A new pollutant intelligent monitoring system based on environmental steward

Abstract

The present invention discloses a new pollutant intelligent monitoring system based on an environmental steward, which relates to the technical field of pollutant monitoring, a construction module, which is used to obtain emission information of new pollutants, and to construct an emission model based on the emission information, a division module, which is connected to the construction module, and is used to determine the corresponding new pollutant monitoring range based on the emission point, a building module, which is connected to the division module, and is used to establish and connect the corresponding virtual plate model based on multiple sub-control points, and a judgment module, which is connected to the building module, and is used to collect new pollutant information within the corresponding new pollutant monitoring range through the sub-control points. The present invention can ensure the security of information transmission, avoid the monitoring point from being replaced, and in the case of being replaced, it can be placed in the information ball for transmission without verification information, and the monitoring point cannot be replaced, thereby ensuring the security of the transmission of new pollutant information collected by the monitoring point.

Description

Technical Field

[0001] The present invention relates to the technical field of pollutant monitoring, and in particular to a new pollutant intelligent monitoring system based on an environmental steward. Background Art

[0002] New pollutants refer to pollutants that are discharged into the environment and have characteristics such as biological toxicity, environmental persistence, and bioaccumulation. They pose great risks to the ecological environment or human health. Therefore, new pollutants need to be monitored. In the monitoring of new pollutants, it is difficult to use more monitoring equipment. In the process of monitoring new pollutants, more monitoring equipment is prone to data replacement. Therefore, the inaccurate collection of new pollutant information will lead to the insecurity of information transmission. Summary of the invention

[0003] The purpose of the present invention is to provide a new pollutant intelligent monitoring system based on environmental steward to solve the shortcomings of the background technology.

[0004] In order to achieve the above object, the present invention provides the following technical solution: a new pollutant intelligent monitoring system based on environmental steward, comprising:

[0005] A construction module is used to obtain emission information of new pollutants, build an emission model based on the emission information, mark multiple emission points in the emission model, and set corresponding emission limit information for the corresponding emission points;

[0006] A division module, connected to the construction module, is used to determine the corresponding new pollutant monitoring range based on the emission point, divide the new pollutant monitoring range into multiple sub-ranges, and set corresponding sub-control points for the corresponding sub-ranges;

[0007] The establishment module is connected with the division module, and is used to establish and connect corresponding virtual plate models based on multiple sub-control points, and to establish association relationships between multiple virtual plate models based on emission information;

[0008] The judgment module is connected to the establishment module and is used to collect new pollutant information within the corresponding new pollutant monitoring range through the sub-control points, and prompt the new pollutant information that does not meet the emission limit information as abnormal information and synchronize it to the virtual plate model;

[0009] The demonstration module is connected to the judgment module and is used to demonstrate the virtual plate model with abnormal information based on the association relationship between multiple virtual plate models to obtain the abnormal position of the emission information.

[0010] In a preferred embodiment, the building blocks include:

[0011] An acquisition unit, used to acquire the emission pathway and corresponding emission location of new pollutants as emission information, and to perform three-dimensional construction based on the emission information to obtain an emission model;

[0012] A marking unit, used for obtaining emission points in the emission model based on preset conditions and marking the emission points in the emission model;

[0013] The setting unit is used to set emission restriction information corresponding to the emission point, wherein the emission restriction information includes the type of new pollutants and the corresponding concentration.

[0014] In a preferred embodiment, the division module includes:

[0015] A selection unit, used to select a corresponding new pollutant monitoring range in the emission pathway based on the emission point, and divide the new pollutant monitoring range into multiple sub-ranges;

[0016] An information setting unit, used to set a new pollutant monitoring characteristic network in multiple sub-ranges, and set corresponding multiple monitoring points corresponding to the new pollutant monitoring characteristic network;

[0017] The association unit is used to establish an association relationship between multiple monitoring points based on the monitoring range of new pollutants to obtain sub-control points.

[0018] In a preferred embodiment, the association unit includes:

[0019] An information acquisition unit, used to acquire the locations of multiple monitoring points based on the new pollutant monitoring range, and connect the multiple monitoring points in pairs to obtain a deployment network;

[0020] A mapping unit, used to obtain the center point of the deployment network as the origin, establish a safety sphere based on the origin, and obtain the mapping position of the monitoring point on the safety sphere and the distance between the monitoring point and the origin based on the origin;

[0021] The association unit is used to use the mapping position on the safety ball corresponding to the monitoring point and the distance between the monitoring point and the origin as verification information, bind the monitoring point with the corresponding verification information, and establish an association relationship between multiple monitoring points based on the verification information to obtain a sub-control point.

[0022] In a preferred embodiment, the establishment module includes:

[0023] A configuration unit is used to construct multiple district models based on multiple new pollutant monitoring ranges, mark the positions of multiple sub-control points in the corresponding district models, and configure the positions of the sub-control points marked in the district models to the corresponding cloud servers to obtain multiple virtual plate models;

[0024] A communication unit, used to establish a communication connection between the sub-control point and the corresponding virtual plate model;

[0025] The information association unit is used to establish association relationships between multiple virtual plate models based on emission information.

[0026] In a preferred embodiment, the communication unit includes:

[0027] A communication building unit, used for establishing a communication channel between the sub-control point and the virtual plate model;

[0028] An information corresponding unit is used to set an information ball between the sub-control point and the communication channel, wherein the information ball has the same shape as the corresponding safety ball, and the position in the information ball corresponding to the verification information is used as a storage point to establish a corresponding relationship between the storage point and the corresponding monitoring point;

[0029] The connection unit is used to connect the sub-control point with the virtual plate model based on the information ball and the communication channel.

[0030] In a preferred embodiment, the judgment module includes:

[0031] A judgment unit, used for collecting new pollutant information of a corresponding sub-range through monitoring points, and treating the new pollutant information that does not meet the emission limit information as abnormal information;

[0032] A load unit, used to load new pollutant information collected at the monitoring point into a corresponding storage point in the information ball based on the verification information;

[0033] The data transmission unit is used to transmit the information ball to the corresponding virtual plate model through the communication channel.

[0034] In a preferred embodiment, the demonstration module includes:

[0035] An information corresponding unit, used for obtaining a virtual plate model corresponding to the abnormal information as a target model;

[0036] The demonstration unit is used to demonstrate the virtual plate model associated with the target model based on the association relationship between multiple virtual plate models to obtain a demonstration result, wherein the demonstration result includes the emission path that causes the abnormal information.

[0037] In the above technical solution, the technical effects and advantages provided by the present invention are:

[0038] The present invention places the new pollutant information collected by the monitoring point in the storage point corresponding to the information ball based on the verification information, and then the new pollutant information collected by the sub-control point can be transmitted to the corresponding virtual plate model through the information ball through the communication channel, which can ensure the security of information transmission and prevent the monitoring point from being replaced. In the case of replacement, the information can be placed in the information ball for transmission without verification information, and the monitoring point cannot be replaced, thereby ensuring the security of transmission of the new pollutant information collected by the monitoring point. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0040] Figure 1 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0041] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are 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] Example 1, please refer to Figure 1 As shown, the new pollutant intelligent monitoring system based on the environmental steward described in this embodiment includes:

[0043] A construction module is used to obtain emission information of new pollutants, build an emission model based on the emission information, mark multiple emission points in the emission model, and set corresponding emission limit information for the corresponding emission points;

[0044] A division module, connected to the construction module, is used to determine the corresponding new pollutant monitoring range based on the emission point, divide the new pollutant monitoring range into multiple sub-ranges, and set corresponding sub-control points for the corresponding sub-ranges;

[0045] The establishment module is connected with the division module, and is used to establish and connect corresponding virtual plate models based on multiple sub-control points, and to establish association relationships between multiple virtual plate models based on emission information;

[0046] The judgment module is connected to the establishment module and is used to collect new pollutant information within the corresponding new pollutant monitoring range through the sub-control points, and prompt the new pollutant information that does not meet the emission limit information as abnormal information and synchronize it to the virtual plate model;

[0047] A demonstration module, connected to the judgment module, is used to demonstrate the virtual plate model with abnormal information based on the association relationship between multiple virtual plate models to obtain the abnormal position of the emission information;

[0048] It should be noted that new pollutants refer to pollutants discharged into the environment, which have characteristics such as biological toxicity, environmental persistence, and bioaccumulation, and pose a great risk to the ecological environment or human health. Therefore, it is necessary to monitor new pollutants. In the monitoring of new pollutants, it is difficult to use more monitoring equipment, and more monitoring equipment is prone to data replacement in the process of monitoring new pollutants, which will lead to inaccurate collection of new pollutant information and the existence of insecurity in information transmission. In this application, based on the verification information, the new pollutant information collected by the monitoring point is placed in the storage point corresponding to the information ball, and then the new pollutant information collected by the sub-control point can be transmitted to the corresponding virtual plate model through the communication channel through the information ball, which can ensure the security of information transmission and avoid the replacement of the monitoring point. In the case of replacement, there is no verification information and it can be placed in the information ball for transmission, and the monitoring point cannot be replaced, ensuring the security of the transmission of new pollutant information collected by the monitoring point;

[0049] In one embodiment, the building blocks include:

[0050] An acquisition unit, used to acquire the emission pathway and corresponding emission location of new pollutants as emission information, and to perform three-dimensional construction based on the emission information to obtain an emission model;

[0051] A marking unit, used for obtaining emission points in the emission model based on preset conditions and marking the emission points in the emission model;

[0052] A setting unit, used to set emission restriction information corresponding to the emission point, wherein the emission restriction information includes the type of new pollutants and the corresponding concentration;

[0053] It should be noted that in industrial production, new pollutants are prone to leakage and re-emission due to imperfect treatment. In order to facilitate the supervision of enterprises, it is first necessary to obtain the emission pathways and corresponding emission locations of new pollutants as emission information, where the emission pathway is the transmission pathway of new pollutants, and the corresponding emission location is the actual position relationship corresponding to the emission pathway. Based on the emission information, a three-dimensional emission model is constructed. The emission pathway here is the pathway of new pollutants during emission or transmission and treatment. Then, the emission model is constructed according to the emission information. The emission points in the emission model are obtained based on preset conditions and marked in the emission model. The preset conditions are the locations where there are diversions in the emission pathway and the locations of interfaces in the emission pathway. Leakage is prone to occur here and the locations that cause concentration differences in the emission of new pollutants are set for the corresponding emission points. The emission restriction information includes the types of new pollutants and the corresponding concentrations. The emission restriction information here is the new pollutant information calculated based on the actual processing of industrial production. The types of new pollutants and the corresponding concentration information in the normal emission process are used to determine whether the actual collected new pollutant information is abnormal, which can greatly improve the monitoring effect of new pollutants.

[0054] In one embodiment, the partitioning module comprises:

[0055] A selection unit, used to select a corresponding new pollutant monitoring range in the emission pathway based on the emission point, and divide the new pollutant monitoring range into multiple sub-ranges;

[0056] An information setting unit, used to set a new pollutant monitoring characteristic network in multiple sub-ranges, and set corresponding multiple monitoring points corresponding to the new pollutant monitoring characteristic network;

[0057] An association unit, used to establish an association relationship between multiple monitoring points based on the new pollutant monitoring range to obtain sub-control points;

[0058] It should be noted that the emission point is the location where new pollutants are emitted. Then, the corresponding new pollutant monitoring range is selected in the emission pathway corresponding to the emission point, and multiple sub-ranges are divided in the new pollutant monitoring range. The multiple sub-ranges here are the characteristics of new pollutant emissions when there are leaks and emissions at the location where the new pollutants are emitted. The characteristics of new pollutant emissions are the types of new pollutant emissions and the corresponding concentrations. By dividing into multiple sub-ranges, new pollutants can be better monitored intelligently. Then, corresponding multiple monitoring points are set corresponding to the new pollutant monitoring feature network. The new pollutant monitoring feature network is a spatial grid, and different sub-ranges correspond to spatial grids of different sizes. For example, in the process of new pollutant transmission and processing, the new pollutant monitoring range corresponding to the emission point will be There are changes in emission concentrations. Here, spatial grids are arranged for changes in different emission concentrations. Small-sized spatial grids represent high emission concentrations, and vice versa. Then, the density and sensitivity of monitoring point settings can be obtained according to the grid layout. Small-sized spatial grids can be used to set monitoring equipment with low sensitivity and set the density of monitoring equipment low. Monitoring points are used as much as possible, where monitoring points are monitoring equipment for new pollutants. Here, monitoring equipment with different sensitivities has different prices, which can better plan the system investment cost. Corresponding to the new pollutant monitoring range, the correlation between multiple monitoring points is established to obtain sub-control points. A sub-control point represents a new pollutant monitoring range, and new pollutants can be monitored in different regions to ensure the accuracy and comprehensiveness of new pollutant monitoring.

[0059] In one embodiment, the association unit comprises:

[0060] An information acquisition unit, used to acquire the locations of multiple monitoring points based on the new pollutant monitoring range, and connect the multiple monitoring points in pairs to obtain a deployment network;

[0061] A mapping unit, used to obtain the center point of the deployment network as the origin, establish a safety sphere based on the origin, and obtain the mapping position of the monitoring point on the safety sphere and the distance between the monitoring point and the origin based on the origin;

[0062] An association unit, used to use the mapping position on the safety ball corresponding to the monitoring point and the distance between the monitoring point and the origin as verification information, bind the monitoring point with the corresponding verification information, and establish an association relationship between multiple monitoring points based on the verification information to obtain a sub-control point;

[0063] It should be noted that multiple monitoring points are set in the new pollutant monitoring range. In order to ensure the safety of the monitoring points, it is necessary to connect the multiple monitoring points in pairs to obtain a layout network, obtain the center point of the layout network as the origin, establish a safety sphere based on the origin, and obtain the mapping position of the monitoring point on the safety sphere and the distance between the monitoring point and the origin based on the origin. Here, the positions of multiple monitoring points can be obtained based on the origin, and then they can be monitored to avoid timely maintenance when the monitoring point is replaced or damaged, which has a good equipment protection effect. After that, the mapping position on the safety sphere corresponding to the monitoring point and the distance from the monitoring point to the origin are used as verification information, and the monitoring point is bound to the corresponding verification information. Based on the verification information, an association relationship between multiple monitoring points is established to obtain a sub-control point. Multiple sub-control points are communicated and connected, which can achieve a verification effect.

[0064] In one embodiment, the establishing module includes:

[0065] A configuration unit is used to construct multiple district models based on multiple new pollutant monitoring ranges, mark the positions of multiple sub-control points in the corresponding district models, and configure the positions of the sub-control points marked in the district models to the corresponding cloud servers to obtain multiple virtual plate models;

[0066] A communication unit, used to establish a communication connection between the sub-control point and the corresponding virtual plate model;

[0067] An information association unit, used to establish association relationships between multiple virtual plate models based on emission information;

[0068] It should be noted that here it is only necessary to build a district model according to the new pollutant monitoring range. Multiple district models can be built for multiple new pollutant monitoring ranges. The positions of multiple sub-control points are marked in the corresponding district model, and the positions of the sub-control points marked in the district model are configured with corresponding cloud servers to obtain multiple virtual plate models. The cloud server here is used to receive information from the corresponding sub-control points, and then a communication channel is built between the sub-control points in the new pollutant monitoring range and the corresponding cloud server to establish a communication connection relationship. Then, an association relationship is established between multiple virtual plate models based on emission information. For example, emission information includes emission pathways and corresponding emission locations. Here, the emission pathway also represents the order and pathway of transmitting new pollutants. When the new pollutant information collected by the sub-control point is abnormal when the transmission pipeline is bifurcated, there may be illegal discharge or leakage in the pipeline between the previous or next pathway. Then, there is an association relationship between the sub-control point and the previous or next sub-control point, which can facilitate better monitoring of new pollutants in the future, thereby ensuring industrial emission safety.

[0069] In one embodiment, the communication unit comprises:

[0070] A communication building unit, used for establishing a communication channel between the sub-control point and the virtual plate model;

[0071] An information corresponding unit is used to set an information ball between the sub-control point and the communication channel, wherein the information ball has the same shape as the corresponding safety ball, and the position in the information ball corresponding to the verification information is used as a storage point to establish a corresponding relationship between the storage point and the corresponding monitoring point;

[0072] A connection unit, used to connect the sub-control point with the virtual plate model based on the information ball and the communication channel;

[0073] It should be noted that a communication channel is built between the sub-control point and the virtual plate model, and then an information ball is set between the sub-control point and the communication channel, wherein the information ball has the same shape as the corresponding safety ball, and the position in the information ball corresponding to the verification information is used as a storage point, and a corresponding relationship between the storage point and the corresponding monitoring point is established. For example, new pollutant information is collected through the monitoring point in the sub-control point, and then an information ball with the same shape as the safety ball is established according to the verification information of the monitoring point. The information ball is used as a carrier for transmission, and then the new pollutant information collected by the monitoring point is placed in the storage point corresponding to the information ball based on the verification information. Then, the new pollutant information collected by the sub-control point can be carried by the information ball and transmitted to the corresponding virtual plate model through the communication channel, which can ensure the security of information transmission and prevent the monitoring point from being replaced. In the case of replacement, it can be placed in the information ball for transmission without verification information, and the monitoring point cannot be replaced, thereby ensuring the security of transmission of new pollutant information collected by the monitoring point;

[0074] In one embodiment, the determination module includes:

[0075] A judgment unit, used for collecting new pollutant information of a corresponding sub-range through monitoring points, and treating the new pollutant information that does not meet the emission limit information as abnormal information;

[0076] A load unit, used to load new pollutant information collected at the monitoring point into a corresponding storage point in the information ball based on the verification information;

[0077] A data transmission unit, used for transmitting the information ball to the corresponding virtual plate model through a communication channel;

[0078] It should be noted that the new pollutant information of the corresponding sub-range is collected through the monitoring point, and the new pollutant information that does not meet the emission limit information is taken as abnormal information. The emission limit information here is the new pollutant concentration and emission amount corresponding to the new pollutant type emitted within the limited new pollutant monitoring range (specifically limited emission limit information and new pollutant information generated by industrial actual processing prediction). The new pollutant information collected by the monitoring point is the new pollutant concentration and emission amount corresponding to the new pollutant type. Then, the new pollutant information collected by the monitoring point is compared with the emission limit information, and the new pollutant information that does not meet the emission limit information is taken as abnormal information. Exceeding the emission limit information means that excessive emissions occur, and being lower than the emission limit information means that there may be illegal emissions. After the new pollutant information is collected at the monitoring point, multiple monitoring points will communicate with each other to verify their respective verification information. The monitoring points can be associated (communication is connected) through the verification information, which means that the multiple monitoring points are in a normal state. Then, based on the verification information, the new pollutant information collected by the monitoring point is loaded into the corresponding storage point in the information ball, and the information ball is transmitted to the corresponding virtual plate model through the communication channel, which can better ensure the accuracy of the collected new pollutant information.

[0079] In one embodiment, the demonstration module includes:

[0080] An information corresponding unit, used for obtaining a virtual plate model corresponding to the abnormal information as a target model;

[0081] A demonstration unit, used for demonstrating a virtual plate model associated with a target model based on an association relationship between multiple virtual plate models to obtain a demonstration result, wherein the demonstration result includes an emission path that causes abnormal information to appear;

[0082] It should be noted that after obtaining the abnormal information, the virtual plate model corresponding to the abnormal information is used as the target model. Since the appearance of abnormal information is not necessarily caused by the current monitoring abnormality location, for example, in the process of new pollutant emission pathway, emission leakage occurs between adjacent sub-control points or a pipeline is led out for illegal discharge, which will cause abnormal information to appear. Therefore, it is necessary to obtain the virtual plate model associated with the target model based on the association relationship between multiple virtual plate models to demonstrate the emission pathway that causes the abnormal information, so as to obtain the approximate location of the abnormal new pollutant emission, which is convenient for maintenance.

[0083] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art who is familiar with the present technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims

1. A new pollutant intelligent monitoring system based on environmental steward, characterized in that: include: A construction module is used to obtain emission information of new pollutants, build an emission model based on the emission information, mark multiple emission points in the emission model, and set corresponding emission limit information for the corresponding emission points; A division module, connected to the construction module, is used to determine the corresponding new pollutant monitoring range based on the emission point, divide the new pollutant monitoring range into multiple sub-ranges, and set corresponding sub-control points for the corresponding sub-ranges; The partitioning module includes an association unit, and the association unit includes: An information acquisition unit, used to acquire the locations of multiple monitoring points based on the new pollutant monitoring range, and connect the multiple monitoring points in pairs to obtain a deployment network; A mapping unit, used to obtain the center point of the deployment network as the origin, establish a safety sphere based on the origin, and obtain the mapping position of the monitoring point on the safety sphere and the distance between the monitoring point and the origin based on the origin; An association unit, used to use the mapping position on the safety ball corresponding to the monitoring point and the distance between the monitoring point and the origin as verification information, bind the monitoring point with the corresponding verification information, and establish an association relationship between multiple monitoring points based on the verification information to obtain a sub-control point; The establishment module is connected with the division module, and is used to establish and connect corresponding virtual plate models based on multiple sub-control points, and to establish association relationships between multiple virtual plate models based on emission information; The establishment module includes: A configuration unit is used to construct multiple district models based on multiple new pollutant monitoring ranges, mark the positions of multiple sub-control points in the corresponding district models, and configure the positions of the sub-control points marked in the district models to the corresponding cloud servers to obtain multiple virtual plate models; A communication unit, used to establish a communication connection between the sub-control point and the corresponding virtual plate model; An information association unit, used to establish association relationships between multiple virtual plate models based on emission information; The communication unit comprises: A communication building unit, used for establishing a communication channel between the sub-control point and the virtual plate model; An information corresponding unit is used to set an information ball between the sub-control point and the communication channel, wherein the information ball has the same shape as the corresponding safety ball, and the position in the information ball corresponding to the verification information is used as a storage point to establish a corresponding relationship between the storage point and the corresponding monitoring point; A connection unit, used to connect the sub-control point with the virtual plate model based on the information ball and the communication channel; The judgment module is connected to the establishment module and is used to collect new pollutant information within the corresponding new pollutant monitoring range through the sub-control points, and prompt the new pollutant information that does not meet the emission limit information as abnormal information and synchronize it to the virtual plate model; The demonstration module is connected to the judgment module and is used to demonstrate the virtual plate model with abnormal information based on the association relationship between multiple virtual plate models to obtain the abnormal position of the emission information.

2. According to claim 1, a new pollutant intelligent monitoring system based on environmental steward is characterized by: The building blocks include: An acquisition unit, used to acquire the emission pathway and corresponding emission location of new pollutants as emission information, and to perform three-dimensional construction based on the emission information to obtain an emission model; A marking unit, used for obtaining emission points in the emission model based on preset conditions and marking the emission points in the emission model; The setting unit is used to set emission restriction information corresponding to the emission point, wherein the emission restriction information includes the type of new pollutants and the corresponding concentration.

3. According to claim 1, the intelligent monitoring system for new pollutants based on environmental steward is characterized by: The division module comprises: A selection unit, used to select a corresponding new pollutant monitoring range in the emission pathway based on the emission point, and divide the new pollutant monitoring range into multiple sub-ranges; The information setting unit is used to set a new pollutant monitoring characteristic network in multiple sub-ranges, and to set corresponding multiple monitoring points corresponding to the new pollutant monitoring characteristic network.

4. According to claim 1, a new pollutant intelligent monitoring system based on environmental steward is characterized by: The judging module comprises: A judgment unit, used for collecting new pollutant information of a corresponding sub-range through monitoring points, and treating the new pollutant information that does not meet the emission limit information as abnormal information; A load unit, used to load new pollutant information collected at the monitoring point into a corresponding storage point in the information ball based on the verification information; The data transmission unit is used to transmit the information ball to the corresponding virtual plate model through the communication channel.

5. The new pollutant intelligent monitoring system based on environmental steward according to claim 1 is characterized by: The demonstration module includes: An information corresponding unit, used for obtaining a virtual plate model corresponding to the abnormal information as a target model; The demonstration unit is used to demonstrate the virtual plate model associated with the target model based on the association relationship between multiple virtual plate models to obtain a demonstration result, wherein the demonstration result includes the emission path that causes the abnormal information.

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