Intelligent monitoring type fire centralized control system and method

Abstract

The application discloses an intelligent monitoring type fire control centralized control system and method, and relates to the field of fire control. The system comprises the following steps: configuring a grid control subsystem through a target control area map; activating a fire control area channel in the grid control subsystem, combining a position characteristic identifier set and a unit responsibility identifier set, executing fire control monitoring, and obtaining fire control monitoring traces; evaluating the fire control safety status of the position characteristic identifier set according to the fire control monitoring traces, and obtaining a control area fire control safety level; distributing monitoring density based on the control area fire control safety level through a fire control safety monitoring subsystem, executing hierarchical monitoring, and obtaining a hierarchical monitoring report; and calling a fire control controller according to the hierarchical monitoring report through an interactive fire control alarm subsystem, and executing fire control. The application solves the technical problem that fire control safety monitoring is not accurate enough in the prior art, and achieves the technical effect that fire control monitoring is intelligent.

Description

Technical Field

[0001] This invention relates to the field of fire protection, specifically to an intelligent monitoring-type centralized fire protection control system and method. Background Technology

[0002] In today's society, fire safety is a crucial issue that cannot be ignored by any city, community, or building. With urbanization, high-rise buildings, large commercial complexes, and densely populated residential areas are constantly emerging, increasing the risk of fire. Traditional fire monitoring systems often suffer from problems such as untimely response, limited monitoring range, and low management efficiency, failing to meet the fire safety needs of modern cities. Furthermore, as people's awareness of fire safety increases, the intelligent and centralized management of fire protection systems is becoming increasingly important. Most existing fire control systems are independent or regional monitoring systems, lacking centralized and intelligent management, making it difficult to achieve timely and accurate fire monitoring and early warning. Summary of the Invention

[0003] This application provides an intelligent monitoring-type centralized fire control system and method, which solves the technical problem of insufficient accuracy in fire safety monitoring in the prior art.

[0004] In view of the above problems, this application provides an intelligent monitoring-type centralized fire control system and method.

[0005] A first aspect of this application provides an intelligent monitoring-type centralized fire protection control system, the system comprising:

[0006] The configuration module is used to configure the grid control subsystem through the target control area map;

[0007] The monitoring module is used to activate the fire zone passage in the grid control subsystem, and perform fire monitoring by combining the location feature identifier set and the unit responsibility identifier set to obtain fire monitoring traces;

[0008] The fire safety assessment module is used to assess the fire safety status of the location feature identifier set based on the fire monitoring traces, and to obtain the fire safety level of the control area.

[0009] The grading module is used to allocate monitoring density based on the fire safety level of the control area through the fire safety monitoring subsystem, perform grading monitoring, and obtain grading monitoring reports.

[0010] The fire control module is used to interact with the fire alarm subsystem and invoke the fire controller to execute fire control based on the hierarchical monitoring report.

[0011] A second aspect of this application provides an intelligent monitoring-type centralized fire protection control method, the method comprising:

[0012] Configure the grid control subsystem using the target control area map;

[0013] Activate the fire zone passage in the grid control subsystem, and combine the location feature identifier set and the unit responsibility identifier set to perform fire monitoring and obtain fire monitoring traces;

[0014] The fire safety status of the location feature identifier set is assessed based on the fire monitoring traces to obtain the fire safety level of the controlled area;

[0015] The fire safety monitoring subsystem allocates monitoring density based on the fire safety level of the controlled area, performs graded monitoring, and obtains graded monitoring reports.

[0016] The interactive fire alarm subsystem invokes the fire controller based on the hierarchical monitoring report to execute fire control.

[0017] One or more technical solutions provided in this application have at least the following technical effects or advantages:

[0018] First, a grid control subsystem is configured through a target control area map, dividing the control area into multiple grids, each corresponding to a fire lane. Next, the fire lanes in the grid control subsystem are activated, and fire monitoring is performed using a set of location feature identifiers and a set of unit responsibility identifiers. This information allows for real-time monitoring of each fire lane and records of monitoring activity. Based on these records, the fire safety status of the location feature identifier set can be further assessed. Analysis of the monitoring data determines the fire risk level of each area, thus obtaining the fire safety level of the control area. To achieve tiered monitoring, a fire safety monitoring subsystem allocates monitoring density according to the fire safety level. Tiered monitoring provides more detailed tiered monitoring reports. Finally, an interactive fire alarm subsystem invokes the fire controller based on the tiered monitoring report. This solves the technical problem of insufficient accuracy in existing fire safety monitoring and achieves intelligent fire monitoring. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0020] Figure 1This application provides a schematic flowchart of an intelligent monitoring-type centralized fire control method.

[0021] Figure 2 This is a schematic diagram of an intelligent monitoring-type centralized fire control system provided in an embodiment of this application.

[0022] Explanation of reference numerals in the attached diagram: Configuration module 11, Monitoring module 12, Level assessment module 13, Grading module 14, Fire control module 15. Detailed Implementation

[0023] This application provides an intelligent monitoring-type centralized fire control system and method, which solves the technical problem of insufficient accuracy in fire safety monitoring in the prior art.

[0024] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of this application.

[0025] It should be noted that the terms "comprising" and "having," and any variations thereof, are intended to cover non-exclusive inclusion. For example, a process, method, system, product, or server that includes a series of steps or units is not necessarily limited to those steps or units that are explicitly listed, but may include other steps or modules that are not explicitly listed or that are inherent to such process, method, product, or device.

[0026] Example 1

[0027] like Figure 1 As shown in the figure, this application embodiment provides an intelligent monitoring-type centralized fire protection control method, wherein the method includes:

[0028] Configure the grid control subsystem using the target control area map;

[0029] Fire safety has always been a critical issue in the field of public safety. Traditional fire monitoring methods mainly rely on manual patrols and manual alarms, which are inefficient and have blind spots. To improve the accuracy and efficiency of fire safety monitoring and control, an intelligent monitoring-based centralized fire control method is proposed.

[0030] By configuring a grid control subsystem on the target control area map, the target control area can be divided into multiple grids, each corresponding to a fire lane. This allows for more effective monitoring and management of fire safety within the area. The grid control subsystem is a system based on grid-based management, dividing the target area into multiple grids and providing refined management and monitoring for each grid. Specifically, it first requires collecting relevant information about the target control area, including geographical location, building distribution, and road traffic. Then, based on this information, using map software or GIS systems, the target control area is divided into multiple grids. The size and shape of each grid can be adjusted according to actual needs and available resources. After dividing the grids, corresponding fire lanes need to be configured for each grid. These lanes can be physical lanes, such as fire lanes and evacuation routes, or virtual lanes, such as fire hydrants and fire communication networks. Configuring fire lanes requires consideration of factors such as lane layout, connectivity, and availability. This completes the configuration of the grid control subsystem on the target control area map. With a properly configured grid control subsystem, the fire safety status of the target control area can be monitored and managed more effectively.

[0031] Activate the fire zone passage in the grid control subsystem, and combine the location feature identifier set and the unit responsibility identifier set to perform fire monitoring and obtain fire monitoring traces;

[0032] After activating the fire zone access points of the grid control subsystem, fire monitoring can be performed and fire monitoring traces can be obtained by combining the location feature identifier set and the unit responsibility identifier set. Specifically, the location feature identifier set refers to the location feature information within each grid, such as the structure, use, and height of buildings. This information can be collected and managed through GIS systems or other relevant systems. The unit responsibility identifier set refers to the fire safety responsibilities that units or individuals within each grid should fulfill, such as the maintenance status of fire-fighting facilities and the conduct of fire drills. This information can be collected and managed through signing fire safety responsibility agreements with units or individuals or other relevant methods. During fire monitoring, sensors, cameras, and other monitoring equipment can be used to monitor each grid in real time, and the monitoring data can be compared and analyzed with the location feature identifier set and the unit responsibility identifier set. At the same time, the system can also record the fire monitoring traces of each grid, including monitoring time, monitoring personnel, monitoring data, and other information. These monitoring traces can be used for subsequent fire safety assessments and management, helping managers to better understand the fire safety status and management of each grid.

[0033] Furthermore, activating the fire zone access in the grid control subsystem includes, prior to:

[0034] The grid control subsystem has a one-to-one correspondence between fire training records and control unit identifiers, and a one-to-one correspondence between fire accident records and control location identifiers.

[0035] Construct the fire-fighting area passage, wherein the fire-fighting area passage includes a location feature analysis sub-passage and a unit responsibility analysis sub-passage;

[0036] The location feature analysis subchannel is used to perform supervised training on the fire accident records and the control location identifiers to obtain the location feature identifier set.

[0037] The unit responsibility analysis sub-channel is used to conduct supervised training on the fire protection training records and the control unit identifiers to obtain the unit responsibility identifier set.

[0038] Optionally, fire training records can be mapped one-to-one with control unit identifiers, and fire accident records can be mapped one-to-one with control location identifiers. Fire training records include fire hydrant inspection records, air smoke concentration records, etc., while fire accident records refer to historical accidents. Control unit identifiers are identifiers used to identify and control the unit or organization in each grid. Control location identifiers are identifiers used to identify and control the location information of each grid. By constructing fire zone channels, including location feature analysis sub-channels and unit responsibility analysis sub-channels, supervised training can be conducted on fire accident records and fire training records to obtain location feature identifier sets and unit responsibility identifier sets. Specifically, the location feature analysis sub-channel can extract location feature information within each grid through supervised training on fire accident records and control location identifiers. It can extract feature information of different rooms; for example, computer rooms with more equipment and wiring are more prone to fire, while bathrooms are less prone to fire. The unit responsibility analysis sub-channel can extract unit responsibility information within each grid through supervised training using fire training records and control unit identifiers. This information includes details such as the maintenance status of fire protection facilities and the implementation of fire drills. This information can be used to assess the fire safety status and management of each grid. By constructing fire zone channels and utilizing the location feature analysis sub-channel and the unit responsibility analysis sub-channel for supervised training, more comprehensive and accurate fire safety information can be obtained, improving fire prevention and control capabilities and protecting people's lives and property. Simultaneously, the grid control subsystem can also perform refined management and monitoring of each grid based on the acquired location feature identifier set and unit responsibility identifier set. The location feature identifier set refers to the set of identifiers formed by extracting location feature information within each grid. The unit responsibility identifier set refers to the set of identifiers formed by extracting unit responsibility information within each grid. For example, the fire safety status of each grid can be assessed based on the location feature identifier set and the unit responsibility identifier set, allowing for the timely detection and handling of fire hazards.

[0039] Furthermore, by activating the fire zone passage in the grid control subsystem, and combining the location feature identifier set and the unit responsibility identifier set, fire monitoring is performed to obtain fire monitoring traces, including:

[0040] The location feature identifier set and the unit responsibility identifier set are matched based on the association features to obtain the real-time monitoring set;

[0041] Extract the first real-time monitoring index from the real-time monitoring set, perform fire perimeter monitoring on the first real-time monitoring, and obtain the first fire perimeter monitoring trace;

[0042] Perform real-time fire monitoring on the first real-time monitoring indicator to obtain the first real-time fire monitoring trace;

[0043] Based on the first fire perimeter monitoring trace and the first fire real-time monitoring trace, a first fire monitoring trace is generated and added to the fire monitoring trace.

[0044] Optionally, associated features refer to fire safety-related feature information commonly found in both the location feature identifier set and the unit responsibility identifier set. By matching associated features, the location feature identifier set and the unit responsibility identifier set can be linked to obtain a real-time monitoring set. The real-time monitoring set is the real-time monitoring data related to fire safety extracted after real-time monitoring and analysis of the location feature identifier set and the unit responsibility identifier set. The establishment of the real-time monitoring set can provide timely and accurate data support for fire safety management personnel, helping them to better understand and grasp the fire safety status of each grid, promptly identify and address problems, and improve fire prevention and control capabilities.

[0045] By extracting the first real-time monitoring index from the real-time monitoring set, fire perimeter monitoring can be performed on the first real-time monitoring, obtaining the first fire perimeter monitoring trace. The first real-time monitoring index is a real-time data indicator related to fire safety, obtained after extracting and analyzing the real-time monitoring set. These indicators can include fire alarm information, smoke concentration, temperature changes, etc., reflecting the occurrence and development trend of fires or abnormal situations. Fire perimeter monitoring of the first real-time monitoring mainly involves real-time monitoring and analysis of the first real-time monitoring index to promptly detect fire hazards or abnormal situations and take corresponding measures to deal with them. Through fire perimeter monitoring, comprehensive and real-time monitoring and control of the fire safety status of each grid can be achieved, improving fire prevention and control capabilities. Fire perimeter monitoring includes monitoring of fire-fighting equipment, escape routes, etc. The first fire perimeter monitoring trace is the monitoring data trace related to fire safety extracted after fire perimeter monitoring of the first real-time monitoring, including data such as fire alarm information, smoke concentration changes, and temperature changes, reflecting the occurrence and development process of fires or abnormal situations.

[0046] Real-time fire monitoring is the process of monitoring and analyzing primary real-time monitoring indicators in real time to promptly detect fire hazards or abnormal situations and take corresponding measures to address them. During real-time fire monitoring, various monitoring equipment and methods, such as video surveillance, sensor monitoring, and intelligent alarms, can be used to collect and transmit real-time data on the primary real-time monitoring indicators. The primary real-time fire monitoring trace is the real-time monitoring data trace related to fire safety extracted after monitoring the primary real-time monitoring indicators. These traces include data such as fire alarm information, changes in smoke concentration, and temperature changes, reflecting the occurrence and development of fires or abnormal situations.

[0047] The first-level fire monitoring traces are monitoring data traces related to fire safety extracted through comprehensive analysis of the surrounding monitoring traces and the real-time monitoring traces of the first fire station. Adding these first-level fire monitoring traces to the overall fire monitoring traces enables comprehensive and real-time monitoring and control of the fire safety status of each grid, improving fire prevention and control capabilities. Simultaneously, these monitoring traces can also be used for subsequent fire safety assessments and management, providing a basis for decision-making. By continuously accumulating and updating the fire monitoring traces, continuous monitoring and analysis of fire safety can be achieved, allowing for timely detection and handling of problems, and further enhancing fire prevention and control capabilities.

[0048] The fire safety status of the location feature identifier set is assessed based on the fire monitoring traces to obtain the fire safety level of the controlled area;

[0049] Based on the collected and analyzed fire monitoring data, the fire safety status of each grid represented by the location feature identifier set is assessed, including fire hazards, facility maintenance status, and fire drill implementation. Based on the assessment results of the fire safety status of each grid, the fire safety level of the controlled area can be determined. Fire safety levels can be classified according to actual conditions, such as Level 1, Level 2, Level 3, and so on up to Level N.

[0050] Furthermore, the fire safety status of the location feature identifier set is assessed based on the fire monitoring traces to obtain the fire safety level of the controlled area, including:

[0051] The degree of hazard investigation is calculated based on the first fire perimeter monitoring traces and the first real-time fire monitoring traces, respectively, and the first fire perimeter hazard coefficient and the first real-time fire hazard coefficient are generated.

[0052] A first fire monitoring hazard coefficient is generated based on the first fire perimeter hazard coefficient and the first real-time fire hazard coefficient. The reciprocal of the first fire monitoring hazard coefficient is calculated to generate a first fire safety coefficient, and the fire safety level of the first control area is obtained.

[0053] The fire safety level of the control area is obtained by traversing the real-time monitoring set to generate the fire safety level of the second control area up to the fire safety level of the Nth control area.

[0054] Optionally, based on the collected monitoring data, the hazard identification rate of each grid is calculated using statistical methods, machine learning algorithms, etc. The hazard identification rate reflects the severity and ease of identification of fire hazards within the grid. Based on the calculated hazard identification rate, a first fire hazard coefficient for the surrounding environment and a first real-time fire hazard coefficient are generated for each grid, for example, using weighted averaging or sorting methods. These two coefficients reflect the fire hazard situation of the grid under surrounding environment and real-time monitoring, respectively. The first fire hazard coefficient for the surrounding environment and the first real-time fire hazard coefficient are weighted and averaged or otherwise comprehensively processed to generate a first fire monitoring hazard coefficient for each grid. The first fire monitoring hazard coefficient reflects the fire hazard situation of the grid under overall monitoring. The reciprocal of the first fire monitoring hazard coefficient is calculated to obtain the first fire safety coefficient for each grid. The first fire safety coefficient reflects the fire safety status of the grid; a higher value indicates a better safety status. Based on the first fire safety coefficient of each grid, the control areas are sorted and classified to obtain the fire safety level of the first control area. Following the steps outlined above, the real-time monitoring set is traversed, and the same calculations and assessments are performed on each control area to obtain the fire safety level of the second control area, the third control area, and so on up to the Nth control area. A comprehensive analysis of the fire safety levels of all control areas yields the overall fire safety level of the entire control area. The fire safety level reflects the fire safety status of the entire control area, providing a basis for subsequent fire management and decision-making.

[0055] The fire safety monitoring subsystem allocates monitoring density based on the fire safety level of the controlled area, performs graded monitoring, and obtains graded monitoring reports.

[0056] The fire safety monitoring subsystem is a core component of fire safety monitoring and management. It provides data support for fire safety management and decision-making by monitoring and analyzing fire safety data within controlled areas. A crucial aspect of this subsystem is allocating monitoring density based on the fire safety level of each controlled area. The fire safety level of each controlled area determines the degree of fire hazard and areas requiring focused monitoring. Therefore, allocating different monitoring densities allows for more precise monitoring and management of fire hazards in those areas. Different monitoring methods and technologies can be employed depending on the monitoring density of different controlled areas. For example, areas with higher fire safety levels can be monitored through regular patrols and targeted spot checks; while areas with lower fire safety levels can have increased patrol frequency and enhanced monitoring efforts to ensure timely detection and handling of fire hazards. By implementing tiered monitoring, tiered monitoring reports are obtained. These reports, generated through statistical analysis of monitoring data from different controlled areas, reflect the fire hazard status and monitoring effectiveness of each area. These reports provide fire safety management personnel with a basis for decision-making, helping them formulate more precise fire safety management and improvement measures.

[0057] Furthermore, through the fire safety monitoring subsystem, monitoring density is allocated based on the fire safety level of the controlled area, graded monitoring is performed, and graded monitoring reports are obtained. The method includes:

[0058] Based on the fire safety level of the controlled area, a first-level level is obtained, and a first-level monitoring density is obtained by matching the monitoring density allocation library.

[0059] Perform tiered monitoring based on the first allocated monitoring density to obtain a first tiered monitoring report;

[0060] The fire safety levels of the controlled area are traversed to obtain Level II up to Level N, and the second-level monitoring report up to the Nth-level monitoring report is obtained. The first-level monitoring report is combined to obtain the level monitoring report, where N is an integer greater than 1.

[0061] Optionally, according to the fire safety level of the control area, starting from the first level, match the monitoring density distribution library to obtain the first allocated monitoring density. Then, perform hierarchical monitoring according to the first allocated monitoring density to obtain the first hierarchical monitoring report. Next, traverse the fire safety levels of the control area, starting from the second level, and obtain the hierarchical monitoring reports level by level until the Nth level. In this way, the second hierarchical monitoring report, the third hierarchical monitoring report, and so on until the Nth hierarchical monitoring report can be obtained. Finally, by combining the first hierarchical monitoring report and other hierarchical monitoring reports, a complete hierarchical monitoring report can be obtained. The hierarchical monitoring report can comprehensively reflect the fire hazard status and monitoring effects of different control areas, providing strong support for fire safety management and decision-making.

[0062] The interactive fire alarm subsystem calls the fire controller according to the hierarchical monitoring report to perform fire control.

[0063] The fire alarm subsystem receives and processes the monitoring data and alarm information sent by the fire monitoring subsystem. When the monitoring data is abnormal or a fire occurs, the fire alarm subsystem can promptly issue an alarm signal to notify relevant personnel for handling. According to the hierarchical monitoring report, the fire alarm subsystem can call the corresponding fire controller to perform fire control. Specifically, different fire control measures can be taken for monitoring reports of different levels. For example, for a first-level monitoring report, a fire controller with a high priority can be called to execute an emergency handling procedure, such as starting a fire pump and opening a sprinkler system. For a second-level monitoring report, a fire controller with a medium priority can be called to execute a regular handling procedure, such as closing a fire door and starting a smoke exhaust system. For higher-level monitoring reports, more stringent fire control measures can be taken, such as forced evacuation and interlocking control.

[0064] Furthermore, for the interactive fire alarm subsystem to call the fire controller according to the hierarchical monitoring report, the method includes:

[0065] Interact with the fire alarm subsystem to perform abnormal alarm analysis on the hierarchical monitoring report and generate a monitoring abnormality instruction;

[0066] Locate the location feature identifier set according to the monitoring abnormality instruction to obtain a monitoring abnormality location identifier;

[0067] Match the fire controller storage library according to the monitoring abnormality location identifier and call the fire controller.

[0068] Optionally, the interactive fire alarm subsystem can perform abnormal alarm analysis on tiered monitoring reports and generate monitoring anomaly commands. Specifically, this involves statistically analyzing monitoring data to detect anomalies, such as fire smoke or abnormal temperatures, and then generating monitoring anomaly commands. Once a monitoring anomaly command is generated, the fire alarm subsystem can locate the anomaly location based on the command's location feature identifier set. The location feature identifier set is a crucial component of the fire safety system; it identifies buildings and equipment, facilitating management and monitoring by fire personnel. By locating the location feature identifier set, the monitoring anomaly location can be accurately pinpointed. Finally, the fire controller repository is matched to the monitoring anomaly location identifier, and the corresponding fire controller is invoked. The fire controller repository is a database storing information and parameters of various fire controllers; it can match the corresponding fire controller based on the monitoring anomaly location identifier and execute the appropriate fire control operation. Through this process, intelligent and automated fire monitoring and alarms can be achieved, improving the efficiency and reliability of the fire safety system and protecting people's lives and property.

[0069] Furthermore, the methods also include:

[0070] Based on the execution result of the fire controller, a monitoring density feedback indication is generated;

[0071] Based on the monitoring density feedback indication, the monitoring density of the location feature identifier set is redistributed, hierarchical monitoring is performed, and the hierarchical monitoring report is updated.

[0072] Optionally, the execution results of the fire control controller include changes in the status of controlled equipment and the handling of fire hazards. Analyzing and evaluating these results can determine the rationality and effectiveness of the monitoring density. For example, if the fire control controller successfully activates the sprinkler system and the fire is controlled in a timely manner, this may indicate that the current monitoring density is reasonable. However, if the fire control controller fails to respond promptly or the fire is not effectively controlled, this may indicate that the current monitoring density is insufficient or its distribution is unreasonable. Based on these analysis results, corresponding monitoring density feedback indicators can be generated. These feedback indicators reflect the execution effect of the fire control controller and the rationality of the monitoring density. Adjustments to the monitoring density can be made based on the feedback indicators, such as increasing or decreasing the monitoring density in certain areas, to ensure comprehensive and accurate monitoring of fire hazards. When performing tiered monitoring, monitoring reports of different levels can be processed and analyzed accordingly. For example, for a Level 1 monitoring report, a high-priority fire control controller can be invoked to execute emergency procedures; for a Level 2 monitoring report, a medium-priority fire control controller can be invoked to execute routine procedures. Through this series of operations, dynamic adjustment and optimization of the monitoring density can be achieved, improving fire prevention and control capabilities and management levels.

[0073] In summary, the embodiments of this application have at least the following technical effects:

[0074] First, a grid control subsystem is configured through a target control area map, dividing the control area into multiple grids, each corresponding to a fire lane. Next, the fire lanes in the grid control subsystem are activated, and fire monitoring is performed using a set of location feature identifiers and a set of unit responsibility identifiers. This information allows for real-time monitoring of each fire lane and records of monitoring activity. Based on these records, the fire safety status of the location feature identifier set can be further assessed. Analysis of the monitoring data determines the fire risk level of each area, thus obtaining the fire safety level of the control area. To achieve tiered monitoring, a fire safety monitoring subsystem allocates monitoring density according to the fire safety level. Tiered monitoring provides more detailed tiered monitoring reports. Finally, an interactive fire alarm subsystem invokes the fire controller based on the tiered monitoring report. This solves the technical problem of insufficient accuracy in existing fire safety monitoring and achieves intelligent fire monitoring.

[0075] Example 2

[0076] Based on the same inventive concept as the intelligent monitoring-type centralized fire control method in the foregoing embodiments, such as Figure 2 As shown, this application provides an intelligent monitoring-type centralized fire protection control system. The system and method embodiments in this application are based on the same inventive concept. The system includes:

[0077] Configuration module 11, monitoring module 12, level assessment module 13, classification module 14, fire control module 15.

[0078] Configuration module 11, the configuration module 11 is used to configure the grid control subsystem through the target control area map;

[0079] Monitoring module 12 is used to activate the fire zone passage in the grid control subsystem, and perform fire monitoring by combining the location feature identifier set and the unit responsibility identifier set to obtain fire monitoring traces;

[0080] The fire safety assessment module 13 is used to assess the fire safety status of the location feature identifier set based on the fire monitoring traces and obtain the fire safety level of the control area.

[0081] The grading module 14 is used to allocate monitoring density based on the fire safety level of the control area through the fire safety monitoring subsystem, perform graded monitoring, and obtain graded monitoring reports.

[0082] The fire control module 15 is used to interact with the fire alarm subsystem and call the fire controller to execute fire control according to the hierarchical monitoring report.

[0083] Furthermore, the monitoring module 12 is used to perform the following methods:

[0084] The grid control subsystem has a one-to-one correspondence between fire training records and control unit identifiers, and a one-to-one correspondence between fire accident records and control location identifiers.

[0085] Construct the fire-fighting area passage, wherein the fire-fighting area passage includes a location feature analysis sub-passage and a unit responsibility analysis sub-passage;

[0086] The location feature analysis subchannel is used to perform supervised training on the fire accident records and the control location identifiers to obtain the location feature identifier set.

[0087] The unit responsibility analysis sub-channel is used to conduct supervised training on the fire protection training records and the control unit identifiers to obtain the unit responsibility identifier set.

[0088] Furthermore, the monitoring module 12 is used to perform the following methods:

[0089] The location feature identifier set and the unit responsibility identifier set are matched based on the association features to obtain the real-time monitoring set;

[0090] Extract the first real-time monitoring index from the real-time monitoring set, perform fire perimeter monitoring on the first real-time monitoring, and obtain the first fire perimeter monitoring trace;

[0091] Perform real-time fire monitoring on the first real-time monitoring indicator to obtain the first real-time fire monitoring trace;

[0092] Based on the first fire perimeter monitoring trace and the first fire real-time monitoring trace, a first fire monitoring trace is generated and added to the fire monitoring trace.

[0093] Furthermore, the rating assessment module 13 is used to perform the following method:

[0094] The degree of hazard investigation is calculated based on the first fire perimeter monitoring traces and the first real-time fire monitoring traces, respectively, and the first fire perimeter hazard coefficient and the first real-time fire hazard coefficient are generated.

[0095] A first fire monitoring hazard coefficient is generated based on the first fire perimeter hazard coefficient and the first real-time fire hazard coefficient. The reciprocal of the first fire monitoring hazard coefficient is calculated to generate a first fire safety coefficient, and the fire safety level of the first control area is obtained.

[0096] The fire safety level of the control area is obtained by traversing the real-time monitoring set to generate the fire safety level of the second control area up to the fire safety level of the Nth control area.

[0097] Furthermore, the hierarchical module 14 is used to perform the following method:

[0098] Based on the fire safety level of the controlled area, a first-level level is obtained, and a first-level monitoring density is obtained by matching the monitoring density allocation library.

[0099] Perform tiered monitoring based on the first allocated monitoring density to obtain a first tiered monitoring report;

[0100] The fire safety levels of the controlled area are traversed to obtain Level II up to Level N, and the second-level monitoring report up to the Nth-level monitoring report is obtained. The first-level monitoring report is combined to obtain the level monitoring report, where N is an integer greater than 1.

[0101] Furthermore, the fire control module 15 is used to perform the following methods:

[0102] The fire alarm subsystem is interactive, and abnormal alarm analysis is performed on the hierarchical monitoring report to generate monitoring abnormality instructions.

[0103] The location feature identifier set is located according to the monitoring anomaly instruction to obtain the monitoring anomaly location identifier;

[0104] Match the fire controller repository according to the detected abnormal location identifier, and invoke the fire controller.

[0105] Furthermore, the fire control module 15 is used to perform the following methods:

[0106] Based on the execution result of the fire controller, a monitoring density feedback indication is generated;

[0107] Based on the monitoring density feedback indication, the monitoring density of the location feature identifier set is redistributed, hierarchical monitoring is performed, and the hierarchical monitoring report is updated.

[0108] It should be noted that the order of the embodiments described above is merely for descriptive purposes and does not represent the superiority or inferiority of the embodiments. Furthermore, specific embodiments have been described above. Other embodiments are within the scope of the appended claims. In some cases, the actions or steps described in the claims can be performed in a different order than that shown in the embodiments and still achieve the desired result. Additionally, the processes depicted in the drawings do not necessarily require a specific or sequential order to achieve the desired result. In some embodiments, multitasking and parallel processing are also possible or may be advantageous.

[0109] The above description is only a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this application should be included within the protection scope of this application.

[0110] This specification and accompanying drawings are merely illustrative examples of this application and are intended to cover any and all modifications, variations, combinations, or equivalents within the scope of this application. Clearly, those skilled in the art can make various alterations and modifications to this application without departing from its scope. Therefore, if such modifications and modifications fall within the scope of this application and its equivalents, this application intends to include such modifications and modifications.

Claims

1. An intelligent monitoring-type centralized fire protection control system, characterized in that, The system includes: The configuration module is used to configure the grid control subsystem through the target control area map; The monitoring module is used to activate the fire zone passage in the grid control subsystem, and perform fire monitoring by combining the location feature identifier set and the unit responsibility identifier set to obtain fire monitoring traces; The fire safety assessment module is used to assess the fire safety status of the location feature identifier set based on the fire monitoring traces, and to obtain the fire safety level of the control area. The grading module is used to allocate monitoring density based on the fire safety level of the control area through the fire safety monitoring subsystem, perform grading monitoring, and obtain grading monitoring reports. The fire control module is used to interact with the fire alarm subsystem and, based on the graded monitoring report, invokes the fire controller to execute fire control. Activating the fire zone access in the grid control subsystem includes, prior to: The identification module is used to ensure that the grid control subsystem has a one-to-one correspondence between fire training records and control unit identifiers, and a one-to-one correspondence between fire accident records and control location identifiers. A construction module is used to construct the fire zone passage, wherein the fire zone passage includes a location feature analysis sub-channel and a unit responsibility analysis sub-channel; The first training module is used to perform supervised training on the fire accident record and the control position identifier through the location feature analysis sub-channel to obtain the location feature identifier set. The second training module conducts supervised training on the fire training records and the control unit identifiers through the unit responsibility analysis sub-channel to obtain the unit responsibility identifier set. Activate the fire zone passage in the grid control subsystem, combine the location feature identifier set and the unit responsibility identifier set to perform fire monitoring and obtain fire monitoring traces. The system includes: A matching module is used to match the location feature identifier set and the unit responsibility identifier set based on association features to obtain a real-time monitoring set; A perimeter monitoring module is used to extract a first real-time monitoring indicator based on the real-time monitoring set, perform fire perimeter monitoring on the first real-time monitoring, and obtain a first fire perimeter monitoring trace. The real-time monitoring module is used to perform real-time fire monitoring on the first real-time monitoring indicator and obtain the first real-time fire monitoring trace. The trace generation module is used to generate a first fire monitoring trace based on the first fire perimeter monitoring trace and the first fire real-time monitoring trace, and add it to the fire monitoring trace.

2. The system as described in claim 1, characterized in that, The system assesses the fire safety status of the location feature identifier set based on the fire monitoring data, and obtains the fire safety level of the controlled area. The system includes: The first calculation module is used to calculate the hazard investigation degree based on the first fire perimeter monitoring traces and the first real-time fire monitoring traces respectively, and generate the first fire perimeter hazard coefficient and the first real-time fire hazard coefficient. The second calculation module is used to generate a first fire monitoring hazard coefficient based on the first fire perimeter hazard coefficient and the first real-time fire hazard coefficient, and to calculate the reciprocal of the first fire monitoring hazard coefficient to generate a first fire safety coefficient and obtain the fire safety level of the first control area. A fire safety level generation module is used to traverse the real-time monitoring set to generate the fire safety level of the second control area up to the fire safety level of the Nth control area, thereby obtaining the fire safety level of the control area.

3. The system as described in claim 1, characterized in that, The fire safety monitoring subsystem allocates monitoring density based on the fire safety level of the controlled area, performs tiered monitoring, and obtains tiered monitoring reports. The system includes: The density matching module is used to obtain a first-level fire safety level based on the fire safety level of the control area, match the monitoring density allocation library, and obtain a first allocated monitoring density. A hierarchical monitoring module is used to perform hierarchical monitoring according to the first allocated monitoring density and obtain a first hierarchical monitoring report; The report acquisition module is used to traverse the fire safety levels of the control area to obtain level 2 up to level N, obtain the second-level monitoring report up to the Nth-level monitoring report, and combine the first-level monitoring report to obtain the level monitoring report, where N is an integer greater than 1.

4. The system as described in claim 1, characterized in that, The interactive fire alarm subsystem invokes the fire controller based on the hierarchical monitoring report. The system includes: The instruction generation module is used to interact with the fire alarm subsystem, perform abnormal alarm analysis on the hierarchical monitoring report, and generate monitoring abnormal instructions. A positioning module is used to locate the location feature identifier set according to the monitoring anomaly instruction, and obtain the monitoring anomaly location identifier; The calling module is used to match the fire controller repository according to the monitored abnormal location identifier and call the fire controller.

5. The system as described in claim 1, characterized in that, The system also includes: A feedback module is used to generate a monitoring density feedback indication based on the execution result of the fire controller; An update module is used to redistribute the monitoring density of the location feature identifier set based on the monitoring density feedback indication, perform hierarchical monitoring, and update the hierarchical monitoring report.

6. A method for centralized fire protection control with intelligent monitoring, characterized in that, The method includes: Configure the grid control subsystem using the target control area map; Activate the fire zone passage in the grid control subsystem, and combine the location feature identifier set and the unit responsibility identifier set to perform fire monitoring and obtain fire monitoring traces; The fire safety status of the location feature identifier set is assessed based on the fire monitoring traces to obtain the fire safety level of the controlled area; The fire safety monitoring subsystem allocates monitoring density based on the fire safety level of the controlled area, performs graded monitoring, and obtains graded monitoring reports. The interactive fire alarm subsystem invokes the fire controller based on the aforementioned hierarchical monitoring report to execute fire control. The grid control subsystem has a one-to-one correspondence between fire training records and control unit identifiers, and a one-to-one correspondence between fire accident records and control location identifiers. Construct the fire-fighting area passage, wherein the fire-fighting area passage includes a location feature analysis sub-passage and a unit responsibility analysis sub-passage; The location feature analysis subchannel is used to perform supervised training on the fire accident records and the control location identifiers to obtain the location feature identifier set. Supervised training is conducted on the fire protection training records and the control unit identifiers through the unit responsibility analysis sub-channel to obtain the unit responsibility identifier set; The location feature identifier set and the unit responsibility identifier set are matched based on the association features to obtain the real-time monitoring set; Extract the first real-time monitoring index from the real-time monitoring set, perform fire perimeter monitoring on the first real-time monitoring, and obtain the first fire perimeter monitoring trace; Perform real-time fire monitoring on the first real-time monitoring indicator to obtain the first real-time fire monitoring trace; Based on the first fire perimeter monitoring trace and the first fire real-time monitoring trace, a first fire monitoring trace is generated and added to the fire monitoring trace.

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