more accurate.

Description

Technical Field

[0001] The invention relates to the technical field of water conservancy engineering, in particular to a river flow monitoring device and a monitoring method for water conservancy engineering. Background Art

[0002] In water conservancy projects, it is crucial to accurately obtain information such as river water level, flow rate and flow. However, it is inconvenient to monitor river flow, the monitoring error is large, and traditional monitoring methods often have problems such as insufficient accuracy, complex operation, inconvenient installation and use, and difficult maintenance. They cannot meet the needs of modern water conservancy projects for data accuracy and real-time performance. In addition, the existing water conservancy project river flow monitoring devices have a single monitoring method and cannot selectively perform timed or real-time monitoring according to monitoring needs, making monitoring inconvenient and easily causing untimely monitoring, which has a serious impact on the safety and construction period of the entire water conservancy project. Therefore, a device and a detection method are needed to solve the above-mentioned problems. Summary of the invention

[0003] In view of the problems in the prior art, the present invention provides a river flow monitoring device and a monitoring method for water conservancy projects.

[0004] The technical solution adopted by the present invention to solve its technical problem is: a river flow monitoring device and monitoring method for water conservancy projects, including a first monitoring and regulating body, a second monitoring and regulating body, a fixed mounting support frame and a movable regulating arm, the movable regulating arm is symmetrically arranged, and the two movable regulating arms are slidably arranged on the fixed mounting support frame, the first monitoring and regulating body and the second monitoring and regulating body are respectively arranged on the two movable regulating arms, and the first monitoring and regulating body and the second monitoring and regulating body have the same structure, the movable regulating arm includes a rotating limit regulating plate, a first electric push rod, a first motor, a first movable track cross plate, a second electric push rod, a first electric push rod, a first electric push rod, a first electric push rod, a second ... Push rod and sliding adjustment card plate, the second electric push rod is symmetrically fixedly installed on the outer end of the first moving track cross plate, the sliding adjustment card plate is symmetrically slidably clamped in the inside of the first moving track cross plate, and the front ends of the two second electric push rods are respectively fixedly connected to the outer ends of the two sliding adjustment card plates, the rotation limit adjustment plate is rotatably connected to the side end of the sliding adjustment card plate away from the first moving track cross plate, the first motor is fixedly installed at the bottom end of the sliding adjustment card plate, and the driving end of the first motor is fixedly connected to the rotation limit adjustment plate, and the first electric push rod is symmetrically fixedly installed on the side end of the rotation limit adjustment plate.

[0005] Preferably, the first monitoring and adjusting body and the second monitoring and adjusting body both include a setting monitoring mechanism, and the setting monitoring mechanism includes a fixed setting device, a first monitoring device and a second monitoring device, the first monitoring device and the second monitoring device are arranged at the bottom end of the fixed setting device, and the first monitoring device and the second monitoring device have the same structure.

[0006] Preferably, the fixed mounting device includes a fixed plug-in column, a third electric push rod, a limit mounting frame, a limit plug-in hole, an auxiliary fixed mounting hole, a conical fixed plug-in column, a sliding support adjustment arm and a fourth electric push rod, the sliding support adjustment arm is fixedly connected to one end of the limit mounting frame, the fixed plug-in column is symmetrically slidably plugged into the inside of one end of the limit mounting frame away from the sliding support adjustment arm, the fourth electric push rod is fixedly mounted on the inner sides of both ends of the limit mounting frame, and the telescopic end of the fourth electric push rod is inserted through the limit mounting frame, the conical fixed plug-in column is fixedly connected to the bottom end of the fourth electric push rod, the third electric push rod is evenly fixedly mounted on the bottom ends of both sides of the limit mounting frame, the limit plug-in holes are symmetrically penetrated through the two sides of the limit mounting frame, and the auxiliary fixed mounting holes are evenly penetrated through the two ends of the limit mounting frame.

[0007] Preferably, the second monitoring device includes an adjusting part, a first monitoring part, a second monitoring part and a third monitoring part, the first monitoring part, the second monitoring part and the third monitoring part are evenly distributed, and the first monitoring part, the second monitoring part and the third monitoring part are arranged on the inner side of the adjusting part, and the first monitoring part, the second monitoring part and the third monitoring part have the same structure.

[0008] Preferably, the adjusting part includes a limit guide column, a fixedly connected cross plate, a limit adjustment frame, a second movable track cross plate, a fifth electric push rod, a first movable adjustment card plate, a first movable adjustment tooth plate, a rotation adjustment tooth plate, a mounting plate, a second motor, a second movable adjustment tooth plate and a second movable adjustment card plate, the fixedly connected cross plate is fixedly connected to the outer side of the upper end of the limit adjustment frame, the limit guide column is evenly fixedly mounted on the fixedly connected cross plate by bolts, the second movable track cross plate is slidably clamped on the limit adjustment frame, the fifth electric push rod is evenly fixedly mounted inside the bottom end of the limit adjustment frame, and the upper end of the fifth electric push rod is fixedly connected to the bottom end of the second movable track cross plate, and the mounting plate is fixedly mounted on the middle outer end of the second movable track cross plate. , the second motor is fixedly mounted on the mounting disk, the first movable adjustment card plate and the second movable adjustment card plate are slidably clamped on the second movable track cross plate, the first movable adjustment tooth plate is fixedly connected to the first movable adjustment card plate, the second movable adjustment tooth plate is fixedly connected to the second movable adjustment card plate, and the second movable adjustment card plate is located on the outer side of the first movable adjustment tooth plate, the rotation adjustment gear plate is rotatably mounted on the bottom end of the mounting disk, the driving end of the second motor is fixedly connected to the middle part of the rotation adjustment gear plate, and the rotation adjustment gear plate is distributed between the first movable adjustment gear plate and the second movable adjustment gear plate, and the side ends of the rotation adjustment gear plate are respectively meshed with the first movable adjustment gear plate and the second movable adjustment gear plate.

[0009] Preferably, a distance measuring detection disk is fixedly installed at the end of the first movable adjustment tooth plate away from the first movable adjustment card plate, a laser distance measuring sensor is fixedly installed at the connection between the second movable adjustment tooth plate and the second movable adjustment card plate, and the distance measuring detection disk is located directly in front of the laser distance measuring sensor.

[0010] Preferably, the first monitoring unit, the second monitoring unit and the third monitoring unit all include a fixed support cross plate, a rotor type flow meter, a second disassembly and mounting plate and a sixth electric push rod, the sixth electric push rod is fixedly mounted at the front end of the fixed support cross plate, and the front end of the sixth electric push rod passes through the fixed support cross plate, and the rotor type flow meter is fixedly connected to the bottom end of the sixth electric push rod through the second disassembly and mounting plate and bolts.

[0011] Preferably, the sliding support adjusting arm is slidably clamped inside the rotating limit adjusting plate, and the driving end of the first electric push rod is fixedly connected to the sliding support adjusting arm. The bottom end of the third electric push rod is fixedly connected to the upper end of the limit adjusting frame. The limit guiding column is slidably clamped inside the limit insertion hole. The fixed support cross plates in the first monitoring part and the third monitoring part are respectively fixedly connected to the second moving adjusting tooth plate and the first moving adjusting tooth plate. The fixed support cross plate in the second monitoring part is fixedly connected to the middle bottom of the second moving track cross plate.

[0012] Preferably, first dismounting and mounting discs are fixedly installed at the bottom ends of the fixed support cross plates in the first monitoring part, the second monitoring part and the third monitoring part. A water flow radar speed detector is fixedly installed at the bottom end of the first dismounting and mounting disc through a second fixed mounting bolt. A protective partition board is fixedly connected to the limit mounting frame through a first fixed mounting bolt. Support legs are symmetrically and fixedly installed at the bottom ends on both sides of the protective partition board. The bottom ends of the support legs are located at the upper end of the limit mounting frame.

[0013] A monitoring method for a river flow monitoring device used in a water conservancy project includes the following steps:

[0014] S1. After selecting a suitable and safe detection position, first connect the fixed installation support frame to an external erection fixing device through the fixing holes opened on the fixed installation support frame, so that the device can be stably erected at the edge position of the river. After the erection is completed, start the second electric push rods symmetrically arranged in the moving adjusting arm. Through the second electric push rods, the two sliding adjusting clamping plates can slide along the inside of the first moving track cross plate, so as to indirectly adjust and control the detection and use positions of the first monitoring and adjusting main body and the second monitoring and adjusting main body. Then start the first electric push rod. Through the first electric push rod, the sliding support adjusting arm can be driven to slide outwards along the inside of the rotating limit adjusting plate, so that the erection monitoring mechanisms in the first monitoring and adjusting main body and the second monitoring and adjusting main body move to the middle position of the river water flow.

[0015] S2. When the detection position of the erection monitoring mechanism is determined, drive the conical fixed insertion column to move downwards through the fourth electric push rod and insert it into the soil at the bottom of the river to play a fixing role. And by means of the auxiliary fixed installation holes opened, the plugging column for fixing can be inserted into the auxiliary fixed installation holes and then into the soil at the bottom of the river, so that the limit installation frame can be stably erected. And the limit installation frame can be assisted to be fixed through the fixed plugging column, so that the device is safe and stable when detecting areas with large water flow velocities.

[0016] S3. After the fixed installation, according to the monitoring needs, start the first monitoring devices and the second motors in the second monitoring devices in the first monitoring adjustment body and the second monitoring adjustment body synchronously. The second motor can drive the rotation adjustment gear disk to rotate forward and backward. The rotation adjustment gear disk rotating forward and backward drives the first moving adjustment gear plates and the second moving adjustment gear plates on both sides to move in opposite directions, thereby driving the first moving adjustment clamping plates and the second moving adjustment clamping plates to slide along the second moving track cross plate towards the outer end of the second moving track cross plate, so that the first monitoring part, the second monitoring part and the third monitoring part for detection can be evenly and equidistantly distributed. After the detection positions and spacings of the first monitoring part, the second monitoring part and the third monitoring part are adjusted, start the sixth electric push rods in the first monitoring part, the second monitoring part and the third monitoring part. The sixth electric push rods drive the rotor type flow velocity meter arranged at the bottom to insert into the water flow inside the river to detect the water flow velocity in the river, and the depth of the rotor type flow velocity meter inserted into the water flow can be adjusted and controlled in real time through the sixth electric push rods. And the second moving track cross plate can be controlled to lift along the limit adjustment frame through the fifth electric push rod, indirectly enabling full adjustment of the area where the rotor type flow velocity meter is detected, ensuring that the rotor type flow velocity meter can fully detect and monitor the water flow velocity at different depth positions in the river. And the rotor type flow velocity meters in the first monitoring part, the second monitoring part and the third monitoring part can be evenly distributed in the river, and can fully detect the water flow at different positions in the river, and enable synchronous detection at multiple points. The first motor can drive the rotation limit adjustment plate to swing, so that the first monitoring adjustment body and the second monitoring adjustment body for detection can be adjusted in real time during the detection process, making the detection range larger and the detection result more accurate. Combining the width and depth of the detection area, the flow rate of the river can be conveniently calculated;

[0017] S4. After the regular monitoring and detection are completed, the rotor type flow velocity meter can be fully lifted and reset through the fifth electric push rod, the third electric push rod and the sixth electric push rod. When detection is needed, the rotor type flow velocity meter can be inserted into the water flow for detection in real time. And when used outdoors for a long time, the protective partition board arranged can play a role in blocking and protecting the first monitoring devices and the second monitoring devices in the first monitoring adjustment body and the second monitoring adjustment body, enabling the device to be used stably outdoors for a long time. And when the rotor type flow velocity meter is inserted into the water flow for detection, the water flow radar speedometer arranged at the bottom of the fixed support cross plate can perform auxiliary non-contact detection, and the two detection modes are carried out synchronously, making the detection and monitoring results more accurate.

[0018] Advantages of the present invention:

[0019] 1. The first monitoring unit, the second monitoring unit, and the third monitoring unit for detection in the present invention can be evenly and equidistantly distributed. Start the sixth electric push rod in the first monitoring unit, the second monitoring unit, and the third monitoring unit. Drive the rotor flowmeter insertion device arranged at the bottom through the sixth electric push rod to insert it into the interior of the water flow, detect the speed of the water flow in the river channel, and the depth of the rotor flowmeter inserted into the water flow can be adjusted and controlled in real time through the sixth electric push rod. The second moving track cross plate can be controlled to lift along the limit adjustment frame through the fifth electric push rod, indirectly enabling full adjustment of the detection area of the rotor flowmeter, ensuring that the rotor flowmeter can fully detect and monitor the flow velocity at different depth positions of the water flow in the river channel. Moreover, the rotor flowmeters in the first monitoring unit, the second monitoring unit, and the third monitoring unit can be evenly distributed in the river channel, fully detecting the water flow at different positions in the river channel, enabling synchronous detection at multiple points, making the detection range larger and the detection results more accurate. Combining the width and depth of the detection area, the flow rate of the river channel can be conveniently calculated. When using the rotor flowmeter to insert into the water flow for detection, the water flow radar speedometer arranged at the bottom of the fixed support cross plate can perform auxiliary non-contact detection, and the two detection modes are carried out synchronously, making the detection and monitoring results more accurate.

[0020] 2. During the use of the present invention, the erection, installation, and adjustment are convenient. The position area and angle of the first monitoring and adjustment main body and the second monitoring and adjustment main body can be indirectly adjusted and controlled through the arranged moving adjustment arm, and the adjustment is convenient, time-saving, and labor-saving. When monitoring without contact with the water flow, the water flow radar speedometer works based on the Doppler effect principle, emitting a beam of radar waves. When these beams irradiate the water surface, scatterers in the water body such as water droplets and bubbles will reflect the radar waves, generating echo waves. Due to the relative motion between the scatterers in the water flow and the radar, the frequency of the echo waves will shift, that is, the Doppler frequency shift. By analyzing this frequency shift, the flow velocity of the water flow can be calculated. The water flow radar speedometer can monitor the water flow velocity in real time and continuously, providing timely and accurate data support. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] The present invention will be further described below in conjunction with the drawings and embodiments.

[0022] Figure 1 It is a schematic perspective side view of the main body of the present invention;

[0023] Figure 2 It is a schematic diagram of the structure of the first monitoring and adjustment main body of the present invention;

[0024] Figure 3 It is a combined schematic diagram of the first moving track cross plate and the sliding adjustment clamping plate in the present invention;

[0025] Figure 4Schematic diagram of the bottom structure of the support leg in the present invention;

[0026] Figure 5 Schematic diagram of the structure of the fixed erection device in the present invention;

[0027] Figure 6 Overall schematic diagram of the fixed erection device in the present invention;

[0028] Figure 7 Schematic diagram of the second monitoring device in the present invention;

[0029] Figure 8 Schematic diagram of the structure of the adjustment part in the present invention;

[0030] Figure 9 Overall structure schematic diagram of the adjustment part in the invention;

[0031] Figure 10 Schematic diagram of the structure of the first monitoring part in the invention.

[0032] In the figure: 1 - First monitoring and adjustment main body, 2 - Second monitoring and adjustment main body, 3 - Fixed installation support frame, 4 - Moving adjustment arm, 5 - Rotating limit adjustment plate, 6 - First electric push rod, 7 - First motor, 8 - First moving track cross plate, 9 - Second electric push rod, 10 - Sliding adjustment clamping plate, 11 - Support leg, 12 - Protective partition board, 13 - First fixed installation bolt, 14 - Erection monitoring mechanism, 15 - Fixed erection device, 16 - First monitoring device, 17 - Second monitoring device, 18 - Fixed insertion column, 19 - Third electric push rod, 20 - Limit installation frame, 21 - Limit insertion hole, 22 - Auxiliary fixed installation hole, 23 - Conical fixed insertion column, 24 - Sliding support adjustment arm, 25 - Fourth electric push rod, 26 - Adjustment part, 27 - First monitoring part, 28 - Second monitoring part, 29 - Third monitoring part, 30 - Limit guiding column, 31 - Fixed connection cross plate, 32 - Limit adjustment frame, 33 - Second moving track cross plate, 34 - Fifth electric push rod, 35 - First moving adjustment clamping plate, 36 - First moving adjustment tooth plate, 37 - Rotating adjustment tooth disc, 38 - Installation disc, 39 - Second motor, 40 - Second moving adjustment tooth plate, 41 - Distance measuring detection disc, 42 - Laser distance measuring sensor, 43 - Second moving adjustment clamping plate, 44 - Fixed support cross plate, 45 - Second fixed installation bolt, 46 - First disassembly and installation disc, 47 - Water flow radar speedometer, 48 - Rotor type flow velocity meter, 49 - Second disassembly and installation disc, 50 - Sixth electric push rod. Detailed implementation manners

[0033] To enable those skilled in the art to better understand the solution of this application, the following will clearly and completely describe the technical solution in the embodiments of this application in conjunction with the accompanying drawings in the embodiments of this application. Obviously, the described embodiments are only a part of the embodiments of this application, rather than all the embodiments. Based on the embodiments in this application, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of this application.

[0034] It should be noted that the terms "first", "second", etc. in the specification and claims of this application and the above-mentioned accompanying drawings are used to distinguish similar objects, and do not necessarily need to be used to describe a specific order or sequence. It should be understood that such data can be interchanged under appropriate circumstances for the embodiments of this application described herein. In addition, the terms "comprising" and "having" and any variations thereof are intended to cover non-exclusive inclusion. For example, a process, method, system, product or device comprising a series of steps or units does not necessarily have to be limited to those steps or units clearly listed, but may include other steps or units not clearly listed or inherent to these processes, methods, products or devices.

[0035] The following further illustrates the present invention in conjunction with the accompanying drawings. Embodiment

[0036] Such as Figure 1 、 Figure 2 And Figure 3As shown in the figure, a river flow monitoring device and monitoring method for water conservancy projects according to the present invention include a first monitoring and adjusting main body 1, a second monitoring and adjusting main body 2, a fixedly installed support frame 3, and a moving and adjusting arm 4. The moving and adjusting arms 4 are symmetrically arranged, and the two moving and adjusting arms 4 are slidably arranged on the fixedly installed support frame 3. The first monitoring and adjusting main body 1 and the second monitoring and adjusting main body 2 are respectively arranged on the two moving and adjusting arms 4, and the first monitoring and adjusting main body 1 and the second monitoring and adjusting main body 2 have the same structure. The moving and adjusting arm 4 includes a rotating limit adjusting plate 5, a first electric push rod 6, a first motor 7, a first moving track cross plate 8, a second electric push rod 9, and a sliding adjusting clamping plate 10. The second electric push rods 9 are symmetrically and fixedly installed at the outer ends of the first moving track cross plate 8. The sliding adjusting clamping plates 10 are symmetrically slidably clamped inside the first moving track cross plate 8, and the front ends of the two second electric push rods 9 are respectively fixedly connected to the outer ends of the two sliding adjusting clamping plates 10. The rotating limit adjusting plate 5 is rotatably connected to the side end of the sliding adjusting clamping plate 10 facing away from the first moving track cross plate 8. The first motor 7 is fixedly installed at the bottom end of the sliding adjusting clamping plate 10, and the driving end of the first motor 7 is fixedly connected to the rotating limit adjusting plate 5. The first electric push rods 6 are symmetrically and fixedly installed at the side ends of the rotating limit adjusting plate 5. The fixedly installed support frame 3 is connected to an external erection fixing device through fixing holes opened on the fixedly installed support frame 3, so that the device can be stably erected at the edge position of the river channel. After the erection is completed, the symmetrically arranged second electric push rods 9 in the moving and adjusting arm 4 are started. Through the second electric push rods 9, the two sliding adjusting clamping plates 10 can be made to slide along the inside of the first moving track cross plate 8, so that the detection and use positions of the first monitoring and adjusting main body 1 and the second monitoring and adjusting main body 2 can be indirectly adjusted and controlled.

[0037] As Figure 4 , Figure 5 and Figure 6As shown, the first monitoring and adjusting body 1 and the second monitoring and adjusting body 2 both include a monitoring mechanism 14, and the monitoring mechanism 14 includes a fixed mounting device 15, a first monitoring device 16 and a second monitoring device 17. The first monitoring device 16 and the second monitoring device 17 are arranged at the bottom end of the fixed mounting device 15, and the first monitoring device 16 and the second monitoring device 17 have the same structure. The fixed mounting device 15 includes a fixed plug-in column 18, a third electric push rod 19, a limit mounting frame 20, a limit plug-in hole 21, an auxiliary fixed mounting hole 22, a conical fixed plug-in column 23, a sliding support adjustment arm 24 and a fourth electric push rod 25. The sliding support adjustment arm 24 is fixedly connected to one end of the limit mounting frame 20, and the fixed plug-in column 18 is symmetrically slidably inserted into the inside of one end of the limit mounting frame 20 away from the sliding support adjustment arm 24. The fourth electric push rod 25 is fixedly installed on the inner sides of both ends of the limit mounting frame 20. The telescopic end of the fourth electric push rod 25 is inserted into the limit installation frame 20, the conical fixed plug column 23 is fixedly connected to the bottom end of the fourth electric push rod 25, and the third electric push rod 19 is evenly fixedly installed on the bottom ends of both sides of the limit installation frame 20. The limit plug-in holes 21 are symmetrically inserted into the two sides of the limit installation frame 20, and the auxiliary fixed installation holes 22 are evenly inserted into the two ends of the limit installation frame 20. The fourth electric push rod 25 drives the conical fixed plug column 23 to move downward and insert it into the soil at the bottom of the river to play a fixing role. With the help of the opened auxiliary fixed installation hole 22, the fixing plug column can be inserted into the auxiliary fixed installation hole 22 and then inserted into the soil at the bottom of the river, so that the limit installation frame 20 can be stably erected, and the fixed plug column 18 can assist in fixing the limit installation frame 20, so that the device is safe and stable when detecting areas with high water flow rate.

[0038] like Figure 7 , Figure 8 and Figure 9As shown, the second monitoring device 17 includes an adjusting part 26, a first monitoring part 27, a second monitoring part 28, and a third monitoring part 29. The first monitoring part 27, the second monitoring part 28, and the third monitoring part 29 are evenly distributed, and the first monitoring part 27, the second monitoring part 28, and the third monitoring part 29 are arranged inside the adjusting part 26. Moreover, the first monitoring part 27, the second monitoring part 28, and the third monitoring part 29 have the same structure. The adjusting part 26 includes a limit guiding column 30, a fixedly connected horizontal plate 31, a limit adjusting frame 32, a second moving track horizontal plate 33, a fifth electric push rod 34, a first moving adjusting clamping plate 35, a first moving adjusting tooth plate 36, a rotating adjusting tooth disc 37, a mounting disc 38, a second motor 39, a second moving adjusting tooth plate 40, and a second moving adjusting clamping plate 43. The fixedly connected horizontal plate 31 is fixedly connected to the outer side of the upper end of the limit adjusting frame 32. The limit guiding column 30 is evenly and fixedly installed on the fixedly connected horizontal plate 31 through bolts. The second moving track horizontal plate 33 is slidably clamped on the limit adjusting frame 32. The fifth electric push rod 34 is evenly and fixedly installed inside the bottom end of the limit adjusting frame 32, and the upper end of the fifth electric push rod 34 is fixedly connected to the bottom end of the second moving track horizontal plate 33. The mounting disc 38 is fixedly installed on the outer side of the middle part of the second moving track horizontal plate 33. The second motor 39 is fixedly installed on the mounting disc 38. The first moving adjusting clamping plate 35 and the second moving adjusting clamping plate 43 are slidably clamped on the second moving track horizontal plate 33. The first moving adjusting tooth plate 36 is fixedly connected to the first moving adjusting clamping plate 35. The second moving adjusting tooth plate 40 is fixedly connected to the second moving adjusting clamping plate 43, and the second moving adjusting clamping plate 43 is located outside the first moving adjusting tooth plate 36. The rotating adjusting tooth disc 37 is rotatably installed at the bottom end of the mounting disc 38. The driving end of the second motor 39 is fixedly connected to the middle part of the rotating adjusting tooth disc 37, and the rotating adjusting tooth disc 37 is distributed between the first moving adjusting tooth plate 36 and the second moving adjusting tooth plate 40. The side ends of the rotating adjusting tooth disc 37 are respectively meshed and connected with the first moving adjusting tooth plate 36 and the second moving adjusting tooth plate 40. By driving the second motor 39, the rotating adjusting tooth disc 37 can rotate forward and backward. The rotating adjusting tooth disc 37 rotating forward and backward drives the first moving adjusting tooth plate 36 and the second moving adjusting tooth plate 40 on both sides to move in opposite directions, thereby driving the first moving adjusting clamping plate 35 and the second moving adjusting clamping plate 43 to slide along the second moving track horizontal plate 33 towards the outer end of the second moving track horizontal plate 33, so that the first monitoring part 27, the second monitoring part 28, and the third monitoring part 29 for detection can be evenly and equidistantly distributed.

[0039] At the end of the first moving adjustment tooth plate 36 facing away from the first moving adjustment clamping plate 35, a ranging detection disc 41 is fixedly installed. At the connection between the second moving adjustment tooth plate 40 and the second moving adjustment clamping plate 43, a laser ranging sensor 42 is fixedly installed, and the ranging detection disc 41 is located directly in front of the laser ranging sensor 42. Through the set laser ranging sensor 42, the distance between the sensor and the ranging detection disc 41 can be accurately detected, which can assist in controlling and calculating the distance between the first monitoring unit 27 and the third monitoring unit 29.

[0040] As Figure 10 shown, the first monitoring unit 27, the second monitoring unit 28, and the third monitoring unit 29 all include a fixed support cross plate 44, a rotor flowmeter 48, a second dismounting and installing disc 49, and a sixth electric push rod 50. The sixth electric push rod 50 is fixedly installed at the front end of the fixed support cross plate 44, and the front end of the sixth electric push rod 50 penetrates through the fixed support cross plate 44. The rotor flowmeter 48 is fixedly connected to the bottom end of the sixth electric push rod 50 through the second dismounting and installing disc 49 and bolts. Through the sixth electric push rod 50, the depth of the rotor flowmeter 48 inserted into the water flow can be adjusted and controlled in real time, so that the rotor flowmeter 48 can accurately detect and monitor the water flow at different depths. When the water flow passes through the rotor flowmeter 48, a force will be generated to make the rotor in the rotor flowmeter 48 rotate. The rotation speed of the rotor is proportional to the flow velocity of the fluid. Therefore, the flow velocity can be calculated by measuring the rotation speed of the rotor. Furthermore, combined with the relationship between flow velocity and flow rate (flow rate = flow velocity × cross-sectional area of water flow), the flow rate of the river channel can be calculated.

[0041] The sliding support adjustment arm 24 is slidably clamped inside the rotation limit adjustment plate 5, and the driving end of the first electric push rod 6 is fixedly connected to the sliding support adjustment arm 24. Through the first electric push rod 6, the sliding support adjustment arm 24 can be controlled to expand and contract. The bottom end of the third electric push rod 19 is fixedly connected to the upper end of the limit adjustment frame 32. The limit guiding column 30 is slidably clamped inside the limit insertion hole 21. The fixed support cross plates 44 in the first monitoring unit 27 and the third monitoring unit 29 are respectively fixedly connected to the second moving adjustment tooth plate 40 and the first moving adjustment tooth plate 36. The fixed support cross plate 44 in the second monitoring unit 28 is fixedly connected to the middle bottom of the second moving track cross plate 33, playing a role of fixed connection and support.

[0042] The working principle of Embodiment 1 is as follows: After selecting a suitable and safe detection position, the fixed installation support frame 3 is fixedly connected to an external erection fixing device or a driving and moving adjustment device through the fixing holes provided on the fixed installation support frame 3, so that the device can be stably erected at the edge position of the river for detection. After the erection is completed, the second electric push rods 9 symmetrically arranged in the moving adjustment arm 4 are started. Through the second electric push rods 9, the two sliding adjustment clamping plates 10 can slide along the inside of the first moving track cross plate 8, so that the detection positions of the first monitoring adjustment main body 1 and the second monitoring adjustment main body 2 can be indirectly adjusted and controlled. Then, the first electric push rod 6 is started. Through the first electric push rod 6, the sliding support adjustment arm 24 can be driven to slide outwards along the inside of the rotation limit adjustment plate 5, so that the erection monitoring mechanism 14 in the first monitoring adjustment main body 1 and the second monitoring adjustment main body 2 moves to the middle position of the river water flow. When the detection position of the erection monitoring mechanism 14 is determined, the conical fixed insertion column 23 is driven to move downwards by the fourth electric push rod 25 and inserted into the soil at the bottom of the river to play a fixing role. And with the help of the auxiliary fixed installation holes 22 provided, the plugging column for fixing can be inserted into the inside of the auxiliary fixed installation holes 22 and then inserted into the soil at the bottom of the river, so that the limit installation frame 20 can be stably erected. And through the fixed plugging column 18, the limit installation frame 20 can be assisted to be fixed, so that the device is safe and stable when detecting areas with large water flow velocities;

[0043] After being fixedly installed, according to the monitoring requirements, the second motors 39 in the first monitoring and adjusting body 1 and the second monitoring and adjusting body 2, namely the first monitoring device 16 and the second monitoring device 17, are started synchronously. The second motor 39 can drive the rotating adjustment gear disc 37 to rotate forward and backward. The rotating adjustment gear disc 37 rotating forward and backward drives the first moving adjustment gear plates 36 and the second moving adjustment gear plates 40 on both sides to move in opposite directions, thereby driving the first moving adjustment clamping plates 35 and the second moving adjustment clamping plates 43 to slide along the second moving track cross plate 33 towards the outer end of the second moving track cross plate 33, so that the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 for detection can be evenly and equidistantly distributed. After the detection positions and spacings of the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 are adjusted, the sixth electric push rods 50 in the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 are started. The sixth electric push rod 50 drives the rotor type flow velocity meter 48 arranged at the bottom to insert into the water flow of the device to detect the water flow velocity in the river channel. And the depth of the rotor type flow velocity meter 48 inserted into the water flow can be adjusted and controlled in real time through the sixth electric push rod 50. And the second moving track cross plate 33 can be controlled to lift along the limit adjustment frame 32 through the fifth electric push rod 34, indirectly enabling full adjustment of the area detected by the rotor type flow velocity meter 48, ensuring that the rotor type flow velocity meter 48 can fully detect and monitor the water flow velocities at different depth positions in the river channel. And the rotor type flow velocity meters 48 in the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 can be evenly distributed in the river channel, can fully detect the water flow at different positions in the river channel, and enable multi-point synchronous detection. The first motor 7 can drive the rotating limit adjustment plate 5 to swing, so that the first monitoring and adjusting body 1 and the second monitoring and adjusting body 2 for detection can be adjusted in real time during the detection process, making the detection range larger and the detection result more accurate. Combining the width and depth of the detection area can conveniently calculate the flow rate of the river channel.

[0044] A monitoring method for a river channel flow monitoring device used in a water conservancy project, which includes the following steps:

[0045] S1. After selecting a suitable and safe detection position, first connect the fixed installation support frame 3 to an external erection and fixing device through the fixing holes opened on the fixed installation support frame 3, so that the device can be stably erected at the edge position of the river. After the erection is completed, start the second electric push rods 9 symmetrically arranged in the moving adjustment arm 4. Through the second electric push rods 9, the two sliding adjustment clamping plates 10 can slide along the inside of the first moving track cross plate 8, so as to indirectly adjust and control the detection and use positions of the first monitoring and adjustment main body 1 and the second monitoring and adjustment main body 2. Then start the first electric push rod 6. Through the first electric push rod 6, the sliding support adjustment arm 24 can be driven to slide outwards along the inside of the rotation limit adjustment plate 5, so that the erection and monitoring mechanism 14 in the first monitoring and adjustment main body 1 and the second monitoring and adjustment main body 2 moves to the middle position of the river flow;

[0046] S2. When the detection position of the erection and monitoring mechanism 14 is determined, drive the conical fixed insertion column 23 to move downward through the fourth electric push rod 25 and insert it into the soil at the bottom of the river to play a fixing role. And by means of the auxiliary fixed installation holes 22 opened, the plugging columns for fixing can be inserted into the auxiliary fixed installation holes 22 and then into the soil at the bottom of the river, so that the limit installation frame 20 can be stably erected. And the limit installation frame 20 can be assisted to be fixed through the fixed plugging column 18, so that the device is safe and stable when detecting areas with large water flow velocities;

[0047] S3. After fixed installation, according to the monitoring needs, the second motors 39 in the first monitoring and adjusting body 1 and the second monitoring and adjusting body 2, i.e., the first monitoring device 16 and the second monitoring device 17, are started synchronously. The second motor 39 can drive the rotation adjustment gear disc 37 to rotate forward and backward. The rotation adjustment gear disc 37 rotating forward and backward drives the first moving adjustment gear plates 36 and the second moving adjustment gear plates 40 on both sides to move in opposite directions, thereby driving the first moving adjustment clamping plates 35 and the second moving adjustment clamping plates 43 to slide along the second moving track cross plate 33 towards the outer end of the second moving track cross plate 33, so that the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 for detection can be evenly and equidistantly distributed. After the detection positions and spacings of the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 are adjusted, the sixth electric push rods 50 in the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 are started. The rotor flow meters 48 arranged at the bottom are driven by the sixth electric push rods 50 to insert into the water flow of the device to detect the water flow velocity in the river channel. And the depth of the rotor flow meters 48 inserted into the water flow can be adjusted and controlled in real time through the sixth electric push rods 50. And the second moving track cross plate 33 can be controlled to lift along the limit adjustment frame 32 through the fifth electric push rod 34, indirectly enabling full adjustment of the area detected by the rotor flow meters 48, ensuring that the rotor flow meters 48 can fully detect and monitor the water flow velocity at different depth positions in the river channel. And the rotor flow meters 48 in the first monitoring part 27, the second monitoring part 28 and the third monitoring part 29 can be evenly distributed in the river channel, enabling full detection of the water flow at different positions in the river channel, and enabling synchronous detection at multiple points. The first motor 7 can drive the rotation limit adjustment plate 5 to swing, so that the first monitoring and adjusting body 1 and the second monitoring and adjusting body 2 for detection can be adjusted in real time during the detection process, making the detection range larger and the detection results more accurate. Combining the width and depth of the detection area, the flow rate of the river channel can be conveniently calculated;

[0048] S4. After regular monitoring and detection are completed, the rotor flow meters 48 can be fully lifted and reset through the fifth electric push rod 34, the third electric push rod 19 and the sixth electric push rod 50. When detection is required, the rotor flow meters 48 can be inserted into the water flow for detection in real time. And when used outdoors for a long time, the protective partition board 12 provided can play a role in blocking and protecting the first monitoring device 16 and the second monitoring device 17 in the first monitoring and adjusting body 1 and the second monitoring and adjusting body 2, enabling the device to be used stably outdoors for a long time. And when the rotor flow meters 48 are inserted into the water flow for detection, the water flow radar speedometer 47 arranged at the bottom of the fixed support cross plate 44 can perform auxiliary non-contact detection. The two detection modes are carried out synchronously, making the detection and monitoring results more accurate. Embodiment

[0049] Based on Embodiment 1, as Figure 4 and Figure 10 shown, at the bottom ends of the fixed support cross plates 44 in the first monitoring unit 27, the second monitoring unit 28, and the third monitoring unit 29, first detachable mounting discs 46 are fixedly installed. At the bottom end of the first detachable mounting disc 46, a water flow radar speedometer 47 is fixedly installed through a second fixed mounting bolt 45. On the limit mounting frame 20, a protective partition board 12 is fixedly connected through a first fixed mounting bolt 13. At the symmetric bottom ends on both sides of the protective partition board 12, support legs 11 are fixedly installed. The bottom ends of the support legs 11 are located at the upper end of the limit mounting frame 20.

[0050] When implementing this embodiment, after the regular monitoring and detection are completed, the rotor flowmeter 48 can be fully lifted and reset through the fifth electric push rod 34, the third electric push rod 19, and the sixth electric push rod 50. When detection is required, the rotor flowmeter 48 can be inserted into the water flow in real time for detection. And when used outdoors for a long time, the protective partition board 12 provided can play a role in blocking and protecting the first monitoring device 16 and the second monitoring device 17 in the first monitoring and adjusting main body 1 and the second monitoring and adjusting main body 2, so that the device can be stably used outdoors for a long time. And when the rotor flowmeter 48 is inserted into the water flow for detection, the water flow radar speedometer 47 arranged at the bottom of the fixed support cross plate 44 can perform auxiliary non-contact detection. The two detection modes are carried out synchronously, making the results of the detection and monitoring more accurate.

[0051] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A river flow monitoring device for water conservancy projects, comprising a first monitoring and adjusting main body (1), a second monitoring and adjusting main body (2), a fixedly installed support frame (3) and a movable adjusting arm (4), characterized in that: The movable adjustment arms (4) are symmetrically arranged, and the two movable adjustment arms (4) are slidably arranged on the fixed mounting support frame (3); the first monitoring adjustment body (1) and the second monitoring adjustment body (2) are respectively arranged on the two movable adjustment arms (4), and the first monitoring adjustment body (1) and the second monitoring adjustment body (2) have the same structure; the movable adjustment arms (4) comprise a rotation limit adjustment plate (5), a first electric push rod (6), a first motor (7), a first movable track cross plate (8), a second electric push rod (9) and a sliding adjustment card plate (10); the second electric push rod (9) is symmetrically fixedly arranged on the first movable track cross plate ( The first movable track cross plate (8) is provided with a first movable track cross plate (8), the first movable track cross plate (8) is provided with a first movable track cross plate (8) and the first movable track cross plate (8) is provided with a second ... The first monitoring and regulating body (1) and the second monitoring and regulating body (2) both comprise a monitoring and setting mechanism (14), the monitoring and setting mechanism (14) comprising a fixed setting device (15), a first monitoring device (16) and a second monitoring device (17), the first monitoring device (16) and the second monitoring device (17) being arranged at the bottom end of the fixed setting device (15), and the first monitoring device (16) and the second monitoring device (17) having the same structure; The fixed mounting device (15) comprises a fixed plug-in column (18), a third electric push rod (19), a limit mounting frame (20), a limit plug-in hole (21), an auxiliary fixed mounting hole (22), a conical fixed plug-in column (23), a sliding support adjustment arm (24) and a fourth electric push rod (25), wherein the sliding support adjustment arm (24) is fixedly connected to one end of the limit mounting frame (20), the fixed plug-in column (18) is symmetrically slidably plugged into the interior of one end of the limit mounting frame (20) away from the sliding support adjustment arm (24), and the fourth electric push rod (25) The third electric push rod (19) is fixedly mounted on the inner sides of both ends of the position limiting mounting frame (20), and the telescopic end of the fourth electric push rod (25) is inserted into the position limiting mounting frame (20), the conical fixed plug column (23) is fixedly connected to the bottom end of the fourth electric push rod (25), the third electric push rod (19) is evenly fixedly mounted on the bottom ends of both sides of the position limiting mounting frame (20), the position limiting plug hole (21) is symmetrically penetrated and opened on both sides of the position limiting mounting frame (20), and the auxiliary fixed mounting hole (22) is evenly penetrated and opened at both ends of the position limiting mounting frame (20); The second monitoring device (17) comprises an adjusting portion (26), a first monitoring portion (27), a second monitoring portion (28) and a third monitoring portion (29); the first monitoring portion (27), the second monitoring portion (28) and the third monitoring portion (29) are evenly distributed, and the first monitoring portion (27), the second monitoring portion (28) and the third monitoring portion (29) are arranged on the inner side of the adjusting portion (26); and the first monitoring portion (27), the second monitoring portion (28) and the third monitoring portion (29) have the same structure; The first monitoring part (27), the second monitoring part (28) and the third monitoring part (29) all comprise a fixed support transverse plate (44), a rotor-type flow meter (48), a second disassembly and installation plate (49) and a sixth electric push rod (50); the sixth electric push rod (50) is fixedly installed at the front end of the fixed support transverse plate (44), and the front end of the sixth electric push rod (50) passes through the fixed support transverse plate (44); the rotor-type flow meter (48) is fixedly connected to the bottom end of the sixth electric push rod (50) via the second disassembly and installation plate (49) and bolts; A first disassembly mounting plate (46) is fixedly mounted at the bottom end of the fixed support cross plate (44) in the first monitoring part (27), the second monitoring part (28) and the third monitoring part (29); a water flow radar speed meter (47) is fixedly mounted at the bottom end of the first disassembly mounting plate (46) via a second fixed mounting bolt (45); a protective baffle plate (12) is fixedly connected to the position limiting mounting frame (20) via a first fixed mounting bolt (13); support legs (11) are symmetrically fixedly mounted at the bottom ends of both sides of the protective baffle plate (12); the bottom ends of the support legs (11) are located at the upper end of the position limiting mounting frame (20).

2. The flow monitoring device for a water conservancy project river channel according to claim 1, characterized in that: The adjusting part (26) includes a limit guiding vertical column (30), a fixed connection horizontal plate (31), a limit adjusting frame (32), a second moving track horizontal plate (33), a fifth electric push rod (34), a first moving adjusting clamping plate (35), a first moving adjusting tooth plate (36), a rotating adjusting tooth disc (37), a mounting disc (38), a second motor (39), a second moving adjusting tooth plate (40) and a second moving adjusting clamping plate (43). The fixed connection horizontal plate (31) is fixedly connected to the outer side of the upper end of the limit adjusting frame (32). The limit guiding vertical column (30) is uniformly fixedly installed on the fixed connection horizontal plate (31) through bolts. The second moving track horizontal plate (33) is slidably clamped on the limit adjusting frame (32). The fifth electric push rod (34) is uniformly fixedly installed inside the bottom end of the limit adjusting frame (32), and the upper end of the fifth electric push rod (34) is fixedly connected to the bottom end of the second moving track horizontal plate (33). The mounting disc (38) is fixedly installed on the outer side of the middle part of the second moving track horizontal plate (33). The second motor (39) is fixedly installed on the mounting disc (38). The first moving adjusting clamping plate (35) and the second moving adjusting clamping plate (43) are slidably clamped on the second moving track horizontal plate (33). The first moving adjusting tooth plate (36) is fixedly connected to the first moving adjusting clamping plate (35). The second moving adjusting tooth plate (40) is fixedly connected to the second moving adjusting clamping plate (43), and the second moving adjusting clamping plate (43) is located outside the first moving adjusting tooth plate (36). The rotating adjusting tooth disc (37) is rotatably installed at the bottom end of the mounting disc (38). The driving end of the second motor (39) is fixedly connected to the middle part of the rotating adjusting tooth disc (37), and the rotating adjusting tooth disc (37) is distributed between the first moving adjusting tooth plate (36) and the second moving adjusting tooth plate (40), and the side ends of the rotating adjusting tooth disc (37) are respectively meshed and connected with the first moving adjusting tooth plate (36) and the second moving adjusting tooth plate (40).

3. The river flow monitoring device for water conservancy projects according to claim 2, characterized in that: A ranging detection disc (41) is fixedly installed at the end of the first moving adjusting tooth plate (36) departing from the first moving adjusting clamping plate (35). A laser ranging sensor (42) is fixedly installed at the connection part of the second moving adjusting tooth plate (40) and the second moving adjusting clamping plate (43), and the ranging detection disc (41) is located directly in front of the laser ranging sensor (42).

4. A river flow monitoring device for water conservancy projects according to claim 3, characterized in that: The sliding support adjusting arm (24) is slidably clamped inside the rotating limit adjusting plate (5), and the driving end of the first electric push rod (6) is fixedly connected to the sliding support adjusting arm (24). The bottom end of the third electric push rod (19) is fixedly connected to the upper end of the limit adjusting frame (32). The limit guiding column (30) is slidably clamped inside the limit insertion hole (21). The fixed support cross plates (44) in the first monitoring part (27) and the third monitoring part (29) are respectively fixedly connected to the second moving adjusting tooth plate (40) and the first moving adjusting tooth plate (36). The fixed support cross plate (44) in the second monitoring part (28) is fixedly connected to the middle bottom of the second moving track cross plate (33).

5. A monitoring method for a river flow monitoring device used in a water conservancy project, applicable to the river flow monitoring device for a water conservancy project described in claim 4, characterized in that, It includes the following steps: S1. After selecting a suitable and safe detection position, first connect the fixed installation support frame (3) to an external erection fixing device through the fixing holes opened on the fixed installation support frame (3), so that the device can be stably erected at the edge position of the river channel. After the erection is completed, start the second electric push rods (9) symmetrically arranged in the moving adjusting arm (4). Through the second electric push rods (9), the two sliding adjusting clamping plates (10) can slide along the inside of the first moving track cross plate (8), so as to indirectly adjust and control the detection and use positions of the first monitoring and adjusting main body (1) and the second monitoring and adjusting main body (2). Then start the first electric push rod (6). Through the first electric push rod (6), the sliding support adjusting arm (24) can be driven to slide outwards along the inside of the rotating limit adjusting plate (5), so that the erection monitoring mechanism (14) in the first monitoring and adjusting main body (1) and the second monitoring and adjusting main body (2) moves to the middle position of the river channel water flow; S2. When the detection position of the erection monitoring mechanism (14) is determined, drive the conical fixed insertion column (23) to move downwards through the fourth electric push rod (25) and insert it into the soil at the bottom of the river to play a fixing role. And by means of the auxiliary fixed installation holes (22) opened, the plugging column for fixing can be inserted into the auxiliary fixed installation holes (22) and then into the soil at the bottom of the river, so that the limit installation frame (20) can be stably erected. And through the fixed plugging column (18), the limit installation frame (20) can be assisted to be fixed, so that the device is safe and stable when detecting areas with large water flow velocities; S3. After fixed erection, according to the monitoring needs, synchronously start the second motors (39) in the first monitoring device (16) and the second monitoring device (17) of the first monitoring and adjusting main body (1) and the second monitoring and adjusting main body (2). The second motor (39) can drive the rotation adjustment gear disk (37) to rotate forward and backward. The rotation adjustment gear disk (37) rotating forward and backward drives the first moving adjustment gear plates (36) and the second moving adjustment gear plates (40) on both sides to move in opposite directions, thereby driving the first moving adjustment clamping plates (35) and the second moving adjustment clamping plates (43) to slide along the second moving track cross plate (33) towards the outer end of the second moving track cross plate (33), so that the first monitoring part (27), the second monitoring part (28) and the third monitoring part (29) for detection can be evenly and equidistantly distributed. After the detection positions and spacings of the first monitoring part (27), the second monitoring part (28) and the third monitoring part (29) are adjusted, start the sixth electric push rods (50) in the first monitoring part (27), the second monitoring part (28) and the third monitoring part (29). The sixth electric push rod (50) drives the rotor flowmeter (48) arranged at the bottom to insert into the internal water flow of the device to detect the water flow velocity in the river channel. And the sixth electric push rod (50) can adjust and control the depth of the rotor flowmeter (48) inserted into the water flow in real time. And the fifth electric push rod (34) can control the second moving track cross plate (33) to lift along the limit adjustment frame (32), indirectly enabling full adjustment of the detection area of the rotor flowmeter (48), ensuring that the rotor flowmeter (48) can fully detect and monitor the water flow velocity at different depth positions in the river channel. And the rotor flowmeters (48) in the first monitoring part (27), the second monitoring part (28) and the third monitoring part (29) can be evenly distributed in the river channel, can fully detect the water flow at different positions in the river channel, and enable multi-point synchronous detection. The first motor (7) can drive the rotation limit adjustment plate (5) to swing, so that the first monitoring and adjusting main body (1) and the second monitoring and adjusting main body (2) for detection can be adjusted in real time during the detection process, making the detection range larger and the detection result more accurate. Combining the width and depth of the detection area, the flow rate of the river channel can be conveniently calculated; S4. After the timing monitoring and detection are completed, the fifth electric push rod (34), the third electric push rod (19), and the sixth electric push rod (50) are used to fully raise and reset the rotor flowmeter (48). When detection is required, the rotor flowmeter (48) can be inserted into the water flow in real time for detection. And when used outdoors for a long time, the protective partition board (12) provided can play a role in shielding and protecting the first monitoring device (16) and the second monitoring device (17) in the first monitoring and adjustment main body (1) and the second monitoring and adjustment main body (2), so that the device can be stably used outdoors for a long time. And when the rotor flowmeter (48) is inserted into the water flow for detection, the water flow radar speedometer (47) arranged at the bottom of the fixed support cross plate (44) can perform auxiliary non-contact detection, and the two detection modes are carried out synchronously, making the results of detection and monitoring more accurate.

Images