Urban pipe network management system and method based on GIS

Abstract

The invention discloses an urban pipe network management system and method based on a GIS, and particularly relates to the field of geographic information systems. Comprising a management area division module, a building / geographic information data acquisition module, a building / geographic information data processing module, a pipeline BIM modeling module, a pipe network management rationality index calculation module, a pipe network management rationality index judgment module and a data interaction and transmission module. According to the invention, the data interaction and transmission module receives a geometric model under a three-dimensional GIS engine transmitted by the pipeline BIM modeling module and outputs a general data exchange format containing accurate three-dimensional space geographic coordinates, so that data integration and display on a GIS platform are facilitated, and management personnel are assisted in quickly responding and processing problems.

Description

Technical Field

[0001] The present invention relates to the technical field of geographic information systems, and more specifically, to a GIS-based urban pipe network management system and method. Background Art

[0002] With the rapid development of urban infrastructure construction, people's demand for urban pipe network systems in daily life is also increasing. The role of various types of pipe networks, including water supply, drainage, gas, heat, etc. in daily life is becoming more and more important. It plays an important role in ensuring the safety of urban water supply and drainage, improving resource utilization efficiency, and promoting urban sustainable development. Therefore, the development of a GIS-based urban pipe network management system and method is of great significance to the realization of intelligent and information management of urban pipe networks.

[0003] The traditional urban pipe network management system includes a data acquisition module, a data processing and analysis module, a monitoring center module, and an alarm and emergency handling module. The data acquisition module collects various data of the urban pipe network system through sensors and instrumentation equipment to ensure the accuracy of the data; the data processing and analysis module cleans, converts, integrates and processes the collected data to form a unified data format and uses data analysis technology to conduct in-depth mining of the pipe network data, providing information on pipe network operation status analysis, fault warning, and energy consumption analysis, and providing data support for management decisions; the monitoring center module is responsible for receiving, storing, displaying and analyzing processed data, and displaying the operation status of the pipe network system in a visual way to help managers fully understand the situation of the pipe network system; the alarm and emergency handling module will automatically trigger the alarm mechanism and notify relevant personnel when an abnormal situation occurs in the pipe network system, and at the same time provide emergency handling plans and suggestions to assist managers to respond and handle problems quickly.

[0004] However, it still has some shortcomings in actual use, such as inaccurate data collection. The data acquisition module collects various data of the urban pipe network system through sensors at regular intervals, but does not collect data in real time, resulting in inaccurate system data collection; data collection is not comprehensive. During data collection, only the data collected by the sensor is collected, and the universal data exchange format of three-dimensional spatial geographic coordinates is not considered, and real-time changes to municipal pipeline facilities cannot be achieved; there is a lack of human-computer interaction. The system only displays the operating status of the pipe network system, and relies entirely on data analysis and processing technology to process the pipe network system. It cannot provide an interactive interface for operations such as equipment parameter setting and layout adjustment.

[0005] Therefore, there is an urgent need to provide a GIS-based urban pipe network management system and method to solve the problems of incomplete data collection, insufficient data accuracy, and drone interaction in the existing urban pipe network management system. Summary of the invention

[0006] In order to overcome the above-mentioned defects of the prior art, an embodiment of the present invention provides a GIS-based urban pipe network management system to solve the problems raised in the above-mentioned background technology.

[0007] To achieve the above object, the present invention provides the following technical solution, a GIS-based urban pipe network management system, comprising:

[0008] Management area division module: used to determine the target city as the target monitoring area, and divide the target monitoring area into monitoring sub-areas according to the road network formed by the central axis of the main roads in the target monitoring area, so as to obtain different monitoring sub-areas of the city, and number them as 1, 2, ..., n in sequence, and in each monitoring sub-area, each building is numbered and marked as 1, 2, ..., m in sequence;

[0009] Building information data acquisition module: used for real-time data acquisition of building information for each building 1-m in each monitoring sub-area 1-n of the target monitoring area, wherein the data includes fluctuation parameters affecting the building water supply system, fluctuation parameters affecting the building drainage system, fluctuation parameters affecting the building gas system, fluctuation parameters affecting the building thermal system, and building information model data of each building in the monitoring sub-area;

[0010] Building information data processing module: used for analyzing and processing the building information data collected in real time from each building in each monitoring sub-area in the building information data acquisition module, and obtaining the building water supply system influence fluctuation coefficient, the building drainage system influence fluctuation coefficient, the building gas system influence fluctuation coefficient and the building thermal system influence fluctuation coefficient; the building information data processing module includes a building water supply system influence fluctuation coefficient calculation unit, a building drainage influence fluctuation coefficient calculation unit, a building gas system influence fluctuation coefficient calculation unit and a building thermal system influence fluctuation coefficient calculation unit;

[0011] Geographic information data acquisition module: used for real-time data acquisition of geographic information for each monitoring sub-area 1-n of the target monitoring area, wherein the data includes geographic information water supply system influencing fluctuation parameters, geographic information drainage system influencing fluctuation parameters, geographic information gas system influencing fluctuation parameters, geographic information thermal system influencing fluctuation parameters, and geographic information model data of the monitoring sub-area;

[0012] Geographic information data processing module: used for analyzing and processing the geographic information data collected in real time from each monitoring sub-area in the geographic information data collection module, and obtaining the fluctuation coefficient of the geographic water supply system, the fluctuation coefficient of the geographic drainage system, the fluctuation coefficient of the geographic gas system, and the fluctuation coefficient of the geographic thermal system; the geographic information data processing module includes a calculation unit for the fluctuation coefficient of the geographic water supply system, a calculation unit for the fluctuation coefficient of the geographic drainage system, a calculation unit for the fluctuation coefficient of the geographic gas system, and a calculation unit for the fluctuation coefficient of the geographic thermal system;

[0013] Pipeline BIM modeling module: used to fuse the building information model data collected by the building information data collection module with the geographic information model collected by the geographic data collection module, and then use the CGA rule programming language of the city engine to model the comprehensive pipeline BIM, and drive the GIS vector information features related to the municipal pipeline to generate a geometric model based on the three-dimensional GIS engine, and transmit the geometric model to the data interaction transmission module;

[0014] Pipeline network management rationality index calculation module: used to import the real-time building water supply system influence fluctuation coefficient, building drainage system influence fluctuation coefficient, building gas system influence fluctuation coefficient, building thermal system influence fluctuation coefficient, geographical water supply system influence fluctuation coefficient, geographical drainage system influence fluctuation coefficient, geographical gas system influence fluctuation coefficient and geographical thermal system influence fluctuation coefficient calculated by the building information data processing module into the pipeline network management rationality index mathematical model to obtain the pipeline network management rationality index value;

[0015] Pipeline network management rationality judgment module: used to compare the management rationality value calculated by the pipeline network management index calculation module with the management rationality value under the normal working state of the preset pipeline network management system, calculate the difference between the real-time pipeline network management rationality value and the management rationality value under the normal working state of the preset pipeline network management system, and when the difference is greater than the preset difference, transmit the difference to the data interaction transmission module;

[0016] Data interaction and transmission module: It is used to receive the geometric model transmitted by the pipeline BIM modeling module, and transmit the difference value calculated by the pipeline network management rationality judgment module to the administrator's data terminal, providing the administrator with reference data for warning and making adjustment measures.

[0017] Furthermore, the building information data processing module includes a building water supply system influence fluctuation coefficient calculation unit, a building drainage system influence fluctuation coefficient calculation unit, a building gas system influence fluctuation coefficient calculation unit and a building thermal system influence fluctuation coefficient calculation unit; the geographic information data processing module includes a geographic water supply system influence fluctuation coefficient calculation unit, a geographic drainage system influence fluctuation coefficient calculation unit, a geographic gas system influence fluctuation coefficient calculation unit and a geographic thermal system influence fluctuation coefficient calculation unit.

[0018] Furthermore, the building water supply system influencing fluctuation parameter includes the building water demand per unit time of the jth building in the i-th monitoring area, denoted as and its building water supply rate, denoted as Unit time Δt; the building drainage system influencing fluctuation parameters include the building drainage demand per unit time of the jth building in the i-th monitoring area, denoted as and its building drainage rate, denoted as Unit time Δt; the building gas system influencing fluctuation parameters include the building gas demand per unit time of the jth building in the i-th monitoring area, denoted as and its building gas usage rate, denoted as Unit time Δt; the building thermal system influencing fluctuation parameters include the building unit time thermal demand of the jth building in the i-th monitoring area, denoted as The building heat use rate is denoted as Unit time Δt; where i represents the i-th monitoring area and j represents the j-th building.

[0019] Furthermore, the building water supply system influence fluctuation coefficient calculation unit is used to import the building water supply system influence fluctuation parameters into the building water supply system influence fluctuation coefficient model to obtain the building water supply system influence fluctuation coefficient value; the building drainage system influence fluctuation coefficient calculation unit is used to import the building drainage system influence fluctuation parameters into the building drainage system influence fluctuation coefficient model to obtain the building drainage system influence fluctuation coefficient value; the building gas system influence fluctuation coefficient calculation unit is used to import the building gas system influence fluctuation parameters into the building gas system influence fluctuation coefficient model to obtain the building gas system influence fluctuation coefficient value; the building thermal system influence fluctuation coefficient calculation unit is used to import the building thermal system influence fluctuation parameters into the building thermal system influence fluctuation coefficient model to obtain the building thermal system influence fluctuation coefficient value.

[0020] Furthermore, the building water supply system influence fluctuation coefficient model is specifically: The influence fluctuation coefficient model of the building drainage system is specifically as follows: The building gas system impact fluctuation coefficient model is specifically: The building thermal system influence fluctuation coefficient model is specifically:

[0021] Furthermore, the influencing fluctuation parameter of the geographic information water supply system includes the number of geographic water supply pipelines in the monitoring area, denoted as P n , the scheduled water supply of the geographical water supply pipeline in the i-th monitoring sub-area, denoted as And the geographical water supply pipeline operation rate of the i-th monitoring sub-area is denoted as Unit time Δt; the fluctuation parameter affecting the geographic information drainage system includes the number of geographic drainage pipes in the monitoring area, denoted as D n , the scheduled drainage volume of the geographical drainage pipe in the i-th monitoring sub-area is recorded as and the geographical drainage pipe operation rate of the ith monitoring sub-area, denoted as Unit time Δt; the geographic information gas system influencing fluctuation parameters include the number of geographic gas pipelines in the monitoring area, denoted as Q n , the scheduled gas supply of the geographical gas pipeline in the ith monitoring sub-area is recorded as The geographical gas pipeline operation rate of the i-th monitoring sub-area is denoted as Unit time Δt; the influencing fluctuation parameter of the geographic information thermal system includes the number of geographic thermal pipelines in the monitoring area, denoted as R n , the heat supply of the geothermal pipeline in the i-th monitoring sub-area is recorded as The operation rate of the geothermal pipeline in the i-th monitoring sub-area is denoted as Unit time Δt; where i represents the i-th monitoring sub-area.

[0022] Furthermore, the geographic water supply system impact fluctuation coefficient calculation unit is used to import the geographic water supply system impact fluctuation parameters into the geographic water supply system impact fluctuation coefficient model to obtain the geographic water supply system impact fluctuation coefficient value; the geographic drainage system impact fluctuation coefficient calculation unit is used to import the geographic drainage system impact fluctuation parameters into the geographic drainage system impact fluctuation coefficient model to obtain the geographic drainage system impact fluctuation coefficient value; the geographic gas system impact fluctuation coefficient calculation unit is used to import the geographic gas system impact fluctuation parameters into the geographic gas system impact fluctuation coefficient model to obtain the geographic gas system impact fluctuation coefficient value; the geographic thermal system impact fluctuation coefficient calculation unit is used to import the geographic thermal system impact fluctuation parameters into the geographic thermal system impact fluctuation coefficient model to obtain the geographic thermal system impact fluctuation coefficient value.

[0023] Furthermore, the fluctuation coefficient model of the geographical water supply system is specifically: The fluctuation parameter model of the geographic information drainage system is specifically as follows: The geographic information gas system influencing fluctuation parameter model is specifically: The influencing fluctuation parameter model of the geographic information thermal system is specifically as follows:

[0024] Furthermore, the mathematical model of the pipe network management rationality index is specifically: in, v 实 represents the rationality of the actual management mode of the pipe network calculated in real time, v 上限 represents the management rationality calculated from the maximum demand of the urban pipe network, v 下限 It indicates the management rationality calculated based on the minimum demand of the urban pipe network.

[0025] In a second aspect, a GIS-based urban pipe network management method is provided, which is used to use the above-mentioned GIS-based urban pipe network management system, and includes the following steps:

[0026] Step S1: Division of management area: used to determine the target city as the target monitoring area, divide the target monitoring area into multiple monitoring sub-areas according to the road network formed by the central axis of the main road in the target monitoring area, and number all monitoring sub-areas in the form of 1, 2, ..., n; secondly, perform secondary numbering on the buildings in all monitoring sub-areas in the form of 1, 2, ..., m;

[0027] Step S2: Building information data collection: used to collect real-time building information data from 1 to m buildings in 1 to n monitoring sub-areas, and transmit the collected building information water supply, drainage, gas and thermal system influencing fluctuation parameter data to the building information data processing module to calculate the influencing fluctuation parameters of each system, and in addition, transmit the collected building information model data to the pipeline BIM modeling module to generate a geometric model;

[0028] Step S3: Building information data processing: used to analyze and process the building information data collected in real time in the building information data collection module, wherein the building water supply system influencing fluctuation parameters are imported into the building water supply system influencing fluctuation coefficient model to obtain the building water supply system influencing fluctuation coefficient, the building drainage system influencing fluctuation parameters are imported into the building drainage system influencing fluctuation coefficient model to obtain the building drainage system influencing fluctuation coefficient, the building gas system influencing fluctuation parameters are imported into the building gas system influencing fluctuation coefficient model to obtain the building gas system influencing fluctuation coefficient, and the building thermal system influencing fluctuation parameters are imported into the building thermal system influencing fluctuation coefficient model to obtain the building thermal system influencing fluctuation coefficient;

[0029] Step S4: Geographic information data collection: used to collect real-time data of geographic information from 1 to n monitoring sub-areas, and transmit the collected geographic information water supply, drainage, gas and thermal system fluctuation parameter data to the geographic information data processing module to calculate the fluctuation parameters of each system. In addition, the collected geographic information model data is transmitted to the pipeline BIM modeling module to generate a geometric model;

[0030] Step S5: Geographic information data processing: used to analyze and process the geographic information data collected in real time in the geographic information data collection module, wherein the fluctuation parameters affecting the geographic water supply system are imported into the fluctuation coefficient model affecting the geographic water supply system to obtain the fluctuation coefficient affecting the geographic water supply system, the fluctuation parameters affecting the geographic drainage system are imported into the fluctuation coefficient model affecting the geographic drainage system to obtain the fluctuation coefficient affecting the geographic drainage system, the fluctuation parameters affecting the geographic gas system are imported into the fluctuation coefficient model affecting the geographic gas system to obtain the fluctuation coefficient affecting the geographic gas system, and the fluctuation parameters affecting the geographic thermal system are imported into the fluctuation coefficient model affecting the geographic thermal system to obtain the fluctuation coefficient affecting the geographic thermal system;

[0031] Step S6: Pipeline BIM modeling: used to fuse the building information model collected by the building information data collection module with the geographic information model collected by the geographic data collection module, and then use the CGA rule programming language of the city engine to model the comprehensive pipeline BIM, and drive the GIS vector information features related to the municipal pipeline to generate a geometric model based on the three-dimensional GIS engine, and transmit the geometric model to the data interaction transmission module;

[0032] Step S7: Calculation of pipe network management rationality index: used to import the real-time building water supply system influence fluctuation coefficient, building drainage system influence fluctuation coefficient, building gas system influence fluctuation coefficient, building thermal system influence fluctuation coefficient calculated in step S3, and the real-time geographical water supply system influence fluctuation coefficient, geographical drainage system influence fluctuation coefficient, geographical gas system influence fluctuation coefficient, geographical thermal system influence fluctuation coefficient calculated in step S5 into the pipe network management rationality index mathematical model, and calculate the real-time pipe network management rationality index value;

[0033] Step S8: judging the rationality of pipe network management: used to compare the real-time rationality value of pipe network management with the preset rationality value of management under normal operation of the pipe network management system, calculate the difference between the real-time rationality value of pipe network management and the preset rationality value of management under normal operation of the pipe network management system, and when the difference is greater than the preset difference, transmit the difference to the data interaction transmission module;

[0034] Step S9: Data interaction and transmission: used to receive the geometric model transmitted by the pipeline BIM modeling module, and transmit the difference value calculated by the pipeline network management rationality judgment module to the administrator's data terminal, providing the administrator with reference data for warning and making adjustment measures.

[0035] Technical effects and advantages of the present invention:

[0036] 1. The present invention collects various data of the urban pipe network system in real time through sensors during data collection, thereby ensuring the accuracy and effectiveness of system data collection;

[0037] 2. The present invention uses the data collected by the building information data acquisition module and the geographic information data acquisition module to perform pipeline BIM modeling, obtains a geometric model based on a three-dimensional GIS engine, and provides a visual interactive interface, so that users can make real-time changes to municipal pipeline facilities, and can be quickly and widely applied to smart cities, digital twins and other fields;

[0038] 3. The present invention accepts the geometric model under the three-dimensional GIS engine transmitted by the pipeline BIM modeling module through the data interaction transmission module and outputs a universal data exchange format containing accurate three-dimensional spatial geographic coordinates, which facilitates data integration and display on the GIS platform and assists management personnel to quickly respond to and handle problems. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0040] Figure 2 It is a schematic diagram of the structure of the method of the present invention. DETAILED DESCRIPTION

[0041] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0042] As attached Figure 1A GIS-based urban pipe network management system shown includes: a management area division module, a building information data acquisition module, a building information data processing module, a geographic information data acquisition module, a geographic information data processing module, a pipeline BIM modeling module, a pipe network management rationality index calculation module, a pipe network management rationality judgment module, and a data interaction and transmission module; the building information data processing module includes a building water supply system influence fluctuation coefficient calculation unit, a building drainage system influence fluctuation coefficient calculation unit, a building gas system influence fluctuation coefficient calculation unit, and a building thermal system influence fluctuation coefficient calculation unit; the geographic information data processing module includes a geographic water supply system influence fluctuation coefficient calculation unit, a geographic drainage system influence fluctuation coefficient calculation unit, a geographic gas system influence fluctuation coefficient calculation unit, and a geographic thermal system influence fluctuation coefficient calculation unit.

[0043] The output end of the management area division module is telecommunication connected to the input end of the building information data acquisition module, the output end of the building information data acquisition module is telecommunication connected to the input end of the building information data processing module, the output end of the building information data acquisition module is telecommunication connected to the input end of the pipeline BIM modeling module, the output end of the building information data processing module is telecommunication connected to the input end of the pipe network management rationality index calculation module, the output end of the management area division module is telecommunication connected to the input end of the geographic information data acquisition module, the output end of the geographic information data acquisition module is telecommunication connected to the input end of the geographic information data processing module, the output end of the geographic information data acquisition module is telecommunication connected to the input end of the pipeline BIM modeling module, the output end of the geographic information data processing module is telecommunication connected to the input end of the pipe network management rationality index calculation module, the output end of the pipeline BIM modeling module is telecommunication connected to the input end of the data interactive transmission module, the output end of the pipe network management rationality index calculation module is telecommunication connected to the input end of the pipe network management rationality judgment module, and the output end of the pipe network management rationality judgment module is telecommunication connected to the input end of the data interactive transmission module.

[0044] The management area division module is used to determine the target city as the target monitoring area, and divide the target monitoring area into monitoring sub-areas according to the road network formed by the interaction of the central axes of the main roads in the target monitoring area, so as to obtain different monitoring sub-areas of the city, and number them in sequence as 1, 2, ..., n, and in each monitoring sub-area, each building is numbered and marked in sequence as 1, 2, ..., m.

[0045] The building information data acquisition module is used to collect real-time data of building information for each building (1-m) within each monitoring sub-area (1-n) of the target monitoring area, wherein the data includes fluctuation parameters affecting the building water supply system, fluctuation parameters affecting the building drainage system, fluctuation parameters affecting the building gas system, fluctuation parameters affecting the building thermal system, and building information model data of each building in each monitoring sub-area.

[0046] In this embodiment, it should be specifically noted that the building water supply system influencing fluctuation parameter includes the building water supply per unit time of the jth building in the i-th monitoring area, which is recorded as and its building water supply rate, denoted as Unit time Δt (h); the building drainage system influencing fluctuation parameter includes the building drainage demand per unit time of the jth building in the i-th monitoring area, recorded as and its building drainage rate, denoted as Unit time Δt (h); the building gas system influencing fluctuation parameters include the building gas demand per unit time of the jth building in the i-th monitoring area, denoted as and its building gas usage rate, denoted as Unit time Δt (h); the building thermal system influencing fluctuation parameters include the building unit time thermal demand of the jth building in the i-th monitoring area, denoted as The building heat use rate is denoted as Unit time Δt(h); where i represents the i-th monitoring area and j represents the j-th building.

[0047] The building information data processing module is used to analyze and process the data collected in the building information data acquisition module to obtain the building water supply system influencing fluctuation coefficient, the building drainage system influencing fluctuation parameter, the building gas system influencing fluctuation coefficient and the building thermal system influencing fluctuation coefficient.

[0048] The building water supply system influence fluctuation coefficient calculation unit is used to import the building water supply system influence fluctuation parameters into the building water supply system influence fluctuation coefficient model to obtain the building water supply system influence fluctuation coefficient value; the building drainage system influence fluctuation coefficient calculation unit is used to import the building drainage system influence fluctuation parameters into the building drainage system influence fluctuation coefficient model to obtain the building drainage system influence fluctuation coefficient value; the building gas system influence fluctuation coefficient calculation unit is used to import the building gas system influence fluctuation parameters into the building gas system influence fluctuation coefficient model to obtain the building gas system influence fluctuation coefficient value; the building thermal system influence fluctuation coefficient calculation unit is used to import the building thermal system influence fluctuation parameters into the building thermal system influence fluctuation coefficient model to obtain the building thermal system influence fluctuation coefficient value.

[0049] In this embodiment, it should be specifically noted that the model of the fluctuation coefficient of the building water supply system is: The influence fluctuation coefficient model of the building drainage system is specifically as follows: The building gas system impact fluctuation coefficient model is specifically: The building thermal system influence fluctuation coefficient model is specifically:

[0050] The geographic information data acquisition module is used to perform real-time data acquisition of geographic information for each monitoring sub-area (1-n) of the target monitoring area, wherein the data includes geographic information water supply system influencing fluctuation parameters, geographic drainage system influencing fluctuation parameters, geographic information gas system influencing fluctuation parameters, geographic information thermal system influencing fluctuation parameters, and geographic information model data.

[0051] In this embodiment, it should be specifically noted that the geographic information water supply system influencing fluctuation parameter includes the number of geographic water supply pipelines in the target monitoring area (ie, the target city), denoted as P n (bars), and the geographical water supply pipeline operation rate of the ith monitoring sub-area, denoted as The scheduled water supply volume of the geographical water supply pipeline in the i-th monitoring sub-area is denoted as Unit time Δt (h); the fluctuation parameter affecting the geographical drainage system includes the number of geographical drainage pipes in the monitoring area, denoted as D n (bar), the scheduled drainage volume of the geographical drainage pipe in the ith monitoring sub-area, denoted as and the geographical drainage pipe operation rate of the ith monitoring sub-area, denoted as Unit time Δt (h); the geographic gas system influencing fluctuation parameters include the number of geographic gas pipelines in the monitoring area, denoted as Q n (bar), the scheduled gas supply of the geographical gas pipeline in the ith monitoring sub-area, denoted as and the geographical gas pipeline operation rate of the ith monitoring sub-area, denoted as Unit time Δt (h); the geothermal system influencing fluctuation coefficient parameters include the number of geothermal pipelines, denoted as R n (bars), the scheduled heating supply of the geothermal pipeline in the ith monitoring sub-area, denoted as and the operation rate of the geothermal pipeline in the ith monitoring sub-area, denoted as Unit time Δt(h); where i represents the i-th monitoring sub-area.

[0052] The geographic information data processing module is used to analyze and process the data collected in the geographic information data collection module to obtain the fluctuation coefficient of the geographic water supply system, the fluctuation coefficient of the geographic drainage system, the fluctuation coefficient of the geographic gas system and the fluctuation coefficient of the geographic thermal system.

[0053] The geographic water supply system impact fluctuation coefficient calculation unit is used to import the geographic water supply system impact fluctuation parameters into the geographic water supply system impact fluctuation coefficient model to obtain the geographic water supply system impact fluctuation coefficient value; the geographic drainage system impact fluctuation coefficient calculation unit is used to import the geographic drainage system impact fluctuation parameters into the geographic drainage system impact fluctuation coefficient model to obtain the geographic drainage system impact fluctuation coefficient value; the geographic gas system impact fluctuation coefficient calculation unit is used to import the geographic gas system impact fluctuation parameters into the geographic gas system impact fluctuation coefficient model to obtain the geographic gas system impact fluctuation coefficient value; the geographic thermal system impact fluctuation coefficient calculation unit is used to import the geographic thermal system impact fluctuation parameters into the geographic thermal system impact fluctuation coefficient model to obtain the geographic thermal system impact fluctuation coefficient value.

[0054] In this embodiment, it should be specifically explained that the fluctuation coefficient model of the geographical water supply system is specifically: The fluctuation coefficient model of the geographical drainage system is specifically: The geo-gas system influencing fluctuation coefficient mold body is: The geothermal system impact fluctuation coefficient model is specifically:

[0055] The pipeline BIM modeling module is used to fuse the building information model collected by the building information data collection module with the geographic information model collected by the geographic data collection module, providing a comprehensive pipeline BIM modeling solution, using the CGA rule programming language of the city engine to drive the GIS vector information features related to the municipal pipeline, generate a geometric model based on the three-dimensional GIS engine, and provide a visual interactive interface.

[0056] The pipe network management rationality index calculation module is used to import the fluctuation coefficient of the building water supply system, the fluctuation coefficient of the building drainage system, the fluctuation coefficient of the building gas system, the fluctuation coefficient of the building thermal system, the fluctuation coefficient of the geographical water supply system, the fluctuation coefficient of the geographical drainage system, the fluctuation coefficient of the geographical gas system and the fluctuation coefficient of the geographical thermal system into the pipe network management rationality index mathematical model to obtain the value of the pipe network management rationality index.

[0057] In this embodiment, it should be specifically explained that the mathematical model of the pipe network management rationality index is specifically: in, v实 represents the rationality of the actual management mode of the pipe network calculated in real time, v 上限 represents the management rationality calculated from the maximum demand of the urban pipe network, v 下限 It indicates the management rationality calculated based on the minimum demand of the urban pipe network (that is, the management rationality value under the normal operation of the preset pipe network management system).

[0058] The pipeline management rationality judgment module is used to compare the real-time pipeline management rationality value with the management rationality value under the normal operation of the preset pipeline management system, calculate the difference between the real-time pipeline management rationality value and the management rationality value under the normal operation of the preset pipeline management system, and when the difference is greater than the preset difference, transmit the difference to the data interaction transmission module.

[0059] The data interaction transmission module is used to receive the geometric model transmitted by the pipeline BIM modeling step and transmit the difference value calculated by the pipeline network management rationality judgment step to the administrator's data terminal to provide reference data to warn the administrator to make adjustment measures.

[0060] In this embodiment, it should be specifically noted that the data terminal of the administrator is a common data receiver such as a mobile phone or a computer, so this embodiment does not specifically limit the data terminal.

[0061] Reference Figure 2 In this embodiment, it should be specifically explained that the present invention provides a GIS-based urban pipe network management method, including the following steps:

[0062] Step S1: Division of management area: used to determine the target city as the target monitoring area, divide the target monitoring area into multiple monitoring sub-areas according to the road network formed by the central axis of the main road of the target city, and number all monitoring sub-areas in the form of 1, 2, ..., n; secondly, perform secondary numbering on the buildings in all monitoring sub-areas in the form of 1, 2, ..., m;

[0063] Step S2: Building information data collection: used to collect real-time building information data from 1 to m buildings in 1 to n monitoring sub-areas, and transmit the collected building information water supply, drainage, gas and thermal system influencing fluctuation parameter data to the building information data processing module (step S3) to calculate the influencing fluctuation parameters of each system, and in addition, transmit the collected building information model data to the pipeline BIM modeling module (step S6) to generate a geometric model;

[0064] Step S3: Building information data processing: used to analyze and process the building information data collected in real time in the building information data collection module (step S2), wherein the building water supply system influencing fluctuation parameters are imported into the building water supply system influencing fluctuation coefficient model to obtain the building water supply system influencing fluctuation coefficient, the building drainage system influencing fluctuation parameters are imported into the building drainage system influencing fluctuation coefficient model to obtain the building drainage system influencing fluctuation coefficient, the building gas system influencing fluctuation parameters are imported into the building gas system influencing fluctuation coefficient model to obtain the building gas system influencing fluctuation coefficient, and the building thermal system influencing fluctuation parameters are imported into the building thermal system influencing fluctuation coefficient model to obtain the building thermal system influencing fluctuation coefficient;

[0065] Step S4: Geographic information data collection: used to collect real-time data of geographic information from 1 to n monitoring sub-areas, and transmit the collected geographic information water supply, drainage, gas and thermal system fluctuation parameter data to the geographic information data processing module (step S5) to calculate the fluctuation parameters of each system, and in addition, transmit the collected geographic information model data to the pipeline BIM modeling module (step S6) to generate a geometric model;

[0066] Step S5: Geographic information data processing: used to analyze and process the geographic information data collected in real time in the geographic information data collection module (step S4), wherein the fluctuation parameters affecting the geographic water supply system are imported into the fluctuation coefficient model affecting the geographic water supply system to obtain the fluctuation coefficient affecting the geographic water supply system, the fluctuation parameters affecting the geographic drainage system are imported into the fluctuation coefficient model affecting the geographic drainage system to obtain the fluctuation coefficient affecting the geographic drainage system, the fluctuation parameters affecting the geographic gas system are imported into the fluctuation coefficient model affecting the geographic gas system to obtain the fluctuation coefficient affecting the geographic gas system, and the fluctuation parameters affecting the geographic thermal system are imported into the fluctuation coefficient model affecting the geographic thermal system to obtain the fluctuation coefficient affecting the geographic thermal system;

[0067] Step S6: Pipeline BIM modeling: used to fuse the building information model collected in the building information data collection module (step S2) with the geographic information model collected in the geographic data collection module (step S4), and then use the CGA rule programming language of the city engine to model the comprehensive pipeline BIM, and drive the GIS vector information features related to the municipal pipeline to generate a geometric model based on the three-dimensional GIS engine, and transmit the geometric model to the data interaction transmission module; and provide a visual interactive interface;

[0068] Step S7: Calculation of pipe network management rationality index: used to import the real-time building water supply system influence fluctuation coefficient, building drainage system influence fluctuation coefficient, building gas system influence fluctuation coefficient, building thermal system influence fluctuation coefficient calculated in step S3, and the real-time geographical water supply system influence fluctuation coefficient, geographical drainage system influence fluctuation coefficient, geographical gas system influence fluctuation coefficient, geographical thermal system influence fluctuation coefficient calculated in step S5 into the pipe network management rationality index mathematical model, and calculate the real-time pipe network management rationality index value;

[0069] Step S8: judging the rationality of pipe network management: used to compare the real-time rationality value of pipe network management with the preset rationality value of management under normal operation of the pipe network management system, calculate the difference between the real-time rationality value of pipe network management and the preset rationality value of management under normal operation of the pipe network management system, and when the difference is greater than the preset difference, transmit the difference to the data interaction transmission module (step S9);

[0070] Step S9: Data interaction and transmission: used to receive the geometric model transmitted by the pipeline BIM modeling module (step S6), and transmit the difference value calculated by the pipeline network management rationality judgment module (step S8) to the administrator's data terminal, providing the administrator with reference data for warning and making adjustment measures.

[0071] Secondly: In the drawings of the embodiments disclosed in the present invention, only the structures related to the embodiments disclosed in the present invention are involved, and other structures can refer to the general design. In the absence of conflict, the same embodiment and different embodiments of the present invention can be combined with each other;

[0072] Finally: The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A GIS-based urban pipe network management system, characterized in that: include: Management area division module: used to determine the target city as the target monitoring area, and divide the target monitoring area into monitoring sub-areas according to the road network formed by the central axis of the main roads in the target monitoring area, so as to obtain different monitoring sub-areas of the city, and number them as 1, 2, ..., n in sequence, and in each monitoring sub-area, each building is numbered and marked as 1, 2, ..., m in sequence; Building information data acquisition module: used for real-time data acquisition of building information for each building 1-m in each monitoring sub-area 1-n of the target monitoring area, wherein the data includes fluctuation parameters affecting the building water supply system, fluctuation parameters affecting the building drainage system, fluctuation parameters affecting the building gas system, fluctuation parameters affecting the building thermal system, and building information model data of each building in the monitoring sub-area; Building information data processing module: used for analyzing and processing the building information data collected in real time from each building in each monitoring sub-area in the building information data acquisition module, and obtaining the building water supply system influence fluctuation coefficient, the building drainage system influence fluctuation coefficient, the building gas system influence fluctuation coefficient and the building thermal system influence fluctuation coefficient; the building information data processing module includes a building water supply system influence fluctuation coefficient calculation unit, a building drainage influence fluctuation coefficient calculation unit, a building gas system influence fluctuation coefficient calculation unit and a building thermal system influence fluctuation coefficient calculation unit; Geographic information data acquisition module: used for real-time data acquisition of geographic information for each monitoring sub-area 1-n of the target monitoring area, wherein the data includes geographic information water supply system influencing fluctuation parameters, geographic information drainage system influencing fluctuation parameters, geographic information gas system influencing fluctuation parameters, geographic information thermal system influencing fluctuation parameters, and geographic information model data of the monitoring sub-area; Geographic information data processing module: used for analyzing and processing the geographic information data collected in real time from each monitoring sub-area in the geographic information data collection module, and obtaining the fluctuation coefficient of the geographic water supply system, the fluctuation coefficient of the geographic drainage system, the fluctuation coefficient of the geographic gas system, and the fluctuation coefficient of the geographic thermal system; the geographic information data processing module includes a calculation unit for the fluctuation coefficient of the geographic water supply system, a calculation unit for the fluctuation coefficient of the geographic drainage system, a calculation unit for the fluctuation coefficient of the geographic gas system, and a calculation unit for the fluctuation coefficient of the geographic thermal system; Pipeline BIM modeling module: used to fuse the building information model data collected by the building information data collection module with the geographic information model collected by the geographic data collection module, and then use the CGA rule programming language of the city engine to model the comprehensive pipeline BIM, and drive the GIS vector information features related to the municipal pipeline to generate a geometric model based on the three-dimensional GIS engine, and transmit the geometric model to the data interaction transmission module; Pipeline network management rationality index calculation module: used to import the real-time building water supply system influence fluctuation coefficient, building drainage system influence fluctuation coefficient, building gas system influence fluctuation coefficient, building thermal system influence fluctuation coefficient, geographical water supply system influence fluctuation coefficient, geographical drainage system influence fluctuation coefficient, geographical gas system influence fluctuation coefficient and geographical thermal system influence fluctuation coefficient calculated by the building information data processing module into the pipeline network management rationality index mathematical model to obtain the pipeline network management rationality index value; Pipeline network management rationality judgment module: used to compare the management rationality value calculated by the pipeline network management index calculation module with the management rationality value under the normal working state of the preset pipeline network management system, calculate the difference between the real-time pipeline network management rationality value and the management rationality value under the normal working state of the preset pipeline network management system, and when the difference is greater than the preset difference, transmit the difference to the data interaction transmission module; Data interaction and transmission module: It is used to receive the geometric model transmitted by the pipeline BIM modeling module, and transmit the difference value calculated by the pipeline network management rationality judgment module to the administrator's data terminal, providing the administrator with reference data for warning and making adjustment measures.

2. The GIS-based urban pipe network management system according to claim 1, characterized in that: The building information data processing module includes a building water supply system influence fluctuation coefficient calculation unit, a building drainage system influence fluctuation coefficient calculation unit, a building gas system influence fluctuation coefficient calculation unit and a building thermal system influence fluctuation coefficient calculation unit; the geographic information data processing module includes a geographic water supply system influence fluctuation coefficient calculation unit, a geographic drainage system influence fluctuation coefficient calculation unit, a geographic gas system influence fluctuation coefficient calculation unit and a geographic thermal system influence fluctuation coefficient calculation unit.

3. The GIS-based urban pipe network management system according to claim 1, characterized in that: The building water supply system influencing fluctuation parameter includes the building water demand per unit time of the jth building in the i-th monitoring area, denoted as and its building water supply rate, denoted as Unit time Δt; the building drainage system influencing fluctuation parameters include the building drainage demand per unit time of the jth building in the i-th monitoring area, denoted as and its building drainage rate, denoted as Unit time Δt; The building gas system influencing fluctuation parameter includes the building gas demand per unit time of the jth building in the i-th monitoring area, denoted as and its building gas usage rate, denoted as Unit time Δt; The building thermal system influencing fluctuation parameter includes the unit time thermal demand of the jth building in the i-th monitoring area, denoted as The building heat use rate is denoted as Unit time Δt; where i represents the i-th monitoring area and j represents the j-th building.

4. The GIS-based urban pipe network management system according to claim 3 is characterized in that: The building water supply system influence fluctuation coefficient calculation unit is used to import the building water supply system influence fluctuation parameters into the building water supply system influence fluctuation coefficient model to obtain the building water supply system influence fluctuation coefficient value; the building drainage system influence fluctuation coefficient calculation unit is used to import the building drainage system influence fluctuation parameters into the building drainage system influence fluctuation coefficient model to obtain the building drainage system influence fluctuation coefficient value; the building gas system influence fluctuation coefficient calculation unit is used to import the building gas system influence fluctuation parameters into the building gas system influence fluctuation coefficient model to obtain the building gas system influence fluctuation coefficient value; the building thermal system influence fluctuation coefficient calculation unit is used to import the building thermal system influence fluctuation parameters into the building thermal system influence fluctuation coefficient model to obtain the building thermal system influence fluctuation coefficient value.

5. The GIS-based urban pipe network management system according to claim 4 is characterized in that: The influence fluctuation coefficient model of the building water supply system is specifically: The influence fluctuation coefficient model of the building drainage system is specifically as follows: The building gas system impact fluctuation coefficient model is specifically: The building thermal system influence fluctuation coefficient model is specifically:

6. The GIS-based urban pipe network management system according to claim 5, characterized in that: The influencing fluctuation parameter of the geographic information water supply system includes the number of geographic water supply pipelines in the monitoring area, denoted as P n , the scheduled water supply of the geographical water supply pipeline in the i-th monitoring sub-area, denoted as And the geographical water supply pipeline operation rate of the i-th monitoring sub-area is denoted as Unit time Δt; the fluctuation parameter affecting the geographic information drainage system includes the number of geographic drainage pipes in the monitoring area, denoted as D n , the scheduled drainage volume of the geographical drainage pipe in the i-th monitoring sub-area is recorded as and the geographical drainage pipe operation rate of the ith monitoring sub-area, denoted as Unit time Δt; the geographic information gas system influencing fluctuation parameters include the number of geographic gas pipelines in the monitoring area, denoted as Q n , the scheduled gas supply of the geographical gas pipeline in the ith monitoring sub-area is recorded as The geographical gas pipeline operation rate of the i-th monitoring sub-area is denoted as Unit time Δt; the influencing fluctuation parameter of the geographic information thermal system includes the number of geographic thermal pipelines in the monitoring area, denoted as R n , the heat supply of the geothermal pipeline in the i-th monitoring sub-area is recorded as The operation rate of the geothermal pipeline in the i-th monitoring sub-area is denoted as Unit time Δt; where i represents the i-th monitoring sub-area.

7. The GIS-based urban pipe network management system according to claim 6, characterized in that: The geographic water supply system impact fluctuation coefficient calculation unit is used to import the geographic water supply system impact fluctuation parameters into the geographic water supply system impact fluctuation coefficient model to obtain the geographic water supply system impact fluctuation coefficient value; the geographic drainage system impact fluctuation coefficient calculation unit is used to import the geographic drainage system impact fluctuation parameters into the geographic drainage system impact fluctuation coefficient model to obtain the geographic drainage system impact fluctuation coefficient value; the geographic gas system impact fluctuation coefficient calculation unit is used to import the geographic gas system impact fluctuation parameters into the geographic gas system impact fluctuation coefficient model to obtain the geographic gas system impact fluctuation coefficient value; the geographic thermal system impact fluctuation coefficient calculation unit is used to import the geographic thermal system impact fluctuation parameters into the geographic thermal system impact fluctuation coefficient model to obtain the geographic thermal system impact fluctuation coefficient value.

8. The GIS-based urban pipe network management system according to claim 7, characterized in that: The fluctuation coefficient model of the geographical water supply system is specifically: The fluctuation parameter model of the geographic information drainage system is specifically as follows: The geographic information gas system influencing fluctuation parameter model is specifically: The influencing fluctuation parameter model of the geographic information thermal system is specifically as follows:

9. The GIS-based urban pipe network management system according to claim 8, characterized in that: The mathematical model of the pipe network management rationality index is specifically: in, v 实 represents the rationality of the actual management mode of the pipe network calculated in real time, v 上限 represents the management rationality calculated from the maximum demand of the urban pipe network, v 下限 It indicates the management rationality calculated based on the minimum demand of the urban pipe network.

10. A GIS-based urban pipe network management method, used for using the GIS-based urban pipe network management system according to any one of claims 1 to 9, characterized in that: The following steps are involved: Step S1: Division of management area: used to determine the target city as the target monitoring area, divide the target monitoring area into multiple monitoring sub-areas according to the road network formed by the central axis of the main road in the target monitoring area, and number all monitoring sub-areas in the form of 1, 2, ..., n; secondly, perform secondary numbering on the buildings in all monitoring sub-areas in the form of 1, 2, ..., m; Step S2: Building information data collection: used to collect real-time building information data from 1 to m buildings in 1 to n monitoring sub-areas, and transmit the collected building information water supply, drainage, gas and thermal system influencing fluctuation parameter data to the building information data processing module to calculate the influencing fluctuation parameters of each system, and in addition, transmit the collected building information model data to the pipeline BIM modeling module to generate a geometric model; Step S3: Building information data processing: used to analyze and process the building information data collected in real time in the building information data collection module, wherein the building water supply system influencing fluctuation parameters are imported into the building water supply system influencing fluctuation coefficient model to obtain the building water supply system influencing fluctuation coefficient, the building drainage system influencing fluctuation parameters are imported into the building drainage system influencing fluctuation coefficient model to obtain the building drainage system influencing fluctuation coefficient, the building gas system influencing fluctuation parameters are imported into the building gas system influencing fluctuation coefficient model to obtain the building gas system influencing fluctuation coefficient, and the building thermal system influencing fluctuation parameters are imported into the building thermal system influencing fluctuation coefficient model to obtain the building thermal system influencing fluctuation coefficient; Step S4: Geographic information data collection: used to collect real-time data of geographic information from 1 to n monitoring sub-areas, and transmit the collected geographic information water supply, drainage, gas and thermal system fluctuation parameter data to the geographic information data processing module to calculate the fluctuation parameters of each system. In addition, the collected geographic information model data is transmitted to the pipeline BIM modeling module to generate a geometric model; Step S5: Geographic information data processing: used to analyze and process the geographic information data collected in real time in the geographic information data collection module, wherein the fluctuation parameters affecting the geographic water supply system are imported into the fluctuation coefficient model affecting the geographic water supply system to obtain the fluctuation coefficient affecting the geographic water supply system, the fluctuation parameters affecting the geographic drainage system are imported into the fluctuation coefficient model affecting the geographic drainage system to obtain the fluctuation coefficient affecting the geographic drainage system, the fluctuation parameters affecting the geographic gas system are imported into the fluctuation coefficient model affecting the geographic gas system to obtain the fluctuation coefficient affecting the geographic gas system, and the fluctuation parameters affecting the geographic thermal system are imported into the fluctuation coefficient model affecting the geographic thermal system to obtain the fluctuation coefficient affecting the geographic thermal system; Step S6: Pipeline BIM modeling: used to fuse the building information model collected by the building information data collection module with the geographic information model collected by the geographic data collection module, and then use the CGA rule programming language of the city engine to model the comprehensive pipeline BIM, and drive the GIS vector information features related to the municipal pipeline to generate a geometric model based on the three-dimensional GIS engine, and transmit the geometric model to the data interaction transmission module; Step S7: Calculation of pipe network management rationality index: used to import the real-time building water supply system influence fluctuation coefficient, building drainage system influence fluctuation coefficient, building gas system influence fluctuation coefficient, building thermal system influence fluctuation coefficient calculated in step S3, and the real-time geographical water supply system influence fluctuation coefficient, geographical drainage system influence fluctuation coefficient, geographical gas system influence fluctuation coefficient, geographical thermal system influence fluctuation coefficient calculated in step S5 into the pipe network management rationality index mathematical model, and calculate the real-time pipe network management rationality index value; Step S8: judging the rationality of pipe network management: used to compare the real-time rationality value of pipe network management with the preset rationality value of management under normal operation of the pipe network management system, calculate the difference between the real-time rationality value of pipe network management and the preset rationality value of management under normal operation of the pipe network management system, and when the difference is greater than the preset difference, transmit the difference to the data interaction transmission module; Step S9: Data interaction and transmission: used to receive the geometric model transmitted by the pipeline BIM modeling module, and transmit the difference value calculated by the pipeline network management rationality judgment module to the administrator's data terminal, providing the administrator with reference data for warning and making adjustment measures.

Images