Marine project rectification engineering supervision system

Abstract

The invention provides an ocean project rectification engineering supervision system, which comprises a data collection module, a data analysis module, an early warning module, a supervision module and an optimization module, and is used for executing an ocean project rectification engineering supervision method, and the method comprises the following steps: S1, collecting ocean project rectification engineering data through the data collection module, dividing the collected ocean project rectification engineering data into dimension rectification data; s2, carrying out dimension analysis on the dimension rectification data through a data analysis module, and obtaining a dimension analysis result; s3, carrying out dimension early warning by an early warning module according to a dimension analysis result; s4, the supervision module starts a supervision strategy for dimension early warning; and S5, the optimization module optimizes the ocean project rectification project according to the started supervision strategy. The system can improve the construction period, space and environment supervision efficiency and accuracy of a rectification project through the supervision means of data collection, analysis, early warning, supervision and optimization modules.

Description

Technical Field

[0001] The invention relates to the technical field of managing marine project rectification engineering supervision, and in particular to a marine project rectification engineering supervision system. Background Art

[0002] With the rapid development of the global marine economy, the development and utilization of marine resources are becoming increasingly frequent, including but not limited to marine engineering construction, marine resource exploitation, marine environmental protection and other fields. However, these projects are often accompanied by complex environmental challenges and construction period supervision problems during implementation, especially in the project rectification stage. How to ensure that the rectification period is completed on time and meets environmental protection standards, technical specifications and legal and regulatory requirements has become an urgent problem to be solved. The traditional marine project rectification engineering supervision method mainly relies on manual on-site inspection of the environment, regular reporting of the construction period and other methods, which has many shortcomings. First, the information is lagging, and it is difficult for supervisors to obtain the latest construction period and environmental impact data of the rectification project in a timely manner, resulting in a lack of timeliness and accuracy in supervision decisions. Secondly, the supervision efficiency is low, and manual inspection is not only time-consuming and labor-intensive, but also easily affected by human factors, resulting in poor supervision results. Therefore, the present invention proposes a marine project rectification engineering supervision system to solve the problems existing in traditional supervision methods, improve supervision efficiency and accuracy, and protect the marine ecological environment. Summary of the invention

[0003] In view of this, an object of the present invention is to provide a marine project rectification engineering supervision system to at least solve the above problems.

[0004] The technical solution adopted by the present invention is as follows:

[0005] A marine project rectification engineering supervision system, the system includes a data collection module, a data analysis module, an early warning module, a supervision module and an optimization module, the system is used to perform a marine project rectification engineering supervision method, the method includes the following steps:

[0006] S1. Collecting marine project rectification engineering data through a data collection module, and dividing the collected marine project rectification engineering data into dimension rectification data;

[0007] S2. Perform dimensional analysis on the dimensional rectification data through the data analysis module and obtain dimensional analysis results;

[0008] S3, the warning module performs dimension warning based on the dimension analysis results;

[0009] S4, the supervision module initiates the supervision strategy for dimension warning;

[0010] S5. The optimization module optimizes the rectification project of the marine project according to the activated supervision strategy.

[0011] Further, in step S1, the marine project rectification engineering data includes rectification time limit, rectification location, rectification stage and rectification environment data.

[0012] Further, in step S1, the dimension rectification data includes a time dimension, a space dimension and an environment dimension.

[0013] Furthermore, in step S2, the following sub-steps are also included:

[0014] S21, the data analysis module sets the time dimension node threshold, the space dimension node threshold and the environment dimension node threshold respectively;

[0015] S22. When the engineering time dimension node in the marine project rectification project exceeds the set time dimension node threshold, the data analysis module scores the engineering time dimension node, and matches the obtained engineering time dimension node score with the engineering time dimension node analysis result corresponding to the score stored in the data analysis module to obtain the engineering time dimension node analysis result;

[0016] S23. When the spatial dimension node in the marine project is lower than the set spatial dimension node threshold, the data analysis module scores the spatial dimension node, and matches the obtained spatial dimension node score with the spatial dimension node analysis result corresponding to the score stored in the data analysis module to obtain the spatial dimension node analysis result;

[0017] S24. When the environmental dimension node in the marine project engineering is higher than the set environmental dimension node threshold, the data analysis module scores the environmental dimension node, and matches the obtained environmental dimension node score with the environmental dimension node analysis result corresponding to the score stored in the data analysis module to obtain the environmental dimension node analysis result.

[0018] Furthermore, in step S3, the following sub-steps are also included:

[0019] S31, the early warning module captures the limited texts in the project time dimension node analysis results: low level, general level, medium level, high level, and extremely high level through text capture technology, and performs corresponding low level, general level, medium level, high level, and extremely high level project time and duration early warning;

[0020] S32, the early warning module text capture technology captures the limited text of the engineering space dimension node analysis results: low level, general level, medium level, high level, and extremely high level, and performs corresponding low level, general level, medium level, high level, and extremely high level engineering space early warning;

[0021] S33. The early warning module captures the limited texts in the analysis results of the engineering environment dimension nodes: good grade, poor grade, and extremely poor grade through text capture technology, and performs corresponding good grade, poor grade, and extremely poor grade engineering environment early warnings.

[0022] Furthermore, in step S4, the supervision module starts the supervision strategy for the dimension warning as follows:

[0023] The supervision module activates low-manpower scheduling, general-manpower scheduling, medium-manpower scheduling, high-manpower scheduling, and extremely high-manpower scheduling supervision strategies for low-level, general-level, medium-level, high-level, and extremely high-level project time and duration warnings respectively;

[0024] The supervision module activates low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling, and extremely high equipment scheduling supervision strategies for low-level, general-level, medium-level, high-level, and extremely high-level engineering space warnings respectively;

[0025] The supervision module initiates the noise supervision strategy for the good level, the noise and atmosphere supervision strategy for the poor level, and the noise, atmosphere, geological and hydrological supervision strategy for the extremely poor level engineering environment warning.

[0026] Furthermore, in step S5, the optimization module optimizes the marine project rectification project according to the activated supervision strategy as follows:

[0027] The optimization module optimizes the allocation plan of construction personnel, management personnel, divers, crew members and other personnel in the project time dimension node analysis results based on the activated low-manpower scheduling, general-manpower scheduling, medium-manpower scheduling, high-manpower scheduling, and extremely high-manpower scheduling supervision strategies;

[0028] The optimization module optimizes the allocation scheme of ships, vehicles, cranes and other equipment in the node analysis results of the engineering space dimension according to the activated low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling and extremely high equipment scheduling supervision strategies;

[0029] The optimization module optimizes the monitoring scheme in the environmental dimension node analysis results based on the activated noise supervision strategy, noise and atmosphere supervision strategy, noise, atmosphere, geological and hydrological supervision strategy.

[0030] Compared with the prior art, the present invention has the following beneficial effects:

[0031] The present invention proposes a marine project rectification engineering supervision system. The system can improve the efficiency and accuracy of the rectification engineering's supervision on the construction period, space, and environment through the supervision means of data collection, analysis, early warning, supervision, and optimization modules, and can timely discover early warning behaviors in the rectification engineering's construction period, space, and environment, so as to optimize the rectification engineering's construction period, space, and environment accordingly, thereby improving the rectification efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only preferred embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0033] Figure 1 The present invention provides an overall structural diagram of a marine project rectification engineering supervision system.

[0034] Figure 2 The present invention is a flowchart of a marine project rectification project supervision and prevention system implemented in a marine project rectification project supervision system according to an embodiment of the present invention. DETAILED DESCRIPTION

[0035] The principles and features of the present invention are described below in conjunction with the accompanying drawings. The enumerated embodiments are only used to explain the present invention and are not used to limit the scope of the present invention.

[0036] Reference Figure 1-Figure 2 The present invention provides a marine project rectification engineering supervision system, the system includes a data collection module, a data analysis module, an early warning module, a supervision module and an optimization module, the system is used to perform a marine project rectification engineering supervision method, the method includes the following steps:

[0037] S1. Collecting marine project rectification engineering data through a data collection module, and dividing the collected marine project rectification engineering data into dimension rectification data;

[0038] S2. Perform dimensional analysis on the dimensional rectification data through the data analysis module and obtain dimensional analysis results;

[0039] S3, the warning module performs dimension warning based on the dimension analysis results;

[0040] S4, the supervision module initiates the supervision strategy for dimension warning;

[0041] S5. The optimization module optimizes the rectification project of the marine project according to the activated supervision strategy.

[0042] In step S1 , the marine project rectification engineering data includes rectification time limit, rectification location, rectification stage and rectification environment data.

[0043] In step S1, the dimension rectification data includes a time dimension, a space dimension and an environment dimension.

[0044] Exemplarily, data is collected from on-site monitoring equipment, engineering documents, environmental reports, etc. in the marine project rectification project through the data collection module. The collected data include the rectification time limit, i.e., when the project needs to be completed, the rectification location, i.e., the specific spatial geographical location or spatial area of ​​the project, the rectification stage, such as the design stage, the construction stage, the acceptance stage, etc., and the rectification environmental data, such as noise, atmosphere, water quality, hydrology, and biological community conditions, etc., and the collected marine project rectification project data are divided into different dimensions for subsequent analysis and early warning. The dimensional rectification data include the time dimension involving the time schedule and deadline of the rectification project, the space dimension involving the specific location range of the rectification project, and the environmental dimension involving the natural environmental conditions in which the rectification project is located; the data analysis module receives the time dimension, space dimension, and environmental dimension data divided in step S1, and conducts in-depth analysis to obtain the dimensional analysis results; the early warning module performs dimensional early warning according to the dimensional analysis results provided by the data analysis module. If the data of a certain dimension, such as time, space, or environment, exceeds the preset threshold, the early warning module will issue a relevant early warning, and the supervision module will start the corresponding supervision strategy according to the early warning information of the early warning module; the optimization module will optimize the marine project rectification project according to the started supervision strategy.

[0045] In step S2, the following sub-steps are also included:

[0046] S21, the data analysis module sets the time dimension node threshold, the space dimension node threshold and the environment dimension node threshold respectively;

[0047] S22. When the engineering time dimension node in the marine project rectification project exceeds the set time dimension node threshold, the data analysis module scores the engineering time dimension node, and matches the obtained engineering time dimension node score with the engineering time dimension node analysis result corresponding to the score stored in the data analysis module to obtain the engineering time dimension node analysis result;

[0048] S23. When the spatial dimension node in the marine project is lower than the set spatial dimension node threshold, the data analysis module scores the spatial dimension node, and matches the obtained spatial dimension node score with the spatial dimension node analysis result corresponding to the score stored in the data analysis module to obtain the spatial dimension node analysis result;

[0049] S24. When the environmental dimension node in the marine project engineering is higher than the set environmental dimension node threshold, the data analysis module scores the environmental dimension node, and matches the obtained environmental dimension node score with the environmental dimension node analysis result corresponding to the score stored in the data analysis module to obtain the environmental dimension node analysis result.

[0050] Exemplarily, the data analysis module sets a time dimension node threshold, a space dimension node threshold, and an environment dimension node threshold to determine whether the data of each dimension node is within a normal range. These thresholds are determined based on factors such as the duration requirements, location range, environmental standards, and historical data of the marine project rectification project. When the engineering time dimension node data in the marine project rectification project exceeds the set time dimension node threshold, the data analysis module will score the time dimension node. The score can be based on factors such as the length of the delay and the degree of impact on subsequent work. The data analysis module matches the obtained engineering time dimension node score with the engineering time dimension node analysis result corresponding to the score pre-stored in the module to obtain the engineering time dimension node analysis result;

[0051] When the spatial dimension node data in the marine project rectification project is lower than the set spatial dimension node threshold, it means that the location scope of the marine project rectification project is reduced, the construction area is restricted, etc., then the data analysis module will score the spatial dimension node, and the data analysis module will match the obtained spatial dimension node score with the spatial dimension node analysis result corresponding to the score pre-stored in the module to obtain the spatial dimension node analysis result;

[0052] When the environmental dimension node data in the marine project rectification project is higher than the set environmental dimension node threshold, for example, noise, atmosphere, water quality, hydrology, biological community conditions, etc., the data analysis module will score the environmental dimension node, and the data analysis module will match the obtained environmental dimension node score with the environmental dimension node analysis result corresponding to the score pre-stored in the module to obtain the environmental dimension node analysis result.

[0053] In step S3, the following sub-steps are also included:

[0054] S31, the early warning module captures the limited texts in the project time dimension node analysis results: low level, general level, medium level, high level, and extremely high level through text capture technology, and performs corresponding low level, general level, medium level, high level, and extremely high level project time and duration early warning;

[0055] S32, the early warning module text capture technology captures the limited text of the engineering space dimension node analysis results: low level, general level, medium level, high level, and extremely high level, and performs corresponding low level, general level, medium level, high level, and extremely high level engineering space early warning;

[0056] S33. The early warning module captures the limited texts in the analysis results of the engineering environment dimension nodes: good grade, poor grade, and extremely poor grade through text capture technology, and performs corresponding good grade, poor grade, and extremely poor grade engineering environment early warnings.

[0057] Exemplarily, for construction period warning, the warning module uses text crawling technology to crawl fields containing limited text from the analysis results of the project time dimension node. The limited text includes "low level", "general level", "medium level", "high level" and "extremely high level". According to the crawled limited text, the warning module will trigger the corresponding level of project time construction period warning. For example, if the "extremely high level" is crawled, the highest level of construction period warning will be issued, reminding relevant personnel that the project time node is seriously delayed and that corresponding measures need to be taken immediately to correct it; for space dimension warning, the warning module uses text crawling technology to crawl fields containing limited text from the analysis results of the project space dimension node. The limited text also includes "low level", "general level", "medium level", "high level" and "extremely high level". According to the crawled limited text, the warning module will trigger the corresponding level of project space warning. For example, if a "low level" is captured, it may mean that the scope of the project space is too small or the construction area is limited, and attention needs to be paid and the corresponding construction plan may be adjusted; for environmental warnings, the warning module uses text capture technology to capture fields containing limited text from the analysis results of the project environment dimension node, including "good level", "poor level" and "extremely poor level". According to the captured limited text, the warning module will trigger the corresponding level of engineering environment warning. For example, if the "extremely poor level" is captured, the highest level of environmental warning will be issued, prompting relevant personnel that the environmental quality is extremely poor, there may be serious environmental problems or risks, and corresponding measures need to be taken to improve or respond.

[0058] In step S4, the supervision module starts the supervision strategy for dimension warning as follows:

[0059] The supervision module activates low-manpower scheduling, general-manpower scheduling, medium-manpower scheduling, high-manpower scheduling, and extremely high-manpower scheduling supervision strategies for low-level, general-level, medium-level, high-level, and extremely high-level project time and duration warnings respectively;

[0060] The supervision module activates low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling, and extremely high equipment scheduling supervision strategies for low-level, general-level, medium-level, high-level, and extremely high-level engineering space warnings respectively;

[0061] The supervision module initiates the noise supervision strategy for the good level, the noise and atmosphere supervision strategy for the poor level, and the noise, atmosphere, geological and hydrological supervision strategy for the extremely poor level engineering environment warning.

[0062] Exemplarily, when the supervision module receives a low-level project time deadline warning, it activates the low-manpower scheduling supervision strategy. For general, medium, high and extremely high level construction deadline warnings, the supervision module will respectively activate general manpower scheduling, medium manpower scheduling, high manpower scheduling and extremely high manpower scheduling supervision strategies. Strategies may include increasing the number of personnel in key positions, extending working hours, introducing external labor resources and other measures to ensure that the project can proceed as planned; when the supervision module receives a low-level engineering space warning, the low equipment scheduling supervision strategy is activated. For general, medium, high and extremely high level space warnings, the supervision module will respectively activate general equipment scheduling, medium equipment scheduling, high equipment scheduling and extremely high equipment scheduling supervision strategies. These strategies may include increasing the number of construction equipment, upgrading equipment performance, introducing more efficient construction methods and other measures to deal with space restrictions or limited construction areas. When the supervision module receives a good level engineering environment warning, the noise supervision strategy is activated, which may include setting up noise barriers, limiting construction time and other measures to reduce the impact of construction on the surrounding environment. For poor level environmental warnings, in addition to the noise supervision strategy, the atmospheric supervision strategy is also activated, which may include monitoring air quality, controlling emissions and other measures to ensure that construction does not cause atmospheric pollution. For extremely poor level environmental warnings, the supervision module will activate comprehensive supervision strategies, including noise, atmospheric, geological and hydrological supervision. These strategies may involve more stringent monitoring and control measures to ensure that construction activities do not cause irreversible damage to the environment and ecosystem.

[0063] In step S5, the optimization module optimizes the marine project rectification project according to the activated supervision strategy, specifically:

[0064] The optimization module optimizes the allocation plan of construction personnel, management personnel, divers, crew members and other personnel in the project time dimension node analysis results based on the activated low-manpower scheduling, general-manpower scheduling, medium-manpower scheduling, high-manpower scheduling, and extremely high-manpower scheduling supervision strategies;

[0065] The optimization module optimizes the allocation scheme of ships, vehicles, cranes and other equipment in the node analysis results of the engineering space dimension according to the activated low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling and extremely high equipment scheduling supervision strategies;

[0066] The optimization module optimizes the monitoring scheme in the environmental dimension node analysis results based on the activated noise supervision strategy, noise and atmosphere supervision strategy, noise, atmosphere, geological and hydrological supervision strategy.

[0067] Exemplarily, in the time dimension optimization, for the optimization of construction personnel and management personnel, the optimization module optimizes the allocation plan of construction personnel and management personnel in the analysis results of the project time dimension nodes according to the initiated low-management scheduling, general-management scheduling, medium-management scheduling, high-management scheduling, and extremely high-management scheduling supervision strategies, which may involve adjusting the number of personnel, work shifts, and responsibility allocation, etc., to ensure that the construction tasks are completed efficiently and orderly within the construction period requirements. For the optimization of divers and crew members, in marine projects involving underwater operations, the optimization module can reasonably allocate the number and professional skills of divers, as well as the work arrangements of crew members according to the requirements of the supervision strategy, to ensure the safety and efficiency of underwater operations. For the optimization of other personnel, in addition to construction personnel, management personnel, divers and crew members, the optimization module also needs to consider the allocation of other auxiliary personnel, such as safety supervisors, logistics support personnel, etc., to ensure the coordinated operation of the entire construction team.

[0068] In the space dimension optimization, for ship and vehicle optimization, the optimization module optimizes the ship and vehicle allocation scheme in the project space dimension node analysis results according to the low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling, and extremely high equipment scheduling supervision strategies that are activated. The optimization module can adjust the types, quantities, use time and location of ships and vehicles to make full use of limited space resources and improve construction efficiency. For crane and other equipment optimization, in large construction equipment such as cranes, the optimization module can reasonably arrange its use time and location according to the requirements of the supervision strategy to ensure the smooth progress of the construction task. At the same time, the allocation of other small equipment, such as measuring instruments, communication equipment, etc., needs to be considered to ensure the accuracy and safety of construction.

[0069] In the environmental dimension optimization, the optimization module optimizes the monitoring scheme in the environmental dimension node analysis results according to the activated noise supervision strategy, noise and atmosphere supervision strategy, noise, atmosphere, geological and hydrological supervision strategy. It can include adding monitoring points, increasing monitoring frequency, introducing more advanced monitoring technology, etc., to ensure that the impact of construction activities on the environment is effectively controlled and monitored. In addition to the monitoring plan, the optimization module also considers the implementation of more specific environmental protection measures, such as setting up noise barriers, controlling emissions, protecting ecologically sensitive areas, etc., to reduce the adverse impact of construction on the environment.

[0070] 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 principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A marine project rectification engineering supervision system, characterized in that: The system includes a data collection module, a data analysis module, an early warning module, a supervision module and an optimization module. The system is used to implement a marine project rectification engineering supervision method, and the method includes the following steps: S1. Collecting marine project rectification engineering data through a data collection module, and dividing the collected marine project rectification engineering data into dimension rectification data; S2. Perform dimensional analysis on the dimensional rectification data through the data analysis module and obtain dimensional analysis results; S3, the warning module performs dimension warning based on the dimension analysis results; S4, the supervision module initiates the supervision strategy for dimension warning; S5. The optimization module optimizes the rectification project of the marine project according to the activated supervision strategy.

2. A marine project rectification engineering supervision system according to claim 1, characterized in that: In step S1 , the marine project rectification engineering data includes rectification time limit, rectification location, rectification stage and rectification environment data.

3. A marine project rectification engineering supervision system according to claim 2, characterized in that: In step S1, the dimension rectification data includes a time dimension, a space dimension and an environment dimension.

4. A marine project rectification engineering supervision system according to claim 3, characterized in that: In step S2, the following sub-steps are also included: S21, the data analysis module sets the time dimension node threshold, the space dimension node threshold and the environment dimension node threshold respectively; S22. When the engineering time dimension node in the marine project rectification project exceeds the set time dimension node threshold, the data analysis module scores the engineering time dimension node, and matches the obtained engineering time dimension node score with the engineering time dimension node analysis result corresponding to the score stored in the data analysis module to obtain the engineering time dimension node analysis result; S23. When the spatial dimension node in the marine project is lower than the set spatial dimension node threshold, the data analysis module scores the spatial dimension node, and matches the obtained spatial dimension node score with the spatial dimension node analysis result corresponding to the score stored in the data analysis module to obtain the spatial dimension node analysis result; S24. When the environmental dimension node in the marine project engineering is higher than the set environmental dimension node threshold, the data analysis module scores the environmental dimension node, and matches the obtained environmental dimension node score with the environmental dimension node analysis result corresponding to the score stored in the data analysis module to obtain the environmental dimension node analysis result.

5. A marine project rectification engineering supervision system according to claim 4, characterized in that: In step S3, the following sub-steps are also included: S31, the early warning module captures the limited texts in the project time dimension node analysis results: low level, general level, medium level, high level, and extremely high level through text capture technology, and performs corresponding low level, general level, medium level, high level, and extremely high level project time and duration early warning; S32, the early warning module text capture technology captures the limited text of the engineering space dimension node analysis results: low level, general level, medium level, high level, and extremely high level, and performs corresponding low level, general level, medium level, high level, and extremely high level engineering space early warning; S33. The early warning module captures the limited texts in the analysis results of the engineering environment dimension nodes: good grade, poor grade, and extremely poor grade through text capture technology, and performs corresponding good grade, poor grade, and extremely poor grade engineering environment early warnings.

6. A marine project rectification engineering supervision system according to claim 5, characterized in that: In step S4, the supervision module starts the supervision strategy for dimension warning as follows: The supervision module activates low-manpower scheduling, general-manpower scheduling, medium-manpower scheduling, high-manpower scheduling, and extremely high-manpower scheduling supervision strategies for low-level, general-level, medium-level, high-level, and extremely high-level project time and duration warnings respectively; The supervision module activates low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling, and extremely high equipment scheduling supervision strategies for low-level, general-level, medium-level, high-level, and extremely high-level engineering space warnings respectively; The supervision module initiates the noise supervision strategy for the good level, the noise and atmosphere supervision strategy for the poor level, and the noise, atmosphere, geological and hydrological supervision strategy for the extremely poor level engineering environment warning.

7. A marine project rectification engineering supervision system according to claim 6, characterized in that: In step S5, the optimization module optimizes the marine project rectification project according to the activated supervision strategy, specifically: The optimization module optimizes the allocation plan of construction personnel, management personnel, divers, crew members and other personnel in the project time dimension node analysis results based on the activated low-manpower scheduling, general-manpower scheduling, medium-manpower scheduling, high-manpower scheduling, and extremely high-manpower scheduling supervision strategies; The optimization module optimizes the allocation scheme of ships, vehicles, cranes and other equipment in the node analysis results of the engineering space dimension according to the activated low equipment scheduling, general equipment scheduling, medium equipment scheduling, high equipment scheduling and extremely high equipment scheduling supervision strategies; The optimization module optimizes the monitoring scheme in the environmental dimension node analysis results based on the activated noise supervision strategy, noise and atmosphere supervision strategy, noise, atmosphere, geological and hydrological supervision strategy.

Images