Water conservancy construction sewage disposal device

Abstract

The invention discloses a water conservancy construction sewage disposal device, and relates to the technical field of water conservancy construction equipment. The water conservancy construction sewage disposal device comprises a data analysis and processing module and a display and interaction module; the sensor module is used for monitoring the blocking degree of the filtering assembly, the working state of the transmission assembly and the dirt scraping state of the dirt scraping assembly; and the data analysis and processing module is used for receiving the data monitored by the sensor module for analysis and processing, obtaining an analysis and processing result and generating a fault diagnosis report. The water quality and the equipment operation condition are monitored in real time through the auxiliary optimization operation system, the decontamination parameters are intelligently regulated and controlled, the device is always kept in an efficient decontamination state, the decontamination efficiency is improved, meanwhile, automatic monitoring, analysis and control of the decontamination process are achieved, manual intervention is reduced, and the intelligent level of water conservancy construction management is improved.

Description

Technical Field

[0001] The invention relates to the technical field of water conservancy construction equipment, and in particular to a water conservancy construction pollution cleaning device. Background Art

[0002] During the construction of water conservancy projects, the water at the construction site often contains a large amount of pollutants such as silt, debris, etc. If it is not cleaned up in time, it will not only affect the construction progress, but may also cause damage to the construction equipment and reduce the quality of the project.

[0003] Traditional sewage cleaning devices have relatively simple functions and lack real-time monitoring and intelligent control of the equipment's operating status. It is difficult to flexibly adjust according to actual sewage cleaning needs, resulting in low sewage cleaning efficiency and serious energy waste. In addition, when equipment fails, it is impossible to detect and handle it in time, increasing maintenance costs and downtime. With the continuous expansion of the scale of water conservancy projects and the increasing requirements for construction quality, it is necessary to propose a water conservancy construction sewage cleaning device to solve the above problems. Summary of the invention

[0004] The purpose of the present invention is to solve the deficiencies in the prior art and to propose a water conservancy construction pollution cleaning device.

[0005] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a water conservancy construction pollution cleaning device, including a pollution cleaning dam and an auxiliary optimized operation coefficient, characterized in that a plurality of erection openings are opened on the pollution cleaning dam, and the left and right sides of the erection openings are both inclined at a set angle and fixedly connected with a device frame, a slide groove is opened on the opposite surface of the device frame, and a device shell is slidably connected in the slide groove, and a filter assembly is fixedly installed between the device shells, and a motor box is horizontally installed on the upper end of the filter assembly, and a transmission assembly is arranged in the motor box, and a dirt brush roller is arranged at the rear of the device frame, and a dirt scraping assembly is arranged on the dirt brush roller; The auxiliary optimization operation system includes a sensor module, a data analysis and processing module, and a display and interaction module; the sensor module is used to monitor the blockage degree of the filter component, the working state of the transmission component, and the scraping state of the scraping component; the data analysis and processing module is used to receive the data monitored by the sensor module for analysis and processing, obtain the analysis and processing results and generate a fault diagnosis report; the analysis and processing results include efficiency evaluation results and fault diagnosis results; the display and interaction module displays the analysis and processing results of the cleaning device, the fault diagnosis report and the data monitored by the sensor module in an intuitive form.

[0006] As a preferred embodiment, the transmission assembly includes a motor box, a first motor is mounted and fixed on one side of the top surface of the motor box through a mounting platform, a transmission pulley is fixedly connected to one side of the first motor through a coupling, a first belt is sleeved on the transmission pulley, and the other end of the first belt is sleeved on one end of an upper transmission shaft.

[0007] As a preferred embodiment, both ends of the upper transmission shaft are fixedly connected with transmission sprockets, a lower transmission shaft is provided below the upper transmission shaft, and the upper transmission shaft and the lower transmission shaft are rotatably connected to the upper and lower ends of the transmission frame.

[0008] As a preferred embodiment, the filter assembly includes a transmission chain, a tooth groove is formed on the inner side of the transmission chain, the transmission chain is meshed with a transmission sprocket through the tooth groove, and a plurality of filter plates are equidistantly and obliquely fixedly connected between the transmission chains.

[0009] As a preferred embodiment, the scraping assembly includes a second motor, which is installed and fixed above the water outlet of the cleaning dam, one side of the second motor is connected to a pulley through a coupling, a third belt is sleeved on the pulley, the other end of the third belt is sleeved on a rotating shaft, both ends of the rotating shaft are rotatably connected to the two side surfaces of the water outlet, a dirt brushing roller is fixedly connected to the rotating shaft, bristles are fixedly connected to the dirt brushing roller, a dirt collecting tank is provided under the dirt brushing roller, and the dirt collecting tank is fixedly connected to the water outlet.

[0010] As a preferred implementation, the data analysis and processing module includes an operation efficiency evaluation unit, a fault diagnosis unit, and a strategy generation unit; The operation efficiency evaluation unit is used to evaluate the operation efficiency of the device and obtain the efficiency evaluation results; the efficiency evaluation results include the scraping effect value, pollutant removal rate, energy difference value, and comprehensive operation efficiency score; A fault diagnosis unit is used to analyze whether a device has a fault and obtain a fault diagnosis result; the fault diagnosis result includes the real-time status information of the component and the abnormal evaluation value of the internal parameter, the component evaluation value of the component and the fault judgment value of the device; any result in the fault diagnosis result is compared and judged with its preset fault diagnosis threshold value, if the judgment is yes, a fault signaling corresponding to the result is generated; if the judgment is no, a normal signaling corresponding to the result is generated; the judgment results of all results constitute a fault diagnosis report; The strategy generation unit is used to make judgments based on the efficiency evaluation results and the fault diagnosis results to generate corresponding operations.

[0011] As a preferred implementation, whether the analyzing device fails is specifically: Establish a characteristic model of the normal operating state of the device, including the standard values ​​of the state parameters of each component; Obtain the real-time status information of each component on the device, calculate the difference between any parameter in the real-time status information and the standard value of the corresponding parameter in its characteristic model to obtain the parameter difference; set the monitoring time zone according to the corresponding component, and obtain the statistical indicators of the parameter difference in the monitoring time zone, including the mean value and standard deviation value; Perform weighted calculation on the parameter difference of the component at the current moment and the mean and standard deviation in the monitoring time zone to obtain the abnormal evaluation value corresponding to the parameter; perform weighted calculation on the abnormal evaluation values ​​of all parameters in the real-time status information of the component to obtain the component evaluation value; perform weighted calculation on the component evaluation values ​​of all components to obtain the fault judgment value of the device; mark the real-time status information of the component and the abnormal evaluation value of the internal parameter, the component evaluation value of the component and the fault judgment value of the device as the fault diagnosis result.

[0012] As a preferred implementation, the operating efficiency of the evaluation device is evaluated by a specific evaluation method as follows: Obtaining the pressure difference and the water flow difference of the water flow before and after filtration on the filter plate in the filter component; performing weighted processing on the pressure difference and the water flow difference to obtain a blockage evaluation value; Obtaining the blockage evaluation value of the scraping component before and after scraping, and calculating the scraping effect value according to the blockage evaluation values ​​before and after scraping; Obtaining the inlet pollutant concentration and the outlet pollutant concentration before and after the water flows through the filter component, and calculating the inlet pollutant concentration and the outlet pollutant concentration to obtain the pollutant removal rate; Obtain the energy consumption of the device per unit time, set the ideal energy consumption of the device per unit time, and subtract the energy consumption from the ideal energy consumption to obtain the energy difference; Set the scraping effect weight, filtration efficiency weight and energy consumption weight; perform weighted calculation on the scraping effect value, pollutant removal rate and energy difference value to obtain the comprehensive operation efficiency score; Set the efficiency level group, including high efficiency, medium efficiency and low efficiency levels; match the value range of the efficiency level group with the comprehensive operating efficiency to obtain the operating efficiency level of the device; The scraping effect value, pollutant removal rate, energy difference value, comprehensive operation efficiency score and operation efficiency grade of the device are marked as efficiency evaluation results.

[0013] As a preferred implementation, a judgment is made based on the efficiency evaluation result and the fault diagnosis result to generate corresponding operations, specifically: When the comprehensive operating efficiency is high, maintain the current operating parameters and perform regular inspections and maintenance according to the set cycle; When the comprehensive operating efficiency is medium, adjust the working parameters of the components on the device; When the comprehensive operating efficiency is low, a maintenance strategy is generated; the maintenance strategy is used to send the analysis and processing results and diagnostic reports to the intelligent terminals of relevant maintenance personnel; When a fault signal occurs, the faulty component is stopped, a maintenance plan is developed according to the fault type, and the fault information is recorded; the maintenance plan is sent to the intelligent terminal of the fault maintenance personnel.

[0014] As a preferred embodiment, the specific process of adjusting the working parameters of the components on the device is as follows: Obtaining the efficiency evaluation results generated by the operation efficiency evaluation unit, including the scraping effect value, the pollutant removal rate, and the energy difference value; Obtain the current working frequency and scraping effect value of the dirt brush roller, set the target scraping effect value and the scraping adjustment coefficient, and calculate the adjusted working frequency of the dirt brush roller; obtain the current operating speed and pollutant removal rate of the filter component, set the target pollutant removal rate and the removal adjustment coefficient, and calculate the adjusted operating speed of the filter component; obtain the motor power and energy difference value of any motor, set the target energy difference value and the energy difference adjustment coefficient; The working parameters of the components on the device are adjusted to include the working frequency of the dirt brush roller, the operating speed of the filter component and the motor power.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention monitors the water quality and equipment operation status in real time through the auxiliary optimization operation system, and intelligently adjusts the cleaning parameters to keep the device in an efficient cleaning state at all times, thereby improving the cleaning efficiency and effectively ensuring the smooth progress of water conservancy construction. At the same time, it realizes the automatic monitoring, analysis and control of the cleaning process, reduces manual intervention, and improves the intelligent level of water conservancy construction management.

[0016] 2. The present invention can accurately locate potential equipment faults through the fault diagnosis unit, and combined with the intelligent control strategy, it can adjust the equipment operation mode in advance to avoid faults, reduce equipment losses, extend the overall service life of the equipment, and reduce long-term operation and maintenance costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The drawings described herein are used to provide a further understanding of the present invention and constitute a part of this application. The exemplary embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute an improper limitation of the present invention. In the drawings: Figure 1 This is a principle block diagram of the auxiliary optimization operation system proposed by the present invention; Figure 2 This is a three-dimensional schematic diagram of the overall appearance of the device proposed by the present invention; Figure 3 This is a schematic top view of the overall appearance of the device proposed by the present invention; Figure 4 This is a front view schematic diagram of the overall appearance of the device proposed by the present invention; Figure 5 It is a three-dimensional schematic diagram of the transmission assembly structure proposed by the present invention; Figure 6 This is a three-dimensional schematic diagram of the filter assembly structure proposed by the present invention; Figure 7 It is a partial three-dimensional schematic diagram of the transmission assembly structure proposed by the present invention; Figure 8 This is a three-dimensional schematic diagram of the structure of the dirt scraping assembly proposed by the present invention.

[0018] Serial numbers in the figure: 1. Cleaning dam; 2. Device frame; 3. Equipment shell; 4. Motor box; 5. Brush roller; 6. First motor; 7. First belt; 8. Upper transmission shaft; 9. Transmission sprocket; 10. Lower transmission shaft; 11. Second belt; 12. Support shaft; 13. Transmission chain; 14. Filter; 15. Second motor; 16. Third belt; 17. Rotating shaft; 18. Brush; 19. Sewage collecting tank. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0020] Example: See Figure 1-Figure 8 A sewage cleaning device for water conservancy construction in the present invention comprises a sewage cleaning dam 1, a plurality of erection openings are provided on the sewage cleaning dam 1, and a device frame 2 is fixedly connected with the left and right sides of the erection opening at a set angle, a slide groove is provided on the opposite surface of the device frame 2, and a device shell 3 is slidably connected in the slide groove, and a filter assembly is fixedly installed between the device shells 3, and a motor box 4 is horizontally installed on the upper end of the filter assembly, and a transmission assembly is arranged in the motor box 4, and a dirt brushing roller 5 is arranged at the rear of the device frame 2, and a dirt scraping assembly is arranged on the dirt brushing roller 5; The cleaning dam 1 and the auxiliary optimization operation coefficient are characterized in that a plurality of erection openings are provided on the cleaning dam 1, and the left and right sides of the erection openings are both fixedly connected with a device frame 2 at a set angle, and a slide groove is provided on the opposite surface of the device frame 2, and a device shell 3 is slidably connected in the slide groove, and a filter assembly is fixedly installed between the device shells 3, and a motor box 4 is horizontally installed on the upper end of the filter assembly, and a transmission assembly is arranged in the motor box 4, and a dirt brushing roller 5 is arranged at the rear of the device frame 2, and a dirt scraping assembly is arranged on the dirt brushing roller 5; The auxiliary optimization operation system includes a sensor module, a data analysis and processing module, a control module, and a display and interaction module; the sensor module is used to monitor the blockage degree of the filter component, the working state of the transmission component, and the scraping state of the scraping component; the data analysis and processing module is used to receive the data monitored by the sensor module for analysis and processing, obtain the analysis and processing results and generate a fault diagnosis report; the analysis and processing results include efficiency evaluation results and fault diagnosis results; the display and interaction module displays the analysis and processing results of the cleaning device, the fault diagnosis report and the data monitored by the sensor module in an intuitive form.

[0021] It should be noted that the auxiliary optimization operation system monitors the water quality and equipment operation status in real time through the sensor module, and accurately adjusts the cleaning parameters and motor power according to the energy difference, so that the cleaning device always maintains the best working state. On the one hand, this significantly improves the cleaning efficiency, ensures the rapid purification of water bodies in water conservancy construction, and guarantees the construction progress and quality; on the other hand, it effectively avoids excessive operation of equipment, reduces energy consumption, and saves a lot of operating costs. At the same time, the fault diagnosis unit monitors the equipment status in real time, promptly discovers and warns of potential faults, guides maintenance personnel to quickly locate and eliminate faults, reduces equipment downtime and maintenance costs, and improves the stability and reliability of equipment operation.

[0022] In this application, the data analysis and processing module includes an operation efficiency evaluation unit, a fault diagnosis unit, and a strategy generation unit; The operation efficiency evaluation unit is used to evaluate the operation efficiency of the device and obtain the efficiency evaluation results; the efficiency evaluation results include the scraping effect value, pollutant removal rate, energy difference value, and comprehensive operation efficiency score; A fault diagnosis unit is used to analyze whether a device has a fault and obtain a fault diagnosis result; the fault diagnosis result includes the real-time status information of the component and the abnormal evaluation value of the internal parameter, the component evaluation value of the component and the fault judgment value of the device; any result in the fault diagnosis result is compared and judged with its preset fault diagnosis threshold value, if the judgment is yes, a fault signaling corresponding to the result is generated; if the judgment is no, a normal signaling corresponding to the result is generated; the judgment results of all results constitute a fault diagnosis report; The strategy generation unit is used to make judgments based on the efficiency evaluation results and the fault diagnosis results to generate corresponding operations.

[0023] In this application, the analysis device is faulty, specifically: Establish a characteristic model of the normal operating state of the device, including the standard values ​​of the state parameters of each component; The real-time status information of each component on the device is obtained (each component is an electrical device on the device, such as the first motor 6, the second motor 15, etc.), and the difference between any parameter in the real-time status information and the standard value of the corresponding parameter in its characteristic model is calculated to obtain the parameter difference CJ1; the monitoring time zone is set according to the corresponding component, and the statistical indicators of the parameter difference in the monitoring time zone are obtained, including the mean CJ2 and the standard deviation CJ3; the parameter difference of the component at the current moment is weighted with the mean and standard deviation in the monitoring time zone to obtain the abnormal evaluation value CJ corresponding to the parameter, and the formula is expressed as follows: ; Among them, j1, j2, and j3 represent the weights corresponding to the parameter difference and the mean and standard deviation of the parameter difference in the monitoring time zone respectively; The abnormal evaluation values ​​of all parameters in the real-time status information of the component are weighted to obtain the component evaluation value J1, which is expressed by the formula ; Where n and N represent the parameter numbered n and the total number of parameters in the real-time status information of the component, respectively; nCJ and na represent the abnormal evaluation value numbered n in the real-time status information and the weight influence factor of the corresponding parameter, respectively; The component evaluation values ​​of all components are weighted to obtain the fault judgment value J2 of the device. The formula is: ; Wherein, m and M represent the component numbered m and the total number of components in the device respectively, mJ1 and mb represent the component evaluation value of the component numbered m and the weight influence factor corresponding to the component respectively; the real-time status information of the component and the abnormal evaluation value of the internal parameter, the component evaluation value of the component and the fault judgment value of the device are marked as the fault diagnosis result.

[0024] In this application, the operating efficiency of the evaluation device is evaluated, and the specific evaluation method is: Obtain the pressure difference and the water flow difference of the water flow before and after filtration on the filter plate 14 in the filter assembly; perform weighted processing on the pressure difference and the water flow difference to obtain a blockage evaluation value D; Obtain the blockage evaluation value D1 of the scraping component before scraping and the blockage evaluation value D2 after scraping, and calculate the scraping effect value E according to the blockage evaluation values ​​before and after scraping. The formula is: ; Obtain the inlet pollutant concentration C1 and outlet pollutant concentration C2 before and after the water flows through the filter assembly, and calculate the inlet pollutant concentration and the outlet pollutant concentration to obtain the pollutant removal rate R, which is expressed by the formula: ; Obtain the energy consumption of the device per unit time (which can be calculated based on the power and operating time of the first motor 6 and the second motor 15), set the ideal energy consumption of the device per unit time, and subtract the ideal energy consumption from the energy consumption to obtain the energy difference value F; Assume that the scraping effect weight w1, the filtration efficiency weight w2 and the energy consumption weight w3; perform weighted calculation on the scraping effect value, pollutant removal rate and energy difference value to obtain the comprehensive operation efficiency score S, which is expressed by the formula ; Set the efficiency level group, including high efficiency, medium efficiency and low efficiency levels; match the value range of the efficiency level group with the comprehensive operating efficiency to obtain the operating efficiency level of the device; The scraping effect value, pollutant removal rate, energy difference value, comprehensive operation efficiency score and operation efficiency grade of the device are marked as efficiency evaluation results.

[0025] In this application, a judgment is made based on the efficiency evaluation results and the fault diagnosis results to generate corresponding operations, specifically: When the comprehensive operating efficiency is high, maintain the current operating parameters and perform regular inspections and maintenance according to the set cycle; When the comprehensive operating efficiency is medium, adjust the working parameters of the components on the device; When the comprehensive operating efficiency is low, a maintenance strategy is generated; the maintenance strategy is used to send the analysis and processing results and diagnostic reports to the intelligent terminals of relevant maintenance personnel; When a fault signal occurs, the faulty component is stopped, a maintenance plan is developed according to the fault type, and the fault information is recorded; the maintenance plan is sent to the intelligent terminal of the fault maintenance personnel.

[0026] In this application, the specific process of adjusting the working parameters of the components on the device is: Obtaining the efficiency evaluation results generated by the operation efficiency evaluation unit, including the scraping effect value, the pollutant removal rate, and the energy difference value; The current working frequency Dcu and the scraping effect value E of the dirt-brushing roller 5 are obtained, the target scraping effect value En and the scraping adjustment coefficient kE are set, and the adjusted working frequency Dnew of the dirt-brushing roller 5 is calculated. The formula is: , and when When , the formula is modified to: ; Get the current filter component operating speed Vcu and pollutant removal rate R, set the target pollutant removal rate Rn and removal adjustment coefficient kR, and calculate the adjusted filter component operating speed Vnew. The formula is: , and when , the formula is modified to: ; Get the motor power Pcu and energy difference F of any motor, set the target energy difference Fn and energy difference adjustment coefficient kF, and calculate the adjusted motor power Pnew. The formula is: , and when When , the formula is modified to: ; The working parameters of the components on the device are adjusted to include the working frequency Dnew of the dirt brush roller, the operating speed Vnew of the filter component, and the motor power Pnew.

[0027] In the present application, the transmission assembly includes a motor box 4, a first motor 6 is fixedly mounted on one side of the internal top surface of the motor box 4 through a mounting platform, a transmission pulley is fixedly connected to one side of the first motor 6 through a coupling, a first belt 7 is sleeved on the transmission pulley, and the other end of the first belt 7 is sleeved on one end of an upper transmission shaft 8; transmission sprockets 9 are fixedly connected to both ends of the upper transmission shaft 8, a lower transmission shaft 10 is provided below the upper transmission shaft 8, and the upper transmission shaft 8 and the lower transmission shaft 10 are rotatably connected to the upper and lower ends of the transmission frame; the two ends of the second belt 11 are respectively sleeved on the outer sides of the same end of the upper transmission shaft 8 and the lower transmission shaft 10, and the transmission frames are connected and fixed to each other through a support shaft 12, and the cooperation of the first motor 6 and the transmission sprocket 9 facilitates the driving of the filter assembly to move.

[0028] In the present application, the filter assembly includes a transmission chain 13, a tooth groove is provided on the inner side of the transmission chain 13, the transmission chain 13 is meshed with the transmission sprocket 9 through the tooth groove, and a plurality of filter plates 14 are fixedly connected to the transmission chain 13 at equal intervals and tilted. Through the cooperation of the transmission chain 13 and the filter plates 14, it is convenient to filter debris and water flow and drive the debris to move to the rear, thereby improving practicality; the scraping assembly includes a second motor 15, and the second motor 15 is installed and fixed above the water outlet of the cleaning dam 1. One side of the second motor 15 is connected to a pulley through a coupling, and a third belt 16 is sleeved on the pulley. The other end of the third belt 16 is sleeved on a rotating shaft 17. Both ends of the rotating shaft 17 are rotatably connected to the two side surfaces of the water outlet. A dirt brushing roller 5 is fixedly connected to the rotating shaft 17, and bristles 18 are fixedly connected to the dirt brushing roller 5. A dirt collecting tank 19 is provided below the dirt brushing roller 5, and the dirt collecting tank 19 is fixedly connected to the water outlet. The dirt brushing roller 5 is rotated by driving the second motor 15, and the dirt brushing roller 5 is used to clean the dirt on the cleaning component.

[0029] The working principle of the structure of the present invention: when the present invention is used, firstly, power is supplied to all electrical components, then the handle on the portable motor box 4 is lifted, and then the filter device is inserted into the device frame 2 from above the device frame 2. Due to the inclined design of the device frame, the filter device can be stably installed on the water outlet of the sewage cleaning dam 1, and then the first motor 6 and the second motor 15 are started. The first motor 6 will drive the first belt 7 to drive the upper transmission shaft 8 to rotate. The rotation of the upper transmission shaft 8 will drive the transmission sprocket 9 to rotate, and at the same time, the lower transmission shaft 10 will be driven to rotate through the second belt 11. , thereby achieving a greater lifting force. When water flows through the device, the liquid water flow will pass through the gaps between the filter plates 14, and the dirt or debris will be blocked by the filter plates 14 and carried to the rear of the device during the circulating movement of the filter plates 14. When the debris comes to the rear of the device, a part of the debris on the surface will directly fall into the sewage collection tank 19, and the adhered debris will be scraped off by the brush roller 5 driven by the second motor 15, and then fall into the sewage collection tank 19, and finally be collected and transported away through the slope behind the sewage collection tank 19, and the water flow cleaning work during construction is completed in this reciprocating manner.

[0030] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A sewage cleaning device for water conservancy construction, comprising a sewage cleaning dam (1) and an auxiliary optimized operation coefficient, characterized in that: The cleaning dam (1) is provided with a plurality of mounting openings, and the left and right sides of the mounting openings are both fixedly connected with a device frame (2) at a set angle, and a slide groove is provided on the opposite surface of the device frame (2), and a device shell (3) is slidably connected in the slide groove, and a filter assembly is fixedly installed between the device shells (3), and a motor box (4) is horizontally installed on the upper end of the filter assembly, and a transmission assembly is arranged in the motor box (4), and a dirt brushing roller (5) is arranged at the rear of the device frame (2), and a dirt scraping assembly is arranged on the dirt brushing roller (5); The auxiliary optimization operation system includes a sensor module, a data analysis and processing module, and a display and interaction module; the sensor module is used to monitor the blockage degree of the filter component, the working state of the transmission component, and the scraping state of the scraping component; the data analysis and processing module is used to receive the data monitored by the sensor module for analysis and processing, obtain the analysis and processing results and generate a fault diagnosis report; wherein the analysis and processing results include efficiency evaluation results and fault diagnosis results; The display and interaction module displays the analysis and processing results of the pollution cleaning device, fault diagnosis reports and data monitored by the sensor module in an intuitive form.

2. A water conservancy construction cleaning device according to claim 1, characterized in that: The transmission assembly comprises a motor box (4), a first motor (6) being mounted and fixed on one side of the top surface of the motor box (4) via a mounting platform, a transmission pulley being fixedly connected to one side of the first motor (6) via a coupling, a first belt (7) being sleeved on the transmission pulley, and the other end of the first belt (7) being sleeved on one end of an upper transmission shaft (8).

3. A water conservancy construction cleaning device according to claim 2, characterized in that: Both ends of the upper transmission shaft (8) are fixedly connected with a transmission sprocket (9), a lower transmission shaft (10) is provided below the upper transmission shaft (8), and the upper transmission shaft (8) and the lower transmission shaft (10) are both rotatably connected to the upper and lower ends of the transmission frame.

4. A water conservancy construction cleaning device according to claim 1, characterized in that: The filter assembly comprises a transmission chain (13), the inner side of the transmission chain (13) is provided with tooth grooves, the transmission chain (13) is meshedly connected to a transmission sprocket (9) via the tooth grooves, and a plurality of filter plates (14) are fixedly connected at equal intervals and tilted between the transmission chains (13).

5. A water conservancy construction cleaning device according to claim 1, characterized in that: The dirt scraping assembly comprises a second motor (15), the second motor (15) being mounted and fixed above the water outlet of the dirt cleaning dam (1), one side of the second motor (15) being connected to a pulley via a coupling, the pulley being sleeved with a third belt (16), the other end of the third belt (16) being sleeved on a rotating shaft (17), both ends of the rotating shaft (17) being rotatably connected to two side surfaces of the water outlet, a dirt brushing roller (5) being fixedly connected to the rotating shaft (17), bristles (18) being fixedly connected to the dirt brushing roller (5), a dirt collecting tank (19) being provided below the dirt brushing roller (5), the dirt collecting tank (19) being fixedly connected to the water outlet.

6. A water conservancy construction cleaning device according to claim 1, characterized in that: The data analysis and processing module includes an operation efficiency evaluation unit, a fault diagnosis unit, and a strategy generation unit; The operation efficiency evaluation unit is used to evaluate the operation efficiency of the device and obtain the efficiency evaluation results; the efficiency evaluation results include the scraping effect value, pollutant removal rate, energy difference value, and comprehensive operation efficiency score; A fault diagnosis unit is used to analyze whether a device has a fault and obtain a fault diagnosis result; the fault diagnosis result includes the real-time status information of the component and the abnormal evaluation value of the internal parameter, the component evaluation value of the component and the fault judgment value of the device; any result in the fault diagnosis result is compared and judged with its preset fault diagnosis threshold value, if the judgment is yes, a fault signaling corresponding to the result is generated; if the judgment is no, a normal signaling corresponding to the result is generated; the judgment results of all results constitute a fault diagnosis report; The strategy generation unit is used to make judgments based on the efficiency evaluation results and the fault diagnosis results to generate corresponding operations.

7. A water conservancy construction cleaning device according to claim 6, characterized in that: Analyze whether the device is faulty, specifically: Establish a characteristic model of the normal operating state of the device, including the standard values ​​of the state parameters of each component; Acquire the real-time status information of each component on the device, and perform difference calculation between any parameter in the real-time status information and the standard value of the corresponding parameter in its characteristic model to obtain the parameter difference; Set the monitoring time zone according to the corresponding component, and obtain the statistical indicators of the parameter difference in the monitoring time zone, including the mean and standard deviation; Perform weighted calculation on the parameter difference of the component at the current moment and the mean and standard deviation in the monitoring time zone to obtain the abnormal evaluation value corresponding to the parameter; perform weighted calculation on the abnormal evaluation values ​​of all parameters in the real-time status information of the component to obtain the component evaluation value; perform weighted calculation on the component evaluation values ​​of all components to obtain the fault judgment value of the device; mark the real-time status information of the component and the abnormal evaluation value of the internal parameter, the component evaluation value of the component and the fault judgment value of the device as the fault diagnosis result.

8. A water conservancy construction cleaning device according to claim 6, characterized in that: The operating efficiency of the evaluation device is evaluated by the following specific evaluation methods: Obtaining a pressure difference and a water flow difference before and after filtration on a filter plate (14) in a filter assembly; performing weighted processing on the pressure difference and the water flow difference to obtain a blockage evaluation value; Obtaining the blockage evaluation value of the scraping component before and after scraping, and calculating the scraping effect value according to the blockage evaluation values ​​before and after scraping; Obtaining the inlet pollutant concentration and the outlet pollutant concentration before and after the water flows through the filter component, and calculating the inlet pollutant concentration and the outlet pollutant concentration to obtain the pollutant removal rate; Obtain the energy consumption of the device per unit time, set the ideal energy consumption of the device per unit time, and subtract the energy consumption from the ideal energy consumption to obtain the energy difference; Set the scraping effect weight, filtration efficiency weight and energy consumption weight; perform weighted calculation on the scraping effect value, pollutant removal rate and energy difference value to obtain the comprehensive operation efficiency score; Set the efficiency level group, including high efficiency, medium efficiency and low efficiency levels; match the value range of the efficiency level group with the comprehensive operating efficiency to obtain the operating efficiency level of the device; The scraping effect value, pollutant removal rate, energy difference value, comprehensive operation efficiency score and operation efficiency grade of the device are marked as efficiency evaluation results.

9. A water conservancy construction cleaning device according to claim 6, characterized in that: According to the efficiency evaluation results and fault diagnosis results, judgments are made to generate corresponding operations, specifically: When the comprehensive operating efficiency is high, maintain the current operating parameters and perform regular inspections and maintenance according to the set cycle; When the comprehensive operating efficiency is medium, adjust the working parameters of the components on the device; When the comprehensive operating efficiency is low, a maintenance strategy is generated; The maintenance strategy is used to send the analysis and processing results and diagnostic reports to the intelligent terminals of relevant maintenance personnel; When a fault signal occurs, the faulty component is stopped, a maintenance plan is developed according to the fault type, and the fault information is recorded; the maintenance plan is sent to the intelligent terminal of the fault maintenance personnel.

10. A water conservancy construction cleaning device according to claim 8, characterized in that: The specific process of adjusting the working parameters of the components on the device is: Obtaining the efficiency evaluation results generated by the operation efficiency evaluation unit, including the scraping effect value, the pollutant removal rate, and the energy difference value; Obtaining the current working frequency and scraping effect value of the dirt brushing roller (5), setting the target scraping effect value and the scraping adjustment coefficient, and calculating the adjusted working frequency of the dirt brushing roller (5); obtaining the current operating speed and pollutant removal rate of the filter component, setting the target pollutant removal rate and the removal adjustment coefficient, and calculating the adjusted operating speed of the filter component; obtaining the motor power and energy difference value of any motor, and setting the target energy difference value and the energy difference adjustment coefficient; The working parameters of the components on the device are adjusted to include the working frequency of the dirt brush roller, the operating speed of the filter component and the motor power.

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