An underground space flood control management method and system

Abstract

This application discloses an underground space flood control management method and system. The method includes: dynamically obtaining detection information; the detection information includes: the status information of the water level scale and the acquisition data of the water immersion sensor; obtaining the water level status information according to the status information of the water level scale and the acquisition data of the water immersion sensor; confirming the corresponding flood control level according to the water level status information; generating a flood control prompt information according to the flood control level and outputting it; the flood control prompt information includes: personnel flood control operation information, floodgate control information and flood situation information, so that relevant equipment can operate according to the personnel flood control operation information, floodgate control information and flood situation information. According to the technical solution of this application, intelligent monitoring of flood situations is realized, and at the same time, timely and unified prevention and control measures are formed, improving the efficiency of flood control and emergency evacuation and reducing the impact of disasters.

Description

Technical Field

[0001] This application relates to the technical field of urban flood prevention and control, and specifically relates to an underground space flood prevention management method and system. Background Art

[0002] In recent years, as extreme rainfall has breached the safety bottom line of the underground space of the railway, it has caused damage to the underground facilities of the railway, affected the normal operation of the line and the recovery period is long. In severe cases, it even leads to casualties and significant economic losses.

[0003] Currently, although flood prevention and control measures at the entrances of the underground space of the railway have been strengthened in the existing flood prevention system, there is still a lack of a scientific and effective active intelligent flood prevention and emergency evacuation system. First of all, there are no warning measures and response requirements for extreme rainfall or flood disasters in the relevant specifications. Secondly, the emergency plan for flood fighting and rescue in the underground space is not perfect. Emergency resources such as danger prediction and alarm, rescue system, rescue materials, and rescue personnel cannot be organized in a timely and unified manner, and effective linkage cannot be formed, which further deteriorates the dangerous situation.

[0004] Therefore, how to provide an underground space flood prevention management method to implement intelligent monitoring of flood conditions and form timely and unified prevention and control measures has become a problem to be solved in this field. Summary of the Invention

[0005] In view of this, this application proposes an underground space flood prevention management method and system to improve the efficiency of flood prevention management.

[0006] In a first aspect, this application proposes an underground space flood prevention management method, including:

[0007] Dynamically obtain detection information; the detection information includes: the status information of the water level scale and the acquisition data of the water immersion sensor;

[0008] Obtain water level status information according to the status information of the water level scale and the acquisition data of the water immersion sensor;

[0009] Confirm the corresponding flood prevention level according to the water level status information;

[0010] Generate flood prevention prompt information according to the flood prevention level and output it;

[0011] The flood prevention prompt information includes: personnel flood prevention operation information, floodgate control information, and flood condition information, so that relevant equipment operates according to the personnel flood prevention operation information, floodgate control information, and the flood condition information.

[0012] Preferably, the confirming the corresponding flood prevention level according to the water level status information includes:

[0013] Establish a risk model based on the hazard characteristics of disaster-causing factors and the vulnerability characteristics of disaster-bearing bodies;

[0014] Using the risk model, confirm the corresponding flood control level according to the water level status information.

[0015] Further preferably, the confirmation of the corresponding flood control level according to the water level status information further includes:

[0016] Take the historical samples of water level status information and flood control levels as a training set for machine learning training to obtain a scene perception model;

[0017] Using the risk model in combination with the scene perception model, obtain the flood control level corresponding to the current water level status information.

[0018] Further preferably, the historical samples further include: historical samples of meteorological information and underground space area status information; the confirmation of the corresponding flood control level according to the water level status information further includes:

[0019] Take the historical samples of the meteorological information, underground space area status information, water level status information and flood control levels as a training set for machine learning training to obtain a scene perception model;

[0020] Using the risk model in combination with the scene perception model, obtain the corresponding flood control level according to the current meteorological information, underground space area status information and water level status information.

[0021] Further preferably, the confirmation of the corresponding flood control level according to the water level status information further includes:

[0022] Use a water level analysis model to analyze the current water level status information to obtain water level status prediction information;

[0023] According to the water level status prediction information in combination with the risk model, obtain the corresponding flood control level.

[0024] Further preferably:

[0025] The water level analysis model includes: a water level trend analysis algorithm and / or a water level volatility analysis algorithm.

[0026] Further preferably:

[0027] The water level trend analysis algorithm includes: a linear regression analysis algorithm and / or a polynomial regression analysis algorithm;

[0028] The water level volatility analysis algorithm includes: a variance analysis algorithm and / or a spectrum analysis algorithm.

[0029] Preferably, after generating the flood control prompt information according to the flood control level, the method further includes:

[0030] Receiving feedback information of the flood control prompt information, and updating the flood control prompt information according to the feedback information.

[0031] In a second aspect, the present application further provides an underground space flood control management system, which is used to implement the method described in the first aspect above. The system includes: a detection device, a server, and a terminal;

[0032] The detection device includes: a water level scale and a water immersion sensor arranged in the underground space;

[0033] The server generates corresponding flood control prompt information according to the acquisition data of the water immersion sensor sent by the water immersion sensor and the status information of the water level scale obtained, and outputs it to the terminal; the flood control prompt information includes: personnel flood control operation information, floodgate control information, and flood situation information;

[0034] The terminal includes: a workstation, a floodgate, a broadcast, and a display device;

[0035] The workstation prompts personnel to perform corresponding flood control operations according to the personnel flood control operation information;

[0036] The floodgate is adjusted to a corresponding height according to the floodgate control information;

[0037] The broadcast and display device outputs the flood situation information.

[0038] Preferably:

[0039] The detection device further includes: a camera device arranged in the underground space; the system further includes: a meteorological data interface end;

[0040] The camera device is used to generate the state information of the underground space area;

[0041] The meteorological data interface end is used to obtain meteorological information;

[0042] The server is further used to: generate corresponding flood control prompt information according to meteorological information, the state information of the underground space area, the status information of the water level scale, and the acquisition data of the water immersion sensor.

[0043] Preferably:

[0044] The terminal further includes: a user usage end;

[0045] The server is further configured to: output the flood control operation information and / or the flood situation information to the user client for the user client to output the personnel flood control operation information and / or the flood situation information.

[0046] Preferably:

[0047] The system further includes: a material data interface terminal;

[0048] The material data interface terminal is used to obtain material information;

[0049] The server is further configured to: update the personnel flood control operation information according to the material information.

[0050] Preferably:

[0051] The system further includes: a human resources data interface terminal;

[0052] The human resources data interface terminal is used to obtain personnel information;

[0053] The server is further configured to: update the personnel flood control operation information according to the personnel information.

[0054] Preferably:

[0055] The system further includes: a scenario simulation platform;

[0056] The scenario simulation platform generates flood control scenario simulation information according to the water level status information.

[0057] Preferably:

[0058] The system further includes: a dispatching platform;

[0059] The dispatching platform displays the flood control scenario simulation information and receives feedback data input by the user;

[0060] Send the feedback data to the server for the server to update the flood control prompt information according to the feedback data.

[0061] Preferably:

[0062] The system further includes: a data storage device;

[0063] The data storage device is used to store the data and information in the system.

[0064] Preferably:

[0065] The system further includes: an anti-virus device;

[0066] The data anti-virus device is used to provide anti-virus protection for the system.

[0067] The underground space flood control management method provided by this application first obtains the water level status information based on the status information of the water level scale and the acquisition data of the water immersion sensor, then determines the corresponding flood control level according to the water level status information, and finally generates personnel flood control operation information, floodgate control information and flood situation information according to the flood control level, so that relevant equipment operates according to the personnel flood control operation information, floodgate control information and flood situation information, realizing intelligent monitoring of the flood situation, and at the same time forming timely and unified prevention and control measures, improving the efficiency of flood control and emergency evacuation, and reducing the impact of disasters.

[0068] Other features and advantages of this application will be described in detail in the subsequent specific implementation part. BRIEF DESCRIPTION OF THE DRAWINGS

[0069] The drawings forming a part of this application are used to provide a further understanding of this application, and the schematic embodiments and descriptions thereof are used to explain this application. In the drawings:

[0070] Figure 1 It is a flowchart of the underground space flood control management method of the preferred embodiment of this application;

[0071] Figure 2 It is a schematic diagram of the underground space flood control management system of the preferred embodiment of this application;

[0072] Figure 3 It is a schematic diagram of an application scenario of an underground space flood control management method and system of the preferred embodiment of this application;

[0073] Figure 4 It is a schematic diagram of another application scenario of an underground space flood control management method and system of the preferred embodiment of this application.

[0074] Reference numerals in the drawings: 1 - detection device; 11 - water level scale; 12 - water immersion sensor; 13 - imaging device; 2 - server; 3 - terminal; 31 - workstation; 32 - floodgate; 33 - broadcast and display device; 34 - user end; 4 - meteorological data interface end; 5 - material data interface end; 6 - human resources data interface end; 7 - scenario simulation platform; 8 - dispatching platform. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0075] The technical solutions of this application will be described in detail below with reference to the drawings and in combination with the embodiments.

[0076] In the first aspect, as Figure 1 shown, this application provides an underground space flood control management method, including steps 110 - 140:

[0077] Step 110, dynamically obtain detection information;

[0078] Specifically, the detection information can be understood as information that can reflect the flood situation, including: the status information of the water level gauge and the acquisition data of the water immersion sensor. Moreover, the detection information can be dynamically obtained at a preset frequency according to the user's needs.

[0079] In a specific embodiment, the user obtains the current meteorological information through the meteorological data interface. If the current meteorological information is a red rainstorm warning, the frequency of dynamically obtaining the detection information is correspondingly increased.

[0080] Step 120: Obtain the water level status information according to the status information of the water level gauge and the acquisition data of the water immersion sensor;

[0081] Specifically, the status information of the water level gauge can be manually input or obtained through the monitoring device screen. The acquisition data of the water immersion sensor is sent by the water immersion sensor set in the underground space. According to the status information of the water level gauge and the acquisition data of the water immersion sensor, the water level status information in the underground space is comprehensively obtained.

[0082] Step 130: Confirm the corresponding flood control level according to the water level status information;

[0083] Specifically, in actual situations, the flood control requirements corresponding to different underground space area locations may be different. For example, there may be various precision electronic devices arranged in the basement of the underground space. Even if the water level is relatively shallow, a higher flood control level is required. When the water level is relatively shallow at the entrance and exit of the underground space, it has no serious impact on the evacuation of personnel. Therefore, the required flood control level is relatively low. Therefore, when obtaining the corresponding flood control level according to the predicted water level status information, the present application establishes a risk model according to the dangerousness characteristics of the disaster-causing factors and the vulnerability characteristics of the disaster-bearing bodies. The risk model can evaluate the possible damage caused by the disaster-causing factor (water level) to the disaster-bearing bodies (different underground space area locations). Using the risk model, the flood control level corresponding to the water level status information of each underground space area location is obtained.

[0084] Next, in a specific embodiment, the current water level status information can also be analyzed in combination with the scene perception model to generate the corresponding flood control level according to the analysis result.

[0085] First, use the historical samples of the water level status information and the flood control level as the training set for machine learning training to obtain the scene perception model. Then, use the risk model in combination with the scene perception model to analyze the current water level status information to obtain the flood control level corresponding to the current water level status information. The specific training method in this application can adopt any method that can be trained for historical samples, and this application does not make any limitations.

[0086] Preferably, the historical samples in the present application also include: historical samples of meteorological information and underground space area status information. The underground space area status information can be obtained through the screens of various monitoring devices set in the underground space area.

[0087] First, historical samples of meteorological information, underground space regional status information, water level status information, and flood control level are used as training sets for machine learning training to obtain a scene perception model. Then, the risk model is combined with the scene perception model to obtain the corresponding flood control level based on the current meteorological information, underground space regional status information, and water level status information. In this process, due to the combination of meteorological information and underground space regional status information, the final flood control level obtained is more in line with the current meteorological environment and underground space environment status.

[0088] In some more preferred embodiments, the current water level status information may also be analyzed in conjunction with a water level analysis model to generate a corresponding flood control level based on the analysis results.

[0089] The water level analysis model in the present application may include: a water level trend analysis algorithm and / or a water level fluctuation analysis algorithm. The water level trend analysis algorithm and the water level fluctuation analysis algorithm are both analysis methods for predicting water level changes. The water level trend analysis algorithm may specifically include: a linear regression analysis algorithm and / or a polynomial regression analysis algorithm; the water level fluctuation analysis algorithm may specifically include: a variance analysis algorithm and / or a spectrum analysis algorithm.

[0090] Among them, linear regression analysis can be understood as an analysis method that determines whether the water level shows an upward or downward trend by fitting the linear relationship between water level status information and time. This method is simple and intuitive, and can give the long-term trend of water level changes over time.

[0091] Polynomial regression analysis can be understood as an analysis method that converts the nonlinear relationship between variables into a linear relationship by increasing the dimension of the variables of water level status information, and uses the power form of the predicted variable as the new predicted variable. When the water level change trend is more complex and cannot be described by a simple linear relationship, the polynomial regression analysis method can be used. This method describes the complex trend of water level change more accurately by fitting a high-order polynomial.

[0092] Variance analysis can be understood as a method of calculating the variance of water level status information, which can evaluate the volatility of water level. The larger the variance, the more drastic the water level fluctuation; the smaller the variance, the relatively stable the water level.

[0093] Spectral analysis can be understood as a method of converting water level status information into frequency domain representation. By analyzing the intensity and phase information of different frequency components, the periodic characteristics of water level fluctuations can be revealed.

[0094] Using the above analysis method to construct a water level analysis model, parsing the current water level status information, water level status prediction information can be obtained, and then combining with the risk model according to the water level status prediction information, the corresponding flood control level can be obtained.

[0095] Step 140, generating flood control prompt information according to the flood control level and outputting it for relevant devices to work according to the flood control prompt information;

[0096] Specifically, the flood control prompt information in this application includes: personnel flood control operation information, floodgate control information, and flood situation information. This application generates the above flood control prompt information according to the flood control level and outputs it to corresponding workstations, floodgates, and related devices such as broadcasting and display devices for relevant devices to operate according to the above flood control prompt information. For example: the workstation prompts personnel to perform corresponding flood control operations according to the personnel flood control operation information, the floodgate adjusts to the corresponding height according to the floodgate control information, and the broadcasting and display devices output the flood situation information, etc.

[0097] In a specific embodiment, when obtaining the personnel flood control operation information, this application also acquires the current human resources information and material information to generate the personnel flood control operation information according to the current human resources information, material information, and flood control level. Among them, the human resources information can be understood as the relevant information of the available human resources in the current underground space, and the material information can be understood as the relevant information of the available materials in the current underground space. When the workstation prompts personnel to perform corresponding flood control operations according to the personnel flood control operation information, relevant personnel can be more reasonably assigned tasks and view the situation of relevant available flood control materials.

[0098] Moreover, the rising height of the floodgate is related to the flood control level. The floodgate is a flood prevention device installed on the ground of the underground space and can be lifted upwards. If the flood control level rises, the floodgate also needs to rise accordingly according to the floodgate control information. If the flood control level drops, the floodgate also needs to drop accordingly according to the floodgate control information.

[0099] Moreover, after the flood situation information is broadcast by the underground space broadcasting device and displayed by the display device, it can also be prompted to relevant personnel outside the underground space through receiving terminals such as mobile phones to achieve full warning for personnel inside and outside the space.

[0100] In some more optimal embodiments, after generating the flood control prompt information according to the flood control level, this application also receives the feedback information of the flood control prompt information and dynamically updates the flood control prompt information according to the feedback information. The feedback information of the prompt information can be input by the user or obtained according to the detection information in the next time period dynamically obtained. That is to say, the final flood control prompt information in this application is not fixed, but will be dynamically adjusted according to the situation, which is more conducive to improving the flood control and emergency evacuation efficiency and reducing the impact of disasters.

[0101] The flood control management method for underground space provided by this application first obtains the water level status information based on the status information of the water level scale and the acquisition data of the waterlogging sensor, then determines the corresponding flood control level according to the water level status information, and finally generates the personnel flood control operation information, floodgate control information, and flood situation information based on the flood control level, so that relevant equipment operates according to the personnel flood control operation information, floodgate control information, and flood situation information, realizing intelligent monitoring of the flood situation, while forming timely and unified prevention and control measures, improving the efficiency of flood control and emergency evacuation, and reducing the impact of disasters.

[0102] In the second aspect, as Figure 2 shown, this application also provides an underground space flood control management system, which is used to implement the underground space flood control management method provided in the first aspect above. Specifically, the system includes: a detection device 1, a server 2, and a terminal 3.

[0103] Among them, the detection device 1 includes: a water level scale 11 and a waterlogging sensor 12 arranged in the underground space. The server 2 generates corresponding flood control prompt information based on the acquisition data of the waterlogging sensor sent by the waterlogging sensor 12 and the status information of the water level scale 11 obtained, and outputs it to the terminal 3. The terminal 3 includes: a workstation 31, a floodgate 32, a broadcast and display device 33. The flood control prompt information includes: personnel flood control operation information, floodgate control information, and flood situation information. The workstation 31 prompts personnel to perform corresponding flood control operations according to the personnel flood control operation information, the floodgate 32 is adjusted to the corresponding height according to the floodgate control information, and the broadcast and display device 33 outputs the flood situation information.

[0104] In a specific embodiment, the detection device 1 in this application further includes: a camera device 13 arranged in the underground space; this system further includes: a meteorological data interface 4. The camera device 13 is used to generate the status information of the underground space area, and the meteorological data interface 4 is used to obtain meteorological information. Based on the above structure, the server 2 can also generate corresponding flood control prompt information according to the meteorological information, the status information of the underground space area, the status information of the water level scale, and the acquisition data of the waterlogging sensor.

[0105] In some other specific embodiments, the terminal 3 in this application further includes: a user usage end 34. The user usage end 34 can be a terminal with information transmission function, such as a mobile phone, a computer, etc. The server 2 is further used for: outputting flood control operation information and / or the flood situation information to the user usage end 34, so that the user usage end 34 outputs the personnel flood control operation information and / or the flood situation information to the user.

[0106] In some other specific embodiments, the system in the present application further includes: a material data interface end 5 and a human resource data interface end 6. The material data interface end 5 is used to obtain material information. The human resource data interface end 6 is used to obtain personnel information. Based on the above structure, the server 2 can also update the personnel flood control operation information according to the material information and / or the personnel information. That is to say, in the present application, the personnel flood control operation information can also be adjusted by obtaining the currently available human resources and material resources, so that relevant personnel can be more reasonably assigned tasks and view the relevant available flood control materials.

[0107] In some other specific embodiments, the system in the present application further includes: a scenario simulation platform 7. The scenario simulation platform 7 generates flood control scenario simulation information according to the water level status information. The flood control scenario simulation information can be understood as information for providing event restoration and / or event simulation and / or risk trend deduction. The scenario simulation platform 7 can provide a graphical interface through a preset algorithm to create a scenario, which includes elements such as terrain, buildings, personnel, and equipment, and uses a three-dimensional graphical interface to display the simulation results, including environmental changes, participant actions, and resource allocation, etc., which can be specifically implemented through a BIM model and evacuation simulation software. The scenario simulation platform 7 is conducive to post-flood review and summary.

[0108] In some other specific embodiments, the system in the present application further includes: a dispatching platform 8. The dispatching platform 8 receives and displays to the user the flood control scenario simulation information generated by the scenario simulation platform 7 to receive feedback data input by the user according to the flood control scenario simulation information. And, the dispatching platform 8 can also send the feedback data to the server 2 for the server 2 to update the flood control prompt information according to the feedback data.

[0109] In this context, the server 2, the scenario simulation platform 7, and the dispatching platform 8 constitute an interactive flood control management system including data collection, scenario simulation, and user interaction, improving the comprehensive control ability of the management system.

[0110] In some other specific embodiments, the system in the present application further includes: a data storage device (not shown in the figure), and the data storage device is used to store various data and information in the system of the present application, including the collected data, the generated information, and the corresponding time process information, etc.

[0111] In some other specific embodiments, the system in the present application further includes: an anti-virus device (not shown in the figure), and the anti-virus device is used to provide anti-virus protection for the present system. Ensure the security and availability of the system.

[0112] The other preferred embodiments, the technical problems that can be solved, and the technical effects that can be achieved in the second aspect of the present application are the same as those in the first aspect, and will not be elaborated here.

[0113] Next, the application of the flood control management method and system provided by this application will be specifically explained through two embodiments:

[0114] As Figure 3 shown, in an application scenario combining the flood control management method and system of this application, cameras, water level gauges, and water immersion sensors in the underground space can monitor the status of the underground space in real time. If the conditions for personnel evacuation are met, the evacuation is authorized to start through the underground space flood control management system server, and at the same time, alarms, broadcasts, control of the floodgate to rise to the corresponding height, and the opening of access control and ticket gates are initiated. And when the personnel are completely evacuated, the floodgate is fully activated, and when it is detected that the water level has receded, the floodgate is retracted.

[0115] As Figure 4 shown, in another application scenario combining the flood control management method and system of this application, the flood control management system architecture can include multiple sub-modules. For example, a scenario simulation platform that can achieve real-time monitoring and auxiliary decision-making, a dispatching platform that can achieve panoramic flood control and emergency command, and a server that can achieve risk management, emergency management, equipment management, and system management. The functions of these sub-modules are realized through different applications A(n), and the flood control management system architecture can be extended with other sub-modules to achieve other functions.

[0116] The preferred embodiments of this application have been described in detail above. However, this application is not limited to the specific details in the above embodiments. Within the scope of the technical concept of this application, various simple modifications can be made to the technical solution of this application, and these simple modifications all fall within the protection scope of this application.

[0117] In addition, it should be noted that, in the case of no contradiction, the various specific technical features described in the above specific embodiments can be combined in any appropriate way. To avoid unnecessary repetition, this application will not separately explain various possible combination methods.

[0118] Furthermore, any combination can be made between various different embodiments of this application as long as it does not violate the idea of this application, and it should also be regarded as the content disclosed in this invention.

Claims

1. A method for flood control management of underground space, characterized in that, The method includes: Dynamically obtaining detection information; the detection information includes: status information of the water level scale and acquisition data of the water immersion sensor; Based on the status information of the water level scale and the acquisition data of the water immersion sensor, obtaining the current water level status information; Establishing a risk model according to the water level danger characteristics and the vulnerability characteristics of different underground space area locations; Using the water level analysis model to analyze the current water level status information to obtain water level status prediction information; According to the water level status prediction information and in combination with the risk model, obtaining the corresponding flood control level; Generating flood control prompt information according to the flood control level and outputting it; The flood control prompt information includes: personnel flood control operation information, floodgate control information and flood situation information, for relevant equipment to operate according to the personnel flood control operation information, floodgate control information and the flood situation information.

2. The method according to claim 1, wherein: The water level analysis model includes: a water level trend analysis algorithm and / or a water level volatility analysis algorithm.

3. The method according to claim 2, wherein: The water level trend analysis algorithm includes: a linear regression analysis algorithm and / or a polynomial regression analysis algorithm; The water level volatility analysis algorithm includes: an analysis of variance algorithm and / or a spectrum analysis algorithm.

4. The method according to claim 1, characterized in that, After generating the flood control prompt information according to the flood control level, the method further includes: Receiving feedback information of the flood control prompt information and updating the flood control prompt information according to the feedback information.

5. An underground space flood control management system, characterized in that The system is used to implement the method according to any one of claims 1-4. The system includes: detection equipment, a server and a terminal; The detection equipment includes: a water level scale and a water immersion sensor arranged in the underground space; The server generates corresponding flood control prompt information according to the acquisition data of the water immersion sensor sent by the water immersion sensor and the obtained status information of the water level scale, and outputs it to the terminal; the flood control prompt information includes: personnel flood control operation information, floodgate control information and flood situation information; The terminal includes: a workstation, a floodgate, a broadcast and a display device; The workstation prompts personnel to perform corresponding flood control operations according to the personnel flood control operation information; The floodgate is adjusted to a corresponding height according to the floodgate control information; The broadcast and display device outputs the flood situation information.

6. The system according to claim 5, wherein: The detection equipment further includes: a camera device arranged in the underground space; the system further includes: a meteorological data interface terminal; The camera device is used to generate underground space area status information; The meteorological data interface terminal is used to obtain meteorological information; The server is further used to: generate corresponding flood control prompt information according to the meteorological information, the underground space area status information, the status information of the water level scale and the acquisition data of the water immersion sensor.

7. The system according to claim 5, wherein: The terminal further includes: a user usage end; The server is further configured to: output the flood control operation information and / or the flood situation information to the user terminal for the user terminal to output the personnel flood control operation information and / or the flood situation information.

8. The system according to claim 5, wherein: The system further includes: a material data interface terminal; The material data interface terminal is used to obtain material information; The server is further configured to: update the personnel flood control operation information according to the material information.

9. The system according to claim 5, wherein: The system further includes: a human resources data interface terminal; The human resources data interface terminal is used to obtain personnel information; The server is further configured to: update the personnel flood control operation information according to the personnel information.

10. The system according to claim 5, wherein: The system further includes: a scenario simulation platform; The scenario simulation platform generates flood control scenario simulation information according to the water level status information.

11. The system according to claim 10, wherein: The system further includes: a dispatching platform; The dispatching platform displays the flood control scenario simulation information and receives feedback data input by the user; Send the feedback data to the server for the server to update the flood control prompt information according to the feedback data.

12. The system according to claim 5, wherein: The system further includes: a data storage device; The data storage device is used to store the data and information in the system.

13. The system according to claim 5, wherein: The system further includes: an anti-virus device; The data anti-virus device is used to provide anti-virus protection for the system.

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