Intelligent water affair system based on artificial intelligence

Abstract

The invention relates to the technical field of water affair systems, in particular to an intelligent water affair system based on artificial intelligence. The pipeline is provided with a clamping groove and a sliding groove. The pipeline is connected with a clamping ring, and a clamping channel is formed between the outer side wall of the clamping ring and the inner side wall of the pipeline; an elastic piece is connected to the position, located in the sliding groove, of the pipeline, the elastic force direction of the elastic piece is arranged in the left-right direction, a sealing ring is connected to the right end of the elastic piece, and the outer side wall of the sealing ring is attached to the inner side wall of the pipeline; the elastic piece corresponding to one pipeline pushes the sealing ring to be inserted into the clamping channel corresponding to the adjacent pipeline, the right end of the sealing ring abuts against the right end of the clamping channel, and the sealing ring is in interference fit with the corresponding clamping channel. The elastic piece can adapt to different water flow pressures and flow speeds, and it is ensured that good sealing performance can be kept under various operation conditions.

Description

Technical Field

[0001] The present invention relates to the technical field of water systems, and in particular to an intelligent water system based on artificial intelligence. Background Art

[0002] The intelligent water system is a water resource management system that combines advanced technologies such as the Internet of Things, big data analysis, cloud computing, and artificial intelligence. It aims to improve the utilization efficiency of water resources, optimize the scheduling of water resources, improve water supply security, and ensure water quality, among other aspects of water management.

[0003] The application document with publication number CN104565609A discloses a pipeline connection structure, including a pipe section sleeved on the end of the pipeline, with a clearance fit between the pipe section and the end of the pipeline, an inner wall of the pipe section is provided with an inner-blocking seal protruding from the inner wall surface of the pipe section, and an outer wall of the pipeline end is provided with an outer-blocking seal protruding from the outer wall surface of the pipeline; after connection, the inner-blocking seal is sealed with the two pipeline ends, and the two outer-blocking seals are located on the outside of the inner-blocking seal.

[0004] When the pipelines are connected for too long, slight displacements will occur between the pipelines. The static sealing method used in the prior art cannot achieve dynamic adjustment, which reduces the adaptability of the system. Summary of the invention

[0005] The purpose of the present invention is to improve the adaptability of the system. In view of the above-mentioned shortcomings, an intelligent water system based on artificial intelligence is proposed.

[0006] The present invention adopts the following technical solution:

[0007] An intelligent water system based on artificial intelligence, the system has left and right directions, with the front of the water flow direction as the right direction, and the system includes a pipeline;

[0008] The left end and the right end of the pipeline are respectively provided with a clamping groove and a sliding groove, and both the clamping groove and the sliding groove are communicated with the pipeline;

[0009] The pipe is connected with a clamping ring at the position of the clamping groove, and a clamping channel is formed between the outer wall of the clamping ring and the inner wall of the pipe;

[0010] The pipeline is connected to an elastic member at the position of the sliding groove, the elastic force direction of the elastic member is set in the left-right direction, the right end of the elastic member is connected to a sealing ring, and the outer wall of the sealing ring is in contact with the inner wall of the pipeline;

[0011] The elastic member corresponding to one of the pipes pushes the sealing ring to be inserted into the clamping channel corresponding to the adjacent pipe, and the right end of the sealing ring abuts against the right end of the clamping channel, and the sealing ring and the corresponding clamping channel are in interference fit.

[0012] Optionally, two sliding plates arranged at intervals are connected between the elastic member and the sealing ring located in the same pipeline, and the two sliding plates slide along the sliding groove.

[0013] Optionally, two sliding plates located in the same pipeline extend into the pipeline.

[0014] Optionally, a filter screen is connected between two sliding plates located in the same pipeline.

[0015] Optionally, the system further includes a detection module, an information storage module, a control module, a leakage judgment module and a communication module;

[0016] The detection module is used to detect a specific pipe section and obtain data on the flow rate, water pressure, pipe wall temperature and time of the specific pipe section, and transmit the data to the control module;

[0017] The information storage module is used to store the initial data of the specific pipeline and transmit it to the control module;

[0018] The control module obtains the real-time leakage factor of the specific pipe section according to the data obtained by the detection module and the information storage module, and transmits the real-time leakage factor of the specific pipe section to the leakage judgment module;

[0019] The leakage judgment module obtains information on whether a specific pipe section has leakage according to the real-time leakage factor of the specific pipe section, and transmits the information on whether a specific pipe section has leakage to the communication module;

[0020] The communication module transmits information about whether a specific pipe section has leakage to a user end.

[0021] Optionally, the detection module includes a water pressure detection submodule, a flow detection submodule, a time detection submodule, a temperature detection submodule and a thickness detection submodule;

[0022] The water pressure detection submodule is used to detect the water pressure and obtain the water pressure of a specific pipe section at each moment, and transmit it to the control module;

[0023] The flow detection submodule is used to detect the flow and obtain the inlet flow of the specific pipe section at each moment and the outlet flow of the specific pipe section at each moment, and transmit them to the control module;

[0024] The time detection submodule is used to detect the time and obtain the seasonal index and the year corresponding to each moment, and transmit it to the control module;

[0025] The temperature detection submodule is used to detect the temperature and obtain the pipe wall temperature of a specific pipe section at each moment, and transmit it to the control module;

[0026] The thickness detection submodule is used to detect the thickness and obtain the average value of the pipe wall thickness of a specific pipe section at each moment, and transmit it to the control module.

[0027] Optionally, the time detection submodule includes a time recording unit and a time analysis unit;

[0028] The time recording unit is used to record the burying time and each time of the specific pipe section;

[0029] The time analysis unit obtains the year corresponding to each moment according to the analysis of each moment, and transmits the year corresponding to each moment to the control module, obtains the corresponding season according to the analysis of each moment, obtains the seasonal index according to the corresponding season, and transmits the seasonal index to the control module.

[0030] Optionally, the thickness detection submodule includes an X-ray emitting unit, an X-ray detection unit, an image analysis unit and a data analysis unit;

[0031] The X-ray emitting unit is used to emit X-rays;

[0032] The X-ray detection unit is used to capture X-rays and form a captured image;

[0033] The image analysis unit analyzes the captured image according to the brightness difference and obtains the wall thickness of multiple specific pipe sections;

[0034] The data analysis unit obtains an average value of the wall thickness of the specific pipe segment at each moment according to the wall thicknesses of the multiple specific pipe segments, and transmits the average value of the wall thickness of the specific pipe segment at each moment to the control module.

[0035] Optionally, the information storage module is used to store the set time, the buried position index of the specific pipe segment, the selection threshold of the aging value of the specific pipe segment at each time, the total number of welding interfaces of the specific pipe segment and the total length of the specific pipe segment, and transmit it to the control module.

[0036] Optionally, the control module obtains the aging value of the specific pipe segment at each moment based on the average value of the pipe wall thickness of the specific pipe segment at each moment, the average value of the pipe wall thickness of the specific pipe segment at each moment, the year corresponding to each moment, the total number of welding interfaces of the specific pipe segment and the total length of the specific pipe segment; obtains the aging index of the specific pipe segment at each moment based on the aging value of the specific pipe segment at each moment and the selection threshold of the aging value of the specific pipe segment at each moment; obtains the temperature change index based on the set moment and the pipe wall temperature of the specific pipe segment at each moment; obtains the water pressure change index based on the water pressure of the specific pipe segment at each moment and the set moment; and obtains the real-time leakage factor of the specific pipe segment based on the water pressure change index, the inlet flow of the specific pipe segment at each moment, the outlet flow of the specific pipe segment at each moment, the seasonal index, the buried position index of the specific pipe segment, the temperature change index and the aging index of the specific pipe segment at each moment.

[0037] The beneficial effects achieved by the present invention are:

[0038] 1. The elastic parts provide additional support to ensure that the sealing ring can maintain an effective sealing state under water pressure, thereby enhancing the stability of the overall structure. The elastic parts can adapt to different water pressures and flow rates, ensuring good sealing performance under various operating conditions and improving the overall adaptability;

[0039] 2. Efficient sealing design can significantly reduce water leakage, thereby effectively protecting water resources and meeting the needs of sustainable development;

[0040] 3. The detection module in the system can monitor key parameters such as flow, water pressure, pipe wall temperature, etc. of a specific pipe section in real time to ensure continuous and real-time monitoring of the pipeline condition;

[0041] 4. By acquiring multi-dimensional data through the detection module, the system can comprehensively analyze the operation status of the pipeline and improve the accuracy of leakage judgment;

[0042] 5. The information storage module can store the initial data and historical operation data of the pipeline for a long time, providing a complete data background for the system, which is helpful for long-term trend analysis and predictive maintenance;

[0043] 6. The system consists of multiple independent modules (such as detection module, information storage module, control module, etc.). Each module has clear functions and can be upgraded or adjusted independently, which enhances the scalability and flexibility of the system.

[0044] To further understand the features and technical contents of the present invention, please refer to the following detailed description and drawings of the present invention. However, the drawings provided are only for reference and description and are not intended to limit the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0045] Figure 1 is a cross-sectional view of the present invention;

[0046] Figure 2 It is a partial structural schematic diagram of the present invention;

[0047] Figure 3 It is a structural schematic diagram of the detection module in the present invention;

[0048] Figure 4 It is a structural schematic diagram of the time detection submodule in the present invention;

[0049] Figure 5 It is a structural schematic diagram of the thickness detection submodule in the present invention;

[0050] Figure 6 This is a schematic diagram of the overall structure of Embodiment 2 of the present invention;

[0051] Figure 7 This is a schematic diagram of the structure of the infrared thermal imaging detection module in the second embodiment of the present invention;

[0052] Figure 8 It is a schematic diagram of the structure of the ultrasonic detection module in the second embodiment of the present invention.

[0053] Description of reference numerals:

[0054] 100, pipe; 110, snap-fit ​​groove; 120, sliding groove;

[0055] 200, snap ring;

[0056] 300, card connection channel;

[0057] 400, elastic parts;

[0058] 500, sealing ring;

[0059] 600, sliding plate;

[0060] 700. Filter. DETAILED DESCRIPTION

[0061] The following is an explanation of the embodiments of the present invention through specific embodiments. Those skilled in the art can understand the advantages and effects of the present invention from the contents disclosed in this specification. The present invention can be implemented or applied through other different specific embodiments, and the details in this specification can also be modified and changed in various ways based on different viewpoints and applications without departing from the spirit of the present invention. In addition, the drawings of the present invention are only simple schematic illustrations and are not depicted according to actual dimensions. It is stated in advance. The following embodiments will further explain the relevant technical contents of the present invention in detail, but the disclosed contents are not intended to limit the scope of protection of the present invention.

[0062] Embodiment 1: This embodiment provides an intelligent water management system based on artificial intelligence, combined with Figures 1 to 5 shown.

[0063] An intelligent water system based on artificial intelligence, the system has left and right directions, with the front of the water flow direction as the right direction, and the system includes a pipeline 100;

[0064] The left end and the right end of the pipe 100 are respectively provided with a clamping groove 110 and a sliding groove 120, and both the clamping groove 110 and the sliding groove 120 are connected to the pipe 100;

[0065] The pipe 100 is connected to a clamping ring 200 at the position of the clamping groove 110, and a clamping channel 300 is formed between the outer wall of the clamping ring 200 and the inner wall of the pipe 100;

[0066] The pipeline 100 is connected to an elastic member 400 at the position of the sliding groove 120, the elastic force direction of the elastic member 400 is set in the left-right direction, the right end of the elastic member 400 is connected to a sealing ring 500, and the outer wall of the sealing ring 500 is attached to the inner wall of the pipeline 100;

[0067] The elastic member 400 corresponding to one of the pipes 100 pushes the sealing ring 500 to be inserted into the corresponding clamping channel 300 of the adjacent pipe 100, and the right end of the sealing ring 500 abuts against the right end of the clamping channel 300, so that the sealing ring 500 and the corresponding clamping channel 300 are in interference fit. Figure 1 The middle part of the pipeline 100 is repeatedly arranged on the pipeline 100, and the left and right ends of the pipeline 100 are a part of the middle figure.

[0068] Specifically, the ends of two adjacent pipes 100 are fixed by welding.

[0069] Optionally, two sliding plates 600 are connected between the elastic member 400 and the sealing ring 500 located in the same pipe 100 and are spaced apart from each other, and the two sliding plates 600 slide along the sliding groove 120 .

[0070] Optionally, two sliding plates 600 located in the same pipeline 100 extend into the pipeline 100 .

[0071] Optionally, a filter screen 700 is connected between two sliding plates 600 located in the same pipeline 100 .

[0072] Specifically, under the action of the elastic member 400, the sealing ring 500 moves toward the right and extends into the corresponding clamping channel 300, and after water flows into the pipeline 100, the water flows from left to right, and the water flows push the sliding plate 600 to move to the right, further making the sealing ring 500 clamped in the clamping channel 300, and the filter screen 700 is added to increase the contact area between the water and the sliding plate 600, so that the sealing ring 500 extends deeper into the clamping channel 300. The elastic member 400 may be a spring.

[0073] Optionally, the system further includes a detection module, an information storage module, a control module, a leakage judgment module and a communication module;

[0074] The detection module is used to detect a specific pipe section and obtain data on the flow rate, water pressure, pipe wall temperature and time of the specific pipe section, and transmit the data to the control module;

[0075] The information storage module is used to store the initial data of the specific pipeline 100 and transmit it to the control module;

[0076] The control module obtains the real-time leakage factor of the specific pipe section according to the data obtained by the detection module and the information storage module, and transmits the real-time leakage factor of the specific pipe section to the leakage judgment module;

[0077] The leakage judgment module obtains information on whether a specific pipe section has leakage according to the real-time leakage factor of the specific pipe section, and transmits the information on whether a specific pipe section has leakage to the communication module;

[0078] The communication module transmits information about whether a specific pipe section has leakage to a user end.

[0079] Specifically, when the leakage judgment module makes a judgment, it refers to the following principles: when the real-time leakage factor of a specific pipe section is less than or equal to the selection threshold of the real-time leakage factor of the specific pipe section, it indicates that the specific pipe section has leakage; when the real-time leakage factor of the specific pipe section is greater than the selection threshold of the real-time leakage factor of the specific pipe section, it indicates that the specific pipe section has no leakage; the selection threshold of the real-time leakage factor of the specific pipe section is set by those skilled in the art; the specific pipe section is actually a pipeline 100 formed by one or more connections specified by those skilled in the art.

[0080] Optionally, the detection module includes a water pressure detection submodule, a flow detection submodule, a time detection submodule, a temperature detection submodule and a thickness detection submodule;

[0081] The water pressure detection submodule is used to detect the water pressure and obtain the water pressure of a specific pipe section at each moment, and transmit it to the control module;

[0082] The flow detection submodule is used to detect the flow and obtain the inlet flow of the specific pipe section at each moment and the outlet flow of the specific pipe section at each moment, and transmit them to the control module;

[0083] The time detection submodule is used to detect the time and obtain the seasonal index and the year corresponding to each moment, and transmit it to the control module;

[0084] The temperature detection submodule is used to detect the temperature and obtain the pipe wall temperature of a specific pipe section at each moment, and transmit it to the control module;

[0085] The thickness detection submodule is used to detect the thickness and obtain the average value of the pipe wall thickness of a specific pipe section at each moment, and transmit it to the control module.

[0086] Optionally, the time detection submodule includes a time recording unit and a time analysis unit;

[0087] The time recording unit is used to record the burying time and each time of the specific pipe section;

[0088] The time analysis unit obtains the year corresponding to each moment according to the analysis of each moment, and transmits the year corresponding to each moment to the control module, obtains the corresponding season according to the analysis of each moment, obtains the seasonal index according to the corresponding season, and transmits the seasonal index to the control module.

[0089] Optionally, the thickness detection submodule includes an X-ray emitting unit, an X-ray detection unit, an image analysis unit and a data analysis unit;

[0090] The X-ray emitting unit is used to emit X-rays;

[0091] The X-ray detection unit is used to capture X-rays and form a captured image;

[0092] The image analysis unit analyzes the captured image according to the brightness difference and obtains the wall thickness of multiple specific pipe sections;

[0093] The data analysis unit obtains an average value of the wall thickness of the specific pipe segment at each moment according to the wall thicknesses of the multiple specific pipe segments, and transmits the average value of the wall thickness of the specific pipe segment at each moment to the control module.

[0094] Optionally, the information storage module is used to store the set time, the buried position index of the specific pipe segment, the selection threshold of the aging value of the specific pipe segment at each time, the total number of welding interfaces of the specific pipe segment and the total length of the specific pipe segment, and transmit it to the control module.

[0095] Optionally, the control module obtains the aging value of the specific pipe segment at each moment based on the average value of the pipe wall thickness of the specific pipe segment at each moment, the average value of the pipe wall thickness of the specific pipe segment at each moment, the year corresponding to each moment, the total number of welding interfaces of the specific pipe segment and the total length of the specific pipe segment; obtains the aging index of the specific pipe segment at each moment based on the aging value of the specific pipe segment at each moment and the selection threshold of the aging value of the specific pipe segment at each moment; obtains the temperature change index based on the set moment and the pipe wall temperature of the specific pipe segment at each moment; obtains the water pressure change index based on the water pressure of the specific pipe segment at each moment and the set moment; and obtains the real-time leakage factor of the specific pipe segment based on the water pressure change index, the inlet flow of the specific pipe segment at each moment, the outlet flow of the specific pipe segment at each moment, the seasonal index, the buried position index of the specific pipe segment, the temperature change index and the aging index of the specific pipe segment at each moment.

[0096] Optionally, when the control model calculates the real-time leakage factor of a specific pipe section, the following formula is satisfied:

[0097]

[0098] Among them, L(t) is the real-time leakage factor of a specific pipe section, ΔP is the water pressure change index, Q in (t) is the inlet flow rate of a specific pipe section at time t, Q out (t) is the outlet flow of a specific pipe section at time t, J(t) is the seasonal index, J(t) has the following values, J(t) = 1 or J(t) = 0. When J(t) = 0, it means that the season corresponding to time t is winter. In other cases, J(t) = 1. D(t) is the buried position index of a specific pipe section, D(t) has the following values, D(t) = 1 or D(t) = 0. When D(t) = 0, it means that the buried position of the specific pipe section belongs to a complex area. In other cases, D(t) = 1. ΔTEMP is the temperature change index. AGE(t) is the aging index of the specific pipe section at time t.

[0099] Optionally, the following formula is satisfied when calculating the control module:

[0100]

[0101] Among them, p(t) is the water pressure of a specific pipe section at time t, p(t+Δt) is the water pressure of a specific pipe section at time t+Δt, and Δt is the set time; Δt is set by technical personnel in this field according to the detection requirements. If the detection requirements are high, the value can be set smaller and the detection interval can be more dense.

[0102] temp(t) is the wall temperature of a specific pipe section at time t, and temp(t+Δt) is the wall temperature of a specific pipe section at time t+Δt;

[0103] A(t) is the aging value of a specific pipe segment at time t, and a(t) is the selection threshold of the aging value of a specific pipe segment at time t;

[0104] t cs is the burial time of a specific pipe segment, HD(tcs) is the time at which a specific pipe segment is buried at t cs HD(t) is the average wall thickness of a specific pipe section at time t, Y(t) is the year corresponding to time t, and Y(tcs) is the year corresponding to time t. cs The year corresponding to the moment, HJ is the total number of welding joints of a specific pipe section, and CD is the total length of a specific pipe section.

[0105] Specifically, the following matters need to be noted when calculating the real-time leakage factor of a specific pipe section: "specific pipe section" refers to the 100 sections of pipeline to be tested from one node to another node selected by the staff to better judge whether leakage occurs; for a pipe section without leakage, the water pressure tested at any time is the same, and the inlet flow and outlet flow tested at any time are the same; in addition, the probability of leakage in a specific pipe section will be affected by the burial location, season, temperature changes and aging.

[0106] The inlet flow rate of a specific pipe section at time t and the outlet flow rate of a specific pipe section at time t are both in cubic meters per hour. The "inlet" refers to the location of the starting point of the specific pipe 100, and the "outlet" refers to the location of the end point of the specific pipe 100; the square root of multiplication is used for calculation The reason is that when the inlet flow of a specific pipe section at time t and the outlet flow of a specific pipe section at time t are similar, the algorithm can amplify the difference and improve the sensitivity of the calculation. If the inlet flow of a specific pipe section at time t or the outlet flow of a specific pipe section at time t is very small or close to zero, the algorithm can significantly reduce the result, thereby sensitively reflecting abnormal situations.

[0107] Generally speaking, specific pipe sections are most likely to burst in winter because the low temperature causes the material to become brittle, the water freezes and expands in the winter, and heating is required in winter, the water usage will increase, causing the pressure on the specific pipe section to increase accordingly.

[0108] The following items should be noted when calculating the buried location index of a specific pipe section: "Complex areas" include "mountainous and hilly terrain", "frozen areas", "wetlands and swamps", "seismically active areas", "deserts and arid areas", "clay and expansive soil areas", "coastal areas", "areas with dense underground projects", and "river valleys and flood plains".

[0109] The unit of the water pressure of a specific pipe section at time t and the water pressure of a specific pipe section at time t+Δt is Pascal; the set time is set by a person skilled in the art.

[0110] The unit of the pipe wall temperature of a specific pipe section at time t and the pipe wall temperature of a specific pipe section at time t+Δt is both degrees Celsius.

[0111] The selected threshold value of the aging value of a specific pipe segment at time t is set by those skilled in the art.

[0112] The burial time of a specific pipe section can be understood as the time corresponding to the time when the specific pipe section leaves the factory; the total length of the specific pipe section is in meters; the specific pipe section is at t cs The units of the average wall thickness at time t and the average wall thickness of a specific pipe section at time t are both millimeters.

[0113] The above units are only examples, and those skilled in the art may set different units according to actual needs when implementing this solution.

[0114] This embodiment solves the problem of poor real-time performance of traditional water systems. The detection module in the system can monitor key parameters such as flow, water pressure, pipe wall temperature, etc. of a specific pipe section in real time, ensuring continuous and real-time monitoring of the condition of the pipeline 100.

[0115] Embodiment 2: This embodiment includes all the contents of embodiment 1, and provides an intelligent water management system based on artificial intelligence, combined with Figures 6 to 8 shown.

[0116] An intelligent water management system based on artificial intelligence, the system also includes an infrared thermal imaging detection module, an ultrasonic detection module and a repair judgment module;

[0117] The infrared thermal imaging detection module is used to detect and obtain the position of the leakage point on the surface of the specific pipe section, and transmit the position of the leakage point on the surface of the specific pipe section to the ultrasonic detection module, and obtain the total number of leakage points on the surface of the specific pipe section according to the position of the leakage point on the surface of the specific pipe section, and transmit the total number of leakage points on the surface of the specific pipe section to the control module;

[0118] The ultrasonic detection module detects the position of the leakage point on the surface of the specific pipe section, obtains the area of ​​each leakage point and the pipe wall thickness around each leakage point, and transmits the area of ​​each leakage point and the pipe wall thickness around each leakage point to the control module;

[0119] The control module obtains a specific pipe section repair factor according to the total number of leakage points on the surface of the specific pipe section, the area of ​​each leakage point and the pipe wall thickness around each leakage point, and transmits the specific pipe section repair factor to the repair judgment module;

[0120] The repair judgment module obtains information on whether the specific pipe section is difficult to repair or easy to repair according to the repair factor of the specific pipe section, and transmits the information on whether the specific pipe section is difficult to repair or easy to repair to the communication module;

[0121] The communication module transmits information on whether a specific pipe section is difficult to repair or easy to repair to the user end.

[0122] Specifically, when the repair judgment module makes a judgment, the following principles are referred to: when the repair factor of a specific pipe segment is greater than or equal to the selection threshold of the repair factor of the specific pipe segment, it indicates that the specific pipe segment is difficult to repair; when the repair factor of the specific pipe segment is less than the selection threshold of the repair factor of the specific pipe segment, it indicates that the specific pipe segment is easy to repair; the selection threshold of the repair factor of the specific pipe segment is set by a technician in this field.

[0123] Optionally, the infrared thermal imaging detection module includes an infrared camera submodule and an infrared image processing submodule;

[0124] The infrared camera submodule is used to shoot and obtain thermal imaging images;

[0125] The infrared image processing submodule identifies the abnormal temperature area according to the thermal imaging image, marks the abnormal temperature area as a leakage point and locates the position of the leakage point on the surface of the specific pipe section, transmits the position of the leakage point on the surface of the specific pipe section to the ultrasonic detection module, obtains the total number of leakage points on the surface of the specific pipe section according to the position of the leakage point on the surface of the specific pipe section, and transmits the total number of leakage points on the surface of the specific pipe section to the control module.

[0126] Optionally, the ultrasonic detection module includes an ultrasonic probe submodule, an ultrasonic signal analysis submodule and an ultrasonic data analysis submodule;

[0127] The ultrasonic probe submodule moves to the leaking location according to the location of the leaking point on the surface of the specific pipe section, and is used to send high-frequency ultrasonic pulses and receive ultrasonic signals;

[0128] The ultrasonic signal analysis submodule generates a reconstructed three-dimensional image by analyzing the ultrasonic signal;

[0129] The ultrasonic data analysis submodule obtains the area of ​​each leakage point and the pipe wall thickness around each leakage point based on the reconstructed three-dimensional image through image processing algorithm analysis, and transmits the area of ​​each leakage point and the pipe wall thickness around each leakage point to the control module.

[0130] Optionally, when the control module calculates the repair factor of a specific pipe segment, the following formula is satisfied:

[0131]

[0132] Among them, Serious is the repair factor of a specific pipe section, Β is the total number of leakage points on the surface of a specific pipe section, lsm b is the area of ​​the bth leakage point, lsh b is the pipe wall thickness around the bth leakage point.

[0133] Specifically; the unit of the area of ​​the bth leakage point is square centimeters; the unit of the pipe wall thickness at the periphery of the bth leakage point is millimeters; when there are many leakage points corresponding to a specific pipe section and the area of ​​the leakage points is large, the difficulty of repairing the specific pipe section will increase. By calculating the repair factor of the specific pipe section, it will be easier for the staff to detect; when calculating the pipe wall thickness at the periphery of each leakage point, pay attention to the following: "periphery" refers to the position close to the corresponding leakage point; when calculating the area of ​​each leakage point, pay attention to the following: since the pipe section is a curved surface, there may be multiple areas of the same leakage point, so when there are multiple values, take the maximum value.

[0134] The above units are only examples, and those skilled in the art may set different units according to actual needs when implementing this solution.

[0135] This embodiment solves the problem of low detection accuracy in traditional water systems. By combining infrared thermal imaging and ultrasonic detection technology, the system can comprehensively utilize the advantages of different detection methods to accurately locate and evaluate leakage points from multiple dimensions. This multiple detection technology ensures higher detection accuracy and comprehensiveness.

[0136] The contents disclosed above are only preferred feasible embodiments of the present invention, and do not limit the protection scope of the present invention. Therefore, all equivalent technical changes made using the contents of the present invention description and drawings are included in the protection scope of the present invention. In addition, the elements therein can be updated as technology develops.

Claims

1. An intelligent water management system based on artificial intelligence, the system has left and right directions, with the front of the water flow direction as the right direction, characterized in that: The system includes piping; The left end and the right end of the pipeline are respectively provided with a clamping groove and a sliding groove, and both the clamping groove and the sliding groove are communicated with the pipeline; The pipe is connected with a clamping ring at the position of the clamping groove, and a clamping channel is formed between the outer wall of the clamping ring and the inner wall of the pipe; The pipeline is connected to an elastic member at the position of the sliding groove, the elastic force direction of the elastic member is set in the left-right direction, the right end of the elastic member is connected to a sealing ring, and the outer wall of the sealing ring is in contact with the inner wall of the pipeline; The elastic member corresponding to one of the pipes pushes the sealing ring to be inserted into the clamping channel corresponding to the adjacent pipe, and the right end of the sealing ring abuts against the right end of the clamping channel, and the sealing ring and the corresponding clamping channel are in interference fit.

2. The intelligent water management system based on artificial intelligence as claimed in claim 1, characterized in that: Two sliding plates arranged at intervals are connected between the elastic member and the sealing ring of the same pipeline, and the two sliding plates slide along the sliding groove.

3. The intelligent water management system based on artificial intelligence as claimed in claim 2, characterized in that: Two sliding plates located on the same pipe extend into the pipe.

4. The intelligent water management system based on artificial intelligence as claimed in claim 3, characterized in that: A filter screen is connected between two sliding plates located in the same pipeline.

5. The intelligent water management system based on artificial intelligence as claimed in claim 4, characterized in that: The system also includes a detection module, an information storage module, a control module, a leakage judgment module and a communication module; The detection module is used to detect a specific pipe section and obtain data on the flow rate, water pressure, pipe wall temperature and time of the specific pipe section, and transmit the data to the control module; The information storage module is used to store the initial data of the specific pipeline and transmit it to the control module; The control module obtains the real-time leakage factor of the specific pipe section according to the data obtained by the detection module and the information storage module, and transmits the real-time leakage factor of the specific pipe section to the leakage judgment module; The leakage judgment module obtains information on whether a specific pipe section has leakage according to the real-time leakage factor of the specific pipe section, and transmits the information on whether a specific pipe section has leakage to the communication module; The communication module transmits information about whether a specific pipe section has leakage to a user end.

6. The intelligent water management system based on artificial intelligence as claimed in claim 5, characterized in that: The detection module includes a water pressure detection submodule, a flow detection submodule, a time detection submodule, a temperature detection submodule and a thickness detection submodule; The water pressure detection submodule is used to detect the water pressure and obtain the water pressure of a specific pipe section at each moment, and transmit it to the control module; The flow detection submodule is used to detect the flow and obtain the inlet flow of the specific pipe section at each moment and the outlet flow of the specific pipe section at each moment, and transmit them to the control module; The time detection submodule is used to detect the time and obtain the seasonal index and the year corresponding to each moment, and transmit it to the control module; The temperature detection submodule is used to detect the temperature and obtain the pipe wall temperature of a specific pipe section at each moment, and transmit it to the control module; The thickness detection submodule is used to detect the thickness and obtain the average value of the pipe wall thickness of a specific pipe section at each moment, and transmit it to the control module.

7. The intelligent water management system based on artificial intelligence as claimed in claim 6, characterized in that: The time detection submodule includes a time recording unit and a time analysis unit; The time recording unit is used to record the burying time and each time of the specific pipe section; The time analysis unit obtains the year corresponding to each moment according to the analysis of each moment, and transmits the year corresponding to each moment to the control module, obtains the corresponding season according to the analysis of each moment, obtains the seasonal index according to the corresponding season, and transmits the seasonal index to the control module.

8. The intelligent water management system based on artificial intelligence as claimed in claim 7, characterized in that: The thickness detection submodule includes an X-ray emitting unit, an X-ray detection unit, an image analysis unit and a data analysis unit; The X-ray emitting unit is used to emit X-rays; The X-ray detection unit is used to capture X-rays and form a captured image; The image analysis unit analyzes the captured image according to the brightness difference and obtains the wall thickness of multiple specific pipe sections; The data analysis unit obtains an average value of the wall thickness of the specific pipe segment at each moment according to the wall thicknesses of the multiple specific pipe segments, and transmits the average value of the wall thickness of the specific pipe segment at each moment to the control module.

9. The intelligent water management system based on artificial intelligence as claimed in claim 8, characterized in that: The information storage module is used to store the set time, the buried position index of the specific pipe section, the selection threshold of the aging value of the specific pipe section at each time, the total number of welding interfaces of the specific pipe section and the total length of the specific pipe section, and transmit them to the control module.

10. The intelligent water management system based on artificial intelligence according to claim 9, characterized in that: The control module obtains the aging value of the specific pipe segment at each moment according to the average value of the pipe wall thickness of the specific pipe segment at each moment, the average value of the pipe wall thickness of the specific pipe segment at each moment, the year corresponding to each moment, the total number of welding interfaces of the specific pipe segment and the total length of the specific pipe segment; obtains the aging index of the specific pipe segment at each moment according to the aging value of the specific pipe segment at each moment and the selection threshold of the aging value of the specific pipe segment at each moment; obtains the temperature change index according to the set moment and the pipe wall temperature of the specific pipe segment at each moment; obtains the water pressure change index according to the water pressure of the specific pipe segment at each moment and the set moment; and obtains the real-time leakage factor of the specific pipe segment according to the water pressure change index, the inlet flow of the specific pipe segment at each moment, the outlet flow of the specific pipe segment at each moment, the seasonal index, the buried position index of the specific pipe segment, the temperature change index and the aging index of the specific pipe segment at each moment.

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