Hydraulic engineering operation safety monitoring system and operation method

Abstract

The invention relates to the technical field of hydraulic engineering safety, in particular to a hydraulic engineering operation safety monitoring system and an operation method, and the system comprises a hydraulic engineering safety presetting module, a data basic acquisition module, a basic data comparison module, a region division module, an alarm module, a deep data acquisition module and a deep analysis module. In this way, the basic data of the water conservancy project are monitored in real time, the basic data are put on the 3D model to be displayed in real time, the 3D model is divided into areas, when the basic data are abnormal, the abnormal areas can be subjected to deep-level data monitoring, the monitoring accuracy is guaranteed, and then the specific operation condition of the water conservancy project is analyzed; when no abnormal condition exists, deep monitoring does not need to be carried out, so that the monitoring cost can be reduced, and the consumption of resource equipment is reduced; and meanwhile, during deep monitoring, monitoring is carried out aiming at independent divided areas, so that the monitoring range is reduced, and the monitoring efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of water conservancy project safety, and in particular to a water conservancy project operation safety monitoring system and operation method. Background Art

[0002] Water conservancy projects usually include various types such as reservoirs, levees, sluices, hydropower stations and water conservancy hubs. The safety of water conservancy projects is directly related to the safety of people’s lives and property, as well as the stability and development of the economy and society. Therefore, in order to ensure the safe operation of water conservancy projects, comprehensive monitoring is required in the planning, design, construction and operation management of water conservancy projects.

[0003] However, in the aforementioned prior art, in order to ensure the safe operation of the water conservancy project, it is necessary to monitor all areas and all data of the water conservancy project in real time. Maintaining real-time and comprehensive monitoring will inevitably consume a lot of resources and costs, and reducing the monitored data will affect the monitoring accuracy. Therefore, it is currently impossible to maintain excellent safety monitoring efficiency and quality while saving energy and reducing costs. Summary of the invention

[0004] The purpose of the present invention is to provide a water conservancy project operation safety monitoring system and operation method, so as to solve the problem in the prior art that in order to ensure the operation safety of the water conservancy project, all areas and all data of the water conservancy project need to be monitored in real time, and maintaining real-time and comprehensive monitoring will inevitably consume a lot of resources and costs, and reducing the monitored data will affect the monitoring accuracy; therefore, it is currently impossible to maintain excellent safety monitoring efficiency and quality while saving energy and reducing costs.

[0005] To achieve the above-mentioned object, the present invention provides a water conservancy project operation safety monitoring system, comprising a water conservancy project safety preset module, a data basic acquisition module, a basic data comparison module, a regional division module, an alarm module, a deep data acquisition module and a deep analysis module, wherein the water conservancy project safety preset module, the data basic acquisition module, the basic data comparison module, the regional division module, the alarm module, the deep data acquisition module and the deep analysis module are connected in sequence;

[0006] The water conservancy project safety preset module is used to construct a 3D model of the water conservancy project and preset preset values ​​of safety data on the 3D model;

[0007] The basic data collection module is used to collect comprehensive data on water conservancy projects and obtain basic data packages;

[0008] The basic data comparison module is used to compare the data in the basic data packet with the preset value of the water conservancy project safety preset module to obtain the basic abnormal value of the basic data;

[0009] The area division module is used to divide the water conservancy project into different areas on the 3D model, and different areas are displayed by different colors;

[0010] The alarm module is used to generate an alarm after analyzing the dangerous situation of the water conservancy project;

[0011] The deep data collection module is used to collect deep data on the area where the basic abnormal value is located to obtain a deep data packet;

[0012] The deep analysis module is used to perform deep analysis on the area where the basic outlier value is located.

[0013] Wherein, the water conservancy project safety preset module includes a 3D scanning unit, a model building unit, a visualization unit and a standard data preset unit, and the 3D scanning unit, the model building unit, the visualization unit and the standard data preset unit are connected in sequence;

[0014] The 3D scanning unit is used to comprehensively scan the water conservancy project through a laser scanner and a high-precision camera to obtain point cloud data and images;

[0015] The model building unit is used to generate a 3D model of the water conservancy project through the point cloud data and the image;

[0016] The visualization unit is used to visualize the 3D model to the staff using software;

[0017] The standard data preset unit is used to set preset values ​​of safety data of the water conservancy project.

[0018] Wherein, the basic data acquisition module includes a water level acquisition unit, a water flow acquisition unit, an environmental meteorological acquisition unit, an equipment status acquisition unit and a basic data packaging unit, and the water level acquisition unit, the water flow acquisition unit, the environmental meteorological acquisition unit, the equipment status acquisition unit and the basic data packaging unit are connected in sequence;

[0019] The water level acquisition unit is used to collect data on the water level of the water conservancy project;

[0020] The water flow collection unit is used to collect data on the water flow of the water conservancy project, and the water flow data includes flow size and flow velocity;

[0021] The environmental meteorological collection unit is used to collect data on the environmental meteorological conditions of the water conservancy project, and the environmental meteorological conditions include rainfall, wind speed and temperature;

[0022] The equipment status acquisition unit is used to collect data on the equipment of the water conservancy project, and the equipment data includes the start, stop or fault conditions of the pump station, valves and gates;

[0023] The basic data packaging unit packages and integrates the collected data to obtain a basic data packet.

[0024] Wherein, the alarm module comprises a basic abnormality display unit, a comparison jump unit and a deep alarm unit, and the basic abnormality display unit, the comparison jump unit and the deep alarm unit are connected in sequence;

[0025] The basic abnormality display unit is used to highlight the data corresponding to the basic abnormal value in the 3D model;

[0026] The comparison jump unit is used to jump the data of the basic abnormal value from the basic data comparison module to the deep analysis module for deep analysis;

[0027] The deep alarm unit is used to give an alarm through an audible and visual alarm after obtaining the deep analysis result.

[0028] Wherein, the deep data acquisition module includes a geological detection unit, a structural deformation detection unit, a stress detection unit and a deep data packaging unit, and the geological detection unit, the structural deformation detection unit, the stress detection unit and the deep data packaging unit are connected in sequence;

[0029] The geological detection unit is used to detect geological disasters in the water conservancy project area where the basic abnormal value is located;

[0030] The structural deformation detection unit is used to collect data on the deformation of the water conservancy project;

[0031] The stress detection unit is used to detect stress data of the water conservancy project area where the basic abnormal value is located;

[0032] The deep data packaging unit is used to package the collected deep data to obtain a deep data packet.

[0033] Wherein, the deep analysis module comprises a deep analysis database construction unit, a deep abnormal data input unit, a deep abnormal data analysis unit and a deep abnormal result display unit, and the deep analysis database construction unit, the deep abnormal data input unit, the deep abnormal data analysis unit and the deep abnormal result display unit are connected in sequence;

[0034] The deep analysis database construction unit is used to construct a deep analysis database;

[0035] The deep abnormal data input unit is used to input the deep data packet into the deep analysis database;

[0036] The deep abnormal data analysis unit is used to compare and analyze the deep data packet with all the data in the deep analysis database in sequence to obtain the result corresponding to each data in the deep data packet;

[0037] The deep abnormal result display unit is used to display the abnormal result of the deep analysis in the corresponding area of ​​the basic abnormal value in the 3D model.

[0038] Wherein, the deep analysis database construction unit includes a data correlation sorting subunit and a data trend sorting subunit, and the data correlation sorting subunit and the data trend sorting subunit are connected;

[0039] The data correlation sorting subunit is used to record the cause of each deep data in the water conservancy project and sort them in sequence;

[0040] The data trend sorting subunit is used to record and sort in sequence the dangerous situations that may occur in each data of the water conservancy project over time.

[0041] The present invention also provides a method for operating a water conservancy project operation safety monitoring system, which uses the water conservancy project operation safety monitoring system described above and comprises the following steps:

[0042] Construct a 3D model through the water conservancy safety preset module, and set the safety preset value of the data on the 3D model;

[0043] Collect basic data through the basic data collection module;

[0044] Compare the basic data with the preset value to obtain the basic abnormal value;

[0045] Performing deep data collection on the area where the basic abnormal value is located to obtain a deep data packet;

[0046] Performing in-depth analysis on the in-depth data packet;

[0047] The analysis results are displayed in the corresponding area of ​​the 3D model, and an alarm is issued to remind the staff.

[0048] A water conservancy project operation safety monitoring system and operation method of the present invention, the water conservancy project safety preset module is used to construct a 3D model of the water conservancy project and preset the preset value of the safety data on the 3D model; the data basic acquisition module is used to perform comprehensive data acquisition on the water conservancy project to obtain a basic data packet; the basic data comparison module is used to compare the data in the basic data packet with the preset value of the water conservancy project safety preset module to obtain the basic abnormal value of the basic data; the area division module is used to divide the water conservancy project into different areas on the 3D model, and different areas are displayed by different colors; the alarm module is used to alarm after analyzing the dangerous situation of the water conservancy project; the deep data acquisition module is used to perform deep data acquisition on the area where the basic abnormal value is located to obtain a deep data packet; the deep analysis module is used to perform deep analysis on the area where the basic abnormal value is located;

[0049] Therefore, the basic data of the water conservancy project is first monitored in real time, and the basic data is projected onto the 3D model for real-time display, and the 3D model is divided into regions. When the basic data is abnormal, the abnormal area can be deeply monitored to ensure the accuracy of the monitoring, and then the specific operation status of the water conservancy project can be analyzed; when there is no abnormality, there is no need for deep monitoring, which can reduce the monitoring cost and the consumption of resources and equipment; at the same time, in deep monitoring, separate divided areas are monitored to narrow the monitoring scope and improve the monitoring efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0050] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art are briefly introduced below.

[0051] Figure 1 It is a schematic diagram of the water conservancy project operation safety monitoring system of the present invention.

[0052] Figure 2 It is a schematic diagram of the water conservancy project safety preset module of the present invention.

[0053] Figure 3 It is a schematic diagram of the data base acquisition module of the present invention.

[0054] Figure 4 It is a schematic diagram of the alarm module of the present invention.

[0055] Figure 5 It is a schematic diagram of the deep data acquisition module of the present invention.

[0056] Figure 6 It is a schematic diagram of the deep analysis module of the present invention.

[0057] Figure 7It is a schematic diagram of the deep analysis database construction unit of the present invention.

[0058] Figure 8 It is a flow chart of the steps of the operation method of the water conservancy project operation safety monitoring system of the present invention.

[0059] 1- Water conservancy project safety preset module, 101- 3D scanning unit, 102- model building unit, 103- visualization unit, 104- standard data preset unit, 2- data basic acquisition module, 201- water level acquisition unit, 202- water flow acquisition unit, 203- environmental meteorological acquisition unit, 204- equipment status acquisition unit, 205- basic data packaging unit, 3- basic data comparison module, 4- area division module, 5- alarm module, 501- basic abnormal display unit, 502- comparison Jump unit, 503-deep alarm unit, 6-deep data acquisition module, 601-geological detection unit, 602-structural deformation detection unit, 603-stress detection unit, 604-deep data packaging unit, 7-deep analysis module, 701-deep analysis database construction unit, 7011-data correlation sorting subunit, 7012-data trend sorting subunit, 702-deep abnormal data input unit, 703-deep abnormal data analysis unit, 704-deep abnormal result display unit. DETAILED DESCRIPTION

[0060] Embodiments of the present invention are described in detail below. Examples of the embodiments are shown in the accompanying drawings. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, but should not be construed as limiting the present invention.

[0061] See also Figures 1 to 7 The present invention provides a water conservancy project operation safety monitoring system, which specifically includes:

[0062] The water conservancy project safety preset module 1 is used to construct a 3D model of the water conservancy project and preset preset values ​​of safety data on the 3D model;

[0063] Specifically include:

[0064] The 3D scanning unit 101 is used to comprehensively scan the water conservancy project through a laser scanner and a high-precision camera to obtain point cloud data and images;

[0065] By combining laser scanners with high-precision cameras for scanning, we can obtain point cloud data and high-precision images, which can then be used for subsequent modeling.

[0066] The model building unit 102 is used to generate a 3D model of a water conservancy project through the point cloud data and the image;

[0067] The point cloud data is preprocessed, and then features are extracted, and then a clustering algorithm is used to produce a three-dimensional model. The image is then mapped onto the three-dimensional model to improve the realism of the model.

[0068] The visualization unit 103 is used to visualize the 3D model to the staff using software;

[0069] The produced 3D model is input into the visualization software, converted into a visualization model, and then displayed in real time on the display screen so that the staff can observe the operational safety of the water conservancy project at any time.

[0070] The standard data preset unit 104 is used to set the preset value of the safety data of the water conservancy project.

[0071] The safety data of water conservancy projects in various areas are preset. If the basic data of subsequent monitoring does not exceed the preset value, it means that the operation of the water conservancy project is in a safe state.

[0072] The basic data collection module 2 is used to collect comprehensive data on water conservancy projects to obtain basic data packages;

[0073] Specifically include:

[0074] The water level acquisition unit 201 is used to collect data on the water level of the water conservancy project;

[0075] All water levels of water conservancy projects are monitored and collected for subsequent comparison with preset values. At the same time, when setting the preset value of the water level, it is set to a range. Above the preset range, it means that the water level is too high, which will increase the pressure on the reservoir dam and increase the risk of dam damage or dam failure. Below the preset range, it means that the water level is too low, which will reduce the water storage capacity of the reservoir, resulting in a decrease in water supply capacity, affecting water demand in surrounding areas, resulting in a reduction in wetland area, affecting the balance of the wetland ecosystem, and having a negative impact on the survival and reproduction of aquatic plants and animals.

[0076] The water flow collection unit 202 is used to collect data on the water flow of the water conservancy project, and the water flow data includes flow size and flow velocity;

[0077] Flow rate and flow velocity are directly related to the safety and efficiency of water conservancy projects. When the flow rate exceeds the design carrying capacity of water conservancy projects, it may cause dangerous situations such as overflow and breach of water conservancy facilities such as channels, reservoirs and levees, aggravate the scouring effect of water conservancy projects, cause erosion and damage of riverbeds and river banks, and affect the stability and safety of water conservancy projects; too small a flow rate may cause water conservancy projects to be unable to meet the needs of irrigation, water supply, power generation, etc., affecting production and life in surrounding areas. In dry seasons or arid areas, too small a flow rate may also aggravate the problem of water shortage and have an adverse impact on the ecological environment and agricultural production; too large a flow velocity may aggravate the scouring effect of water conservancy projects and damage water conservancy facilities such as channels, reservoirs and levees. In channels, too large a flow velocity may also cause safety hazards such as water derailment and leakage; too small a flow velocity may cause poor water flow, affecting the water delivery efficiency and irrigation effect of water conservancy projects.

[0078] The environmental meteorological collection unit 203 is used to collect data on the environmental meteorological conditions of the water conservancy project, and the environmental meteorological conditions include rainfall, wind speed and temperature;

[0079] Excessive rainfall may cause the reservoir to exceed its water storage capacity, triggering flood discharge and increasing flood risks. Extreme rainfall may also cause natural disasters such as mudslides and landslides in the surrounding areas of the reservoir, causing impacts or damage to the reservoir dam. The river runoff increases sharply, which may cause flooding, submerging downstream areas, affecting crop growth, and even causing casualties and property losses; high wind speeds will produce wind pressure on the dam, causing vibration and displacement of the dam body. Long-term or high-intensity wind blowing may damage the dam structure and reduce its stability; high wind speeds will produce wind pressure on the dam, causing vibration and displacement of the dam body. Long-term or high-intensity wind blowing may damage the dam structure and reduce its stability; high temperature may cause changes in the performance of building materials (such as concrete, steel, etc.) of water conservancy projects such as dams, such as reduced strength and increased expansion coefficient, thereby affecting the overall stability and safety of the project. Therefore, it is particularly important to monitor environmental meteorology.

[0080] The equipment status acquisition unit 204 is used to collect data on the equipment of the water conservancy project, and the equipment data includes the start, stop or fault conditions of the pump station, valves and gates;

[0081] By monitoring the status of the equipment, it can be determined whether the equipment is operating normally, which is particularly important for the safety of water conservancy plants.

[0082] The basic data packaging unit 205 packages and integrates the collected data to obtain a basic data packet.

[0083] The data is packaged and compressed and sent uniformly for subsequent comparison operations.

[0084] The basic data comparison module 3 is used to compare the data in the basic data package with the preset value of the water conservancy project safety preset module 1 to obtain the basic abnormal value of the basic data;

[0085] Each basic data is compared separately, and the basic data within the corresponding preset value range is ignored, otherwise it is marked as the basic abnormal value.

[0086] The area division module 4 is used to divide the water conservancy project into different areas on the 3D model, and different areas are displayed by different colors;

[0087] After dividing the 3D model into regions, it is convenient to carry out targeted in-depth monitoring of different areas, avoiding global monitoring during monitoring, which can greatly improve the monitoring efficiency.

[0088] The alarm module 5 is used to generate an alarm after analyzing the dangerous situation of the water conservancy project;

[0089] Specifically include:

[0090] The basic abnormality display unit 501 is used to highlight the data corresponding to the basic abnormal value in the 3D model;

[0091] When data is abnormal, it will be highlighted first to alert staff and thus improve the safety of water conservancy projects.

[0092] The comparison jump unit 502 is used to jump the data of the basic abnormal value from the basic data comparison module 3 to the deep analysis module 7 for deep analysis;

[0093] After highlighting, you can perform in-depth collection based on the area where the abnormal data is located, and then perform in-depth analysis.

[0094] The deep alarm unit 503 is used to give an alarm through an audible and visual alarm after obtaining the deep analysis result.

[0095] After in-depth analysis, if the results show that the area where the abnormal data is located is indeed dangerous or abnormal, an audible and visual alarm will be used to further alert staff and improve the safety of water conservancy projects.

[0096] The deep data acquisition module 6 is used to perform deep data acquisition on the area where the basic abnormal value is located to obtain a deep data packet;

[0097] Specifically include:

[0098] The geological detection unit 601 is used to detect geological disasters in the water conservancy project area where the basic abnormal value is located;

[0099] Once a geological disaster such as landslide, mud-rock flow, collapse, etc. occurs in a water conservancy project, it may cause serious damage to the water conservancy facilities, and even cause the dam to deform, leak or collapse, thus causing serious safety accidents. Through geological disaster detection, potential geological disaster risks can be discovered in time, and corresponding prevention and control measures can be taken to effectively avoid or reduce the occurrence of disasters and ensure the safe operation of water conservancy projects.

[0100] The structural deformation detection unit 602 is used to collect data on the deformation of the water conservancy project;

[0101] In water conservancy projects, deformation monitoring of structures such as dams and levees is crucial to ensure flood and drought resistance. Once abnormal deformation is detected, measures can be taken immediately to reinforce or repair them to prevent catastrophic accidents.

[0102] The stress detection unit 603 is used to detect stress data of the water conservancy project area where the basic abnormal value is located;

[0103] Stress is the internal force generated by hydraulic structures such as dams when they are subjected to internal and external loads. By monitoring stress, the stress state of dams and other structures can be grasped in real time, and their safety hazards can be discovered and assessed in a timely manner. When the water pressure, earthquake and other external forces on the dam exceed its bearing capacity, excessive stress will be generated, which may lead to accidents such as dam rupture or landslides. Therefore, monitoring stress is a key means to prevent such disasters.

[0104] The deep data packaging unit 604 is used to package the collected deep data to obtain a deep data packet.

[0105] The deep data is packaged, compressed and sent uniformly for subsequent deep analysis.

[0106] The deep analysis module 7 is used to perform deep analysis on the area where the basic abnormal value is located.

[0107] Specifically include:

[0108] The deep analysis database construction unit 701 is used to construct a deep analysis database;

[0109] Specifically include:

[0110] The data correlation sorting subunit 7011 is used to record the cause of each deep data in the water conservancy project and sort them in sequence;

[0111] The staff records the cause of each abnormal deep data in the database in advance; then when the deep data is input into the database for comparison, the system can quickly find the abnormal cause corresponding to the deep data, greatly improving the analysis efficiency.

[0112] The data trend sorting subunit 7012 is used to record and sort the dangerous situations that may occur in each data of the water conservancy project over time.

[0113] The staff will record in the database in advance the dangerous situations that each deep data will generate over time; then when the deep data is entered into the database for comparison, the system can quickly find the subsequent trend changes of the deep data, greatly improving the analysis efficiency.

[0114] The deep abnormal data input unit 702 is used to input the deep data packet into the deep analysis database;

[0115] The deep abnormal data analysis unit 703 is used to compare and analyze the deep data packet with all the data in the deep analysis database in sequence to obtain the result corresponding to each data in the deep data packet;

[0116] The deep abnormal result display unit 704 is used to display the abnormal result of the deep analysis in the corresponding area of ​​the basic abnormal value in the 3D model.

[0117] The analysis results are displayed directly on the specific area of ​​the 3D model, making it easy for staff to observe intuitively.

[0118] See also Figure 8 The present invention also provides a method for operating a water conservancy project operation safety monitoring system, comprising the following steps:

[0119] S1: constructing a 3D model through the water conservancy safety preset module, and setting the safety preset value of the data on the 3D model;

[0120] S2: Collect basic data through the basic data collection module 2;

[0121] S3: Compare the basic data with the preset value to obtain the basic abnormal value;

[0122] S4: performing deep data collection on the area where the basic abnormal value is located to obtain a deep data packet;

[0123] S5: Performing deep analysis on the deep data packet;

[0124] S6: The analysis results are displayed in the corresponding area of ​​the 3D model, and an alarm is issued to remind the staff.

[0125] Among them, a 3D model is constructed through the water conservancy safety preset module, and a safety preset value of the data is set on the 3D model; basic data is collected through the data basic acquisition module 2; the basic data is compared with the preset value to obtain a basic abnormal value; deep data collection is performed on the area where the basic abnormal value is located to obtain a deep data packet; a deep analysis is performed on the deep data packet; the analysis results are displayed in the corresponding area of ​​the 3D model, and an alarm is issued to remind the staff.

[0126] What is disclosed above is only one or more preferred embodiments of the present application, and cannot be used to limit the scope of rights of the present application. Ordinary technicians in this field can understand that all or part of the processes of implementing the above embodiments and equivalent changes made according to the claims of the present application are still within the scope covered by the present application.

Claims

1. A water conservancy project operation safety monitoring system, characterized in that: It includes a water conservancy project safety preset module, a data basic acquisition module, a basic data comparison module, a regional division module, an alarm module, a deep data acquisition module and a deep analysis module, wherein the water conservancy project safety preset module, the data basic acquisition module, the basic data comparison module, the regional division module, the alarm module, the deep data acquisition module and the deep analysis module are connected in sequence; The water conservancy project safety preset module is used to construct a 3D model of the water conservancy project and preset preset values ​​of safety data on the 3D model; The basic data collection module is used to collect comprehensive data on water conservancy projects and obtain basic data packages; The basic data comparison module is used to compare the data in the basic data packet with the preset value of the water conservancy project safety preset module to obtain the basic abnormal value of the basic data; The area division module is used to divide the water conservancy project into different areas on the 3D model, and different areas are displayed by different colors; The alarm module is used to generate an alarm after analyzing the dangerous situation of the water conservancy project; The deep data collection module is used to collect deep data on the area where the basic abnormal value is located to obtain a deep data packet; The deep analysis module is used to perform deep analysis on the area where the basic outlier value is located.

2. The water conservancy project operation safety monitoring system according to claim 1, characterized in that: The water conservancy project safety preset module includes a 3D scanning unit, a model building unit, a visualization unit and a standard data preset unit, and the 3D scanning unit, the model building unit, the visualization unit and the standard data preset unit are connected in sequence; The 3D scanning unit is used to comprehensively scan the water conservancy project through a laser scanner and a high-precision camera to obtain point cloud data and images; The model building unit is used to generate a 3D model of the water conservancy project through the point cloud data and the image; The visualization unit is used to visualize the 3D model to the staff using software; The standard data preset unit is used to set preset values ​​of safety data of the water conservancy project.

3. The water conservancy project operation safety monitoring system according to claim 2, characterized in that: The basic data acquisition module includes a water level acquisition unit, a water flow acquisition unit, an environmental meteorological acquisition unit, an equipment status acquisition unit and a basic data packaging unit, and the water level acquisition unit, the water flow acquisition unit, the environmental meteorological acquisition unit, the equipment status acquisition unit and the basic data packaging unit are connected in sequence; The water level acquisition unit is used to collect data on the water level of the water conservancy project; The water flow collection unit is used to collect data on the water flow of the water conservancy project, and the water flow data includes flow size and flow velocity; The environmental meteorological collection unit is used to collect data on the environmental meteorological conditions of the water conservancy project, and the environmental meteorological conditions include rainfall, wind speed and temperature; The equipment status acquisition unit is used to collect data on the equipment of the water conservancy project, and the equipment data includes the start, stop or fault conditions of the pump station, valves and gates; The basic data packaging unit packages and integrates the collected data to obtain a basic data packet.

4. The water conservancy project operation safety monitoring system according to claim 3, characterized in that: The alarm module comprises a basic abnormality display unit, a comparison jump unit and a deep alarm unit, wherein the basic abnormality display unit, the comparison jump unit and the deep alarm unit are connected in sequence; The basic abnormality display unit is used to highlight the data corresponding to the basic abnormal value in the 3D model; The comparison jump unit is used to jump the data of the basic abnormal value from the basic data comparison module to the deep analysis module for deep analysis; The deep alarm unit is used to give an alarm through an audible and visual alarm after obtaining the deep analysis result.

5. The water conservancy project operation safety monitoring system according to claim 4, characterized in that: The deep data acquisition module includes a geological detection unit, a structural deformation detection unit, a stress detection unit and a deep data packaging unit, and the geological detection unit, the structural deformation detection unit, the stress detection unit and the deep data packaging unit are connected in sequence; The geological detection unit is used to detect geological disasters in the water conservancy project area where the basic abnormal value is located; The structural deformation detection unit is used to collect data on the deformation of the water conservancy project; The stress detection unit is used to detect stress data of the water conservancy project area where the basic abnormal value is located; The deep data packaging unit is used to package the collected deep data to obtain a deep data packet.

6. The water conservancy project operation safety monitoring system according to claim 5, characterized in that: The deep analysis module comprises a deep analysis database construction unit, a deep abnormal data input unit, a deep abnormal data analysis unit and a deep abnormal result display unit, wherein the deep analysis database construction unit, the deep abnormal data input unit, the deep abnormal data analysis unit and the deep abnormal result display unit are connected in sequence; The deep analysis database construction unit is used to construct a deep analysis database; The deep abnormal data input unit is used to input the deep data packet into the deep analysis database; The deep abnormal data analysis unit is used to compare and analyze the deep data packet with all the data in the deep analysis database in sequence to obtain the result corresponding to each data in the deep data packet; The deep abnormal result display unit is used to display the abnormal result of the deep analysis in the corresponding area of ​​the basic abnormal value in the 3D model.

7. The water conservancy project operation safety monitoring system according to claim 6, characterized in that: The deep analysis database construction unit includes a data correlation sorting subunit and a data trend sorting subunit, and the data correlation sorting subunit is connected to the data trend sorting subunit; The data correlation sorting subunit is used to record the cause of each deep data in the water conservancy project and sort them in sequence; The data trend sorting subunit is used to record and sort in sequence the dangerous situations that may occur in each data of the water conservancy project over time.

8. A method for operating a water conservancy project operation safety monitoring system, using the water conservancy project operation safety monitoring system according to claim 7, characterized in that: The steps include: Construct a 3D model through the water conservancy safety preset module, and set the safety preset value of the data on the 3D model; Collect basic data through the basic data collection module; Compare the basic data with the preset value to obtain the basic abnormal value; Performing deep data collection on the area where the basic abnormal value is located to obtain a deep data packet; Performing in-depth analysis on the in-depth data packet; The analysis results are displayed in the corresponding area of ​​the 3D model, and an alarm is issued to remind the staff.

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