Method, system and storage medium for revealing the law of contaminated site remediation

The method and system improve the efficiency and accuracy of uncovering remediation rules by analyzing soil and pollutant data to optimize chemical agent use for contaminated site cleanup.

CN117086098BActive Publication Date: 2025-07-15SHANGHAI DI MINE ENG KANCHA CO LTD +2
View PDF 2 Cites 0 Cited by

Patent Information

Application Number
CN202311147574.7
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2023-09-06
Publication Date
2025-07-15
Estimated Expiration
2043-09-06

AI Technical Summary

Technical Problem

The method for restoring contaminated sites in the prior art requires a large spatial scale and a long time, resulting in inefficient disclosure of the rules of restoring contaminated sites.

Method used

By acquiring the soil environmental factors and pollutant types of single well information, analyzing the agent type and concentration, determining the pollutant removal rate and chemical utilization rate, combining multi-well information simulation, optimizing the overlapping factor to improve the accuracy and efficiency of the repair rules.

Benefits of technology

It improves the efficiency and accuracy of the remediation rules of polluted sites, reduces space and time requirements, and optimizes the utilization rate of drugs.

✦ Generated by Eureka AI based on patent content.

Smart Images

  • Figure CN117086098B_ABST
    Figure CN117086098B_ABST
Patent Text Reader

Abstract

The present application relates to a method, system and storage medium for revealing the law of contaminated site remediation, belonging to the field of contaminated site remediation technology, which includes determining the type information of the agent according to the detected pollutant type information; obtaining the pollutant concentration information, the agent concentration information and the injection time information; determining the total amount information of the unit target pollutant according to the soil environmental factor information and the pollutant concentration information; determining the pollutant removal rate information according to the total amount information of the unit target pollutant, the total amount information of the initial pollutant and the soil environmental factor information; determining the total amount information of the injected agent according to the soil environmental factor information, the agent concentration information and the injection time information; determining the total amount information of the reaction agent according to the soil environmental factor information, the agent concentration information, the injection time information and the total amount information of the injected agent; and determining the agent utilization rate information according to the total amount information of the injected agent and the total amount information of the reaction agent. The present application has the effect of improving the efficiency of revealing the law of contaminated site remediation.
Need to check novelty before this filing date? Find Prior Art

Description

Technical Field

[0001] The present application relates to the field of contaminated site remediation technologies, and particularly to a method, a system, and a storage medium for revealing the remediation law of contaminated sites. Background Art

[0002] Since the 20th century, the world has entered a period of rapid agriculturalization, industrialization, and urbanization. The demand for artificial chemicals by humans has been increasing day by day. These chemicals are released into the environment through various channels, causing chemical pollution of the land and having a serious impact on human health.

[0003] In related technologies, chemical substances with characteristics such as environmental persistence, bioaccumulation, biotoxicity, and long-distance transport exist in contaminated sites. The traditional remediation method for contaminated sites is to divide some areas of the contaminated site into test areas, spray remediation chemicals in the test areas, and monitor the pollutant residues in the test areas to evaluate the indicators of the remediation method.

[0004] In view of the above-mentioned related technologies, dividing some areas of the contaminated site into test areas and then spraying remediation chemicals in the test areas to detect the residual changes of pollutants in the test areas requires a large spatial scale and a long test monitoring time, resulting in low efficiency in revealing the remediation law of contaminated sites and there is still room for improvement. Summary of the Invention

[0005] In order to improve the efficiency of revealing the remediation law of contaminated sites, the present application provides a method, a system, and a storage medium for revealing the remediation law of contaminated sites.

[0006] In a first aspect, the present application provides a method for revealing the remediation law of contaminated sites, adopting the following technical solution:

[0007] A method for revealing the remediation law of contaminated sites includes:

[0008] Obtaining soil environmental factor information and detected pollutant type information of preset single-well information;

[0009] Analyzing according to the pollutant type corresponding to the detected pollutant type information to determine the chemical agent type information;

[0010] Obtaining pollutant concentration information of the pollutant type corresponding to the detected pollutant type information, chemical agent concentration information of the chemical agent type corresponding to the chemical agent type information, and injection time information;

[0011] Analyzing according to the soil environmental data corresponding to the soil environmental factor information and the pollutant concentration information to determine the total amount information of the unit target pollutant;

[0012] Analyze based on the total amount information of unit target pollutants, the preset initial total amount information of pollutants, and the soil environmental factor information to determine the pollutant removal rate information;

[0013] Analyze based on the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration information, and the injection time information to determine the total amount information of the injected chemical agent;

[0014] Analyze based on the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration information, the injection time information, and the total amount information of the injected chemical agent to determine the total amount information of the reaction chemical agent;

[0015] Analyze based on the total amount information of the injected chemical agent and the total amount information of the reaction chemical agent to determine the chemical agent utilization rate information.

[0016] By adopting the above technical solution, detect the soil environmental factor information of the single-well information, so as to master the specific soil data of the single-well information, detect the types of pollutants to be removed, and thus determine the chemical agent type information for removing the pollutants, detect the pollutant concentration information, the chemical agent concentration information, and the injection time information, and input the soil environmental factor information, the pollutant concentration information, the chemical agent concentration information, and the injection time information, so as to determine the pollutant removal rate information and the chemical agent utilization rate information, to reveal the pollution site remediation law, and further improve the efficiency of revealing the pollution site remediation law.

[0017] Optionally, the method for determining the total amount information of unit target pollutants includes:

[0018] Extract the soil porosity information and the apparent density information of solid particles based on the soil environmental factor information;

[0019] Analyze based on the soil porosity information and the apparent density information of solid particles to determine the dry density information of the soil mass;

[0020] Analyze according to the pollutant type corresponding to the detected pollutant type information to determine the dissolution distribution coefficient information;

[0021] Analyze based on the dissolution distribution coefficient information and the pollutant concentration information to determine the adsorbed phase concentration information of the pollutant;

[0022] Analyze based on the soil porosity information, the pollutant concentration information, the dry density information of the soil mass, and the adsorbed phase concentration information of the pollutant to determine the total amount information of unit target pollutants.

[0023] By adopting the above technical solution, the soil porosity information and the apparent density information of solid particles related to the total amount information of unit target pollutants in the soil environmental factor information are extracted, so as to determine the dry density information of the soil mass, and the dissolution distribution coefficient is determined according to the detected pollutant type information, so as to determine the pollutant adsorbed phase concentration information with the dissolution distribution coefficient information and the pollutant concentration information, and the total amount information of unit target pollutants is determined with the soil porosity information, the pollutant concentration information, the dry density information of the soil mass and the pollutant adsorbed phase concentration information, thereby improving the convenience of determining the total amount information of unit target pollutants.

[0024] Optionally, the method for determining the total amount information of the injected medicament includes:

[0025] Analyze the soil environmental data corresponding to the soil environmental factor information to determine the groundwater Darcy velocity information;

[0026] Analyze the groundwater Darcy velocity information and the medicament concentration information to determine the unit convective flux information;

[0027] Analyze the soil environmental data corresponding to the soil environmental factor information and the medicament type information to determine the hydrodynamic dispersion tensor information;

[0028] Analyze the hydrodynamic dispersion tensor information, the soil porosity information and the medicament concentration information to determine the unit mechanical dispersion flux information;

[0029] Analyze the soil environmental factor information, the unit convective flux information, the unit mechanical dispersion flux information and the injection time information to determine the total amount information of the injected medicament.

[0030] By adopting the above technical solution, analyze the soil environmental factor information to determine the groundwater Darcy velocity information, so as to determine the unit convective flux information of the medicament according to the groundwater Darcy velocity information and the medicament concentration information, determine the hydrodynamic dispersion tensor information according to the soil environmental factor information, so as to determine the unit mechanical dispersion flux information of the medicament according to the hydrodynamic dispersion tensor information, the soil porosity information and the medicament concentration information, so as to determine the total amount information of the injected medicament according to the soil environmental factor information, the unit convective flux information, the unit mechanical dispersion flux information and the injection time information, thereby improving the convenience of determining the total amount information of the injected medicament.

[0031] Optionally, the method for determining the groundwater Darcy velocity information includes:

[0032] Analyze the soil environmental data corresponding to the soil environmental factor information to determine the intrinsic permeability matrix information of the soil skeleton;

[0033] Extract soil meteorological pressure information, pore water density information, gravitational acceleration information, and groundwater dynamic viscosity coefficient information based on soil environmental factor information;

[0034] Obtain the detection depth information;

[0035] Analyze based on the soil skeleton's intrinsic permeability matrix information, groundwater dynamic viscosity coefficient information, soil meteorological pressure information, pore water density information, gravitational acceleration information, and detection depth information to determine the groundwater Darcy velocity information.

[0036] By adopting the above technical solution, analyze the soil environmental factor information to determine the soil skeleton's intrinsic permeability matrix information, extract the soil meteorological pressure information, pore water density information, gravitational acceleration information, and groundwater dynamic viscosity coefficient information related to the groundwater Darcy velocity information in the soil environmental factor information, and detect the detection depth information. Thus, determine the groundwater Darcy velocity information based on the soil skeleton's intrinsic permeability matrix information, groundwater dynamic viscosity coefficient information, soil meteorological pressure information, pore water density information, gravitational acceleration information, and detection depth information, thereby improving the convenience of determining the groundwater Darcy velocity information.

[0037] Optionally, the method for determining the soil skeleton's intrinsic permeability matrix information includes:

[0038] Analyze the soil environmental data corresponding to the soil environmental factor information to determine the horizontal permeability coefficient information in the horizontal direction, the horizontal permeability coefficient information in the vertical direction, and the longitudinal permeability coefficient information;

[0039] Analyze based on the horizontal permeability coefficient information in the horizontal direction, the horizontal permeability coefficient information in the vertical direction, and the longitudinal permeability coefficient information to determine the permeability coefficient matrix information;

[0040] Analyze based on the permeability coefficient matrix information, groundwater dynamic viscosity coefficient information, pore water density information, and gravitational acceleration information to determine the soil skeleton's intrinsic permeability matrix information.

[0041] By adopting the above technical solution, analyze the soil environmental factor information to determine the horizontal permeability coefficient information in the horizontal direction, the horizontal permeability coefficient information in the vertical direction, and the longitudinal permeability coefficient information related to the soil skeleton's intrinsic permeability matrix information, and determine the permeability coefficient matrix information. Thus, determine the soil skeleton's intrinsic permeability matrix information based on the permeability coefficient matrix information, groundwater dynamic viscosity coefficient information, pore water density information, and gravitational acceleration information, thereby improving the convenience of determining the soil skeleton's intrinsic permeability matrix information.

[0042] Optionally, after determining the pollutant removal rate information and the reagent utilization rate information, it further includes a multi-well information simulation method. The specific method includes:

[0043] Obtain overlapping factor information;

[0044] Analyze based on the overlapping factor information and single well information to determine multi-well information;

[0045] Obtain the total mass information of pollutants in the target area and the total mass change information of pollutants in the target area;

[0046] Analyze based on the total mass information of pollutants in the target area and the total mass change information of pollutants in the target area to determine the removal rate information of multi-well target pollutants;

[0047] Obtain the total mass information of injection agents in the target area and the total mass information of reaction agents in the target area;

[0048] Analyze based on the total mass information of injection agents in the target area and the total mass information of reaction agents in the target area to determine the utilization rate information of repair agents.

[0049] By adopting the above technical solutions, detect the overlapping factor information between single well information, thereby determining the spacing between single well information based on the overlapping factor information to determine multi-well information, thereby detecting the total mass information of pollutants in the target area and the total mass change information of pollutants in the target area, and obtaining the removal rate information of multi-well target pollutants, detecting the total mass information of injection agents in the target area and the total mass information of reaction agents in the target area, and obtaining the utilization rate information of repair agents, thereby verifying the repair index of single well information using the repair index of multi-well information and improving the accuracy of repair rules.

[0050] Optionally, the method for analyzing based on the overlapping factor information and single well information to determine multi-well information includes:

[0051] Obtain the repair target concentration information of single well information;

[0052] Judge whether the pollutant concentration information reaches the repair target concentration information;

[0053] If not, continue to obtain the pollutant concentration information;

[0054] If it reaches, obtain the injection stop time information;

[0055] Obtain the target concentration isosurface information according to the injection stop time information;

[0056] Analyze based on the single well information and the target concentration isosurface information to determine the influence radius information;

[0057] Analyze based on the influence radius information and the overlapping factor information to determine the well spacing information;

[0058] Analyze based on the well spacing information and the single well information to determine multi-well information.

[0059] By adopting the above technical solution, when the pollutant concentration information reaches the remediation target concentration information, the injection stop time information is detected, and the target concentration isosurface information at the injection stop time information is detected, so as to determine the influence radius information according to the single well information and the target concentration isosurface information, and then determine the well spacing information according to the influence radius information and the overlap factor information, arrange the single well information according to the well spacing information, so as to obtain the multi-well information, thereby improving the convenience of determining the multi-well information.

[0060] Optionally, when determining the multi-well target pollutant removal rate information, it further includes optimizing the overlap factor information to determine the method for optimizing the overlap factor. The specific method includes:

[0061] Judge whether the multi-well target pollutant removal rate information is less than the preset reference target pollutant removal rate information;

[0062] If it is not less than, define the overlap factor information as the optimized overlap factor information;

[0063] If it is less than, obtain the pollutant removal weighted value information and the reagent utilization weighted value information;

[0064] Analyze according to the multi-well target pollutant removal rate information, the pollutant removal weighted value information, the remediation reagent utilization rate information and the reagent utilization weighted value information to determine the optimized objective function information;

[0065] Obtain the overlap factor range information;

[0066] Analyze according to the overlap factor range information and the optimized objective function information to determine the maximum value information of the objective function;

[0067] Determine the optimized overlap factor information corresponding to the maximum value information of the objective function according to the maximum value information of the objective function.

[0068] By adopting the above technical solution, when the multi-well target pollutant removal rate information is less than the reference target pollutant removal rate information, the pollutant removal weighted value information and the reagent utilization weighted value information are detected, and the optimized objective function information is determined according to the multi-well target pollutant removal rate information, the pollutant removal weighted value information, the remediation reagent utilization rate information and the reagent utilization weighted value information, and the overlap factor range information is detected, so as to obtain the maximum value of the optimized objective function information within the overlap factor range information, and then determine the optimized overlap factor information corresponding to the maximum value information of the objective function, thereby improving the convenience of determining the optimized overlap factor information.

[0069] In a second aspect, the present application provides a pollution site remediation simulation system, adopting the following technical solution:

[0070] A contaminated site remediation simulation system includes:

[0071] An acquisition module for acquiring soil environmental factor information, detected pollutant type information, pollutant concentration information, reagent concentration information, and injection time information;

[0072] A memory for storing a program of a method for revealing the remediation law of a contaminated site as described in any one of the above;

[0073] A processor, and the program in the memory can be loaded and executed by the processor and implement a method for revealing the remediation law of a contaminated site as described in any one of the above.

[0074] By adopting the above technical solution, a series of data related to the contaminated site remediation simulation are acquired through the acquisition module, so that the processor loads and executes the program of a method for revealing the remediation law of a contaminated site stored in the memory, thereby analyzing and processing the data to complete the simulation of the contaminated site remediation, and further improving the efficiency of revealing the remediation law of the contaminated site.

[0075] In a third aspect, the present application provides a computer storage medium that can store corresponding programs and has the characteristic of facilitating the realization of improving the efficiency of revealing the remediation law of a contaminated site, and adopts the following technical solution:

[0076] A computer-readable storage medium stores a computer program that can be loaded and executed by a processor to perform any one of the above methods for revealing the remediation law of a contaminated site.

[0077] By adopting the above technical solution, a computer program of a method for revealing the remediation law of a contaminated site is stored in the computer-readable storage medium. Thus, when it is necessary to perform the contaminated site remediation simulation, the processor directly loads and executes the computer program stored in the memory, thereby completing the simulation of the contaminated site remediation, and further improving the efficiency of revealing the remediation law of the contaminated site.

[0078] In summary, the present application includes at least one of the following beneficial technical effects:

[0079] 1. By detecting the soil environmental factor information of the single-well information, the specific soil data of the single-well information can be mastered, and the type of the detected pollutant can be determined, so as to determine the type information of the reagent for removing the pollutant. The pollutant concentration information, reagent concentration information, and injection time information are detected, and the soil environmental factor information, pollutant concentration information, reagent concentration information, and injection time information are input, so as to determine the pollutant removal rate information and reagent utilization rate information to reveal the remediation law of the contaminated site, and further improve the efficiency of revealing the remediation law of the contaminated site;

[0080] 2. By detecting the overlap factor information between single-well information, the spacing between single-well information is determined based on the overlap factor information to determine multi-well information. Then, the total mass information of pollutants in the target area and the change information of the total mass of pollutants in the target area are detected, and the removal rate information of multi-well target pollutants is obtained. The total mass information of the injected chemicals in the target area and the total mass information of the reaction chemicals in the target area are detected, and the utilization rate information of the remediation chemicals is obtained. Thus, the remediation index of single-well information is verified using the remediation index of multi-well information, improving the accuracy of the remediation law;

[0081] 3. When the removal rate information of multi-well target pollutants is less than the benchmark removal rate information of target pollutants, the weighted value information of pollutant removal and the weighted value information of chemical utilization are detected. Based on the removal rate information of multi-well target pollutants, the weighted value information of pollutant removal, the utilization rate information of the remediation chemicals, and the weighted value information of chemical utilization, the optimization objective function information is determined. The overlap factor range information is detected, and thus the maximum value of the optimization objective function information within the overlap factor range information is obtained. Then, the optimized overlap factor information corresponding to the maximum value information of the objective function is determined, further improving the convenience of determining the optimized overlap factor information. Description of the Drawings

[0082] Figure 1 is a flowchart of a method for revealing the remediation law of a contaminated site in an embodiment of the present application.

[0083] Figure 2 is a flowchart of a method for determining the total amount information of unit target pollutants in an embodiment of the present application.

[0084] Figure 3 is a flowchart of a method for determining the total amount information of the injected chemicals in an embodiment of the present application.

[0085] Figure 4 is a flowchart of a method for determining the Darcy velocity information of groundwater in an embodiment of the present application.

[0086] Figure 5 is a flowchart of a method for determining the intrinsic permeability matrix information of the soil skeleton in an embodiment of the present application.

[0087] Figure 6 is a flowchart of a multi-well information simulation method in an embodiment of the present application.

[0088] Figure 7 is a flowchart of a method for determining multi-well information in an embodiment of the present application.

[0089] Figure 8 is a flowchart of a method for determining the optimized overlap factor in an embodiment of the present application. Detailed Embodiments

[0090] To make the objectives, technical solutions and advantages of this application more clear and understandable, the following further details this application in conjunction with the accompanying Figure 1-8 drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain this application and are not used to limit this application.

[0091] Referring to Figure 1 , an embodiment of this application discloses a method for revealing the law of contaminated site remediation, including the following steps:

[0092] Step S100: Obtain the soil environmental factor information and the detected pollutant type information of the preset single-well information.

[0093] Among them, the single-well information refers to the geometric model of the simulated contaminated site built by those skilled in the art on the interactive modeling and simulation platform according to the contaminated site in the actual scenario. In this application, in order to reduce the calculation volume and deeply explore the relevant laws, the axisymmetric model is used for the single-well condition simulation, and in the single-well condition, the soil layer is homogeneous and saturated, the pollutants are evenly distributed within two meters underground, the single-well diameter is 10 mm, the total length is 2 m, the single-well filter range is from 0.5 m underground to 2 m underground, and a smoothly transitioning mapped grid is adopted.

[0094] The soil environmental factor information refers to the specific data of the soil corresponding to the single-well information, including the soil porosity information, the apparent density information of solid particles, etc. The specific data will be explained in the following steps. The soil environmental factor information can be directly input into the interactive modeling and simulation platform by those skilled in the art, or obtained by experimental means by those skilled in the art in the selected contaminated site.

[0095] The detected pollutant type information refers to the specific type of a certain pollutant in the single-well information to be detected, such as trichloroethylene, etc., which is selected by those skilled in the art. The quantity can be one or multiple.

[0096] Step S101: Analyze according to the pollutant type corresponding to the detected pollutant type information to determine the chemical agent type information.

[0097] Among them, the chemical agent type information refers to the chemical agent type used to remediate the pollutant type corresponding to the detected pollutant type information. Similarly, it can be selected by those skilled in the art according to experience, or input into the pollutant type database corresponding to the detected pollutant type information for matching to obtain the chemical agent type information. For example: if the pollutant type corresponding to the detected pollutant type information is trichloroethylene, the corresponding chemical agent type information is permanganate.

[0098] Step S102: Obtain the pollutant concentration information of the pollutant type corresponding to the detected pollutant type information, the chemical agent concentration information of the chemical agent type corresponding to the chemical agent type information, and the injection time information.

[0099] Among them, the pollutant concentration information refers to the concentration value of the pollutant type corresponding to the detected pollutant type information in the soil pore water corresponding to the single well information, with the unit of , and the chemical agent concentration information refers to the concentration value of the chemical agent type corresponding to the chemical agent type information in the soil pore water corresponding to the single well information, with the unit of . Both the pollutant concentration information and the chemical agent concentration information are detected by those skilled in the art through experimental means at the polluted site and input into the interactive modeling platform.

[0100] The injection time information refers to the time value when the chemical agent corresponding to the chemical agent type information is added on the interactive modeling platform, which is obtained by timing with a timer.

[0101] Step S1021: Analyze according to the soil environment data corresponding to the soil environment factor information and the pollutant concentration information to determine the total amount information of the unit target pollutant.

[0102] Among them, the total amount information of the unit target pollutant refers to the total amount of pollutants in the soil per unit volume at the moment corresponding to the injection time information, with the unit of , which is calculated by the interactive modeling platform according to the soil environment data corresponding to the soil environment factor information and the pollutant concentration corresponding to the pollutant concentration information. The specific calculation method refers to the steps of Figure 2 .

[0103] Step S10211: Analyze according to the total amount information of the unit target pollutant, the preset initial total amount information of the pollutant and the soil environment factor information to determine the pollutant removal rate information.

[0104] Among them, the initial total amount information of the pollutant refers to the total amount of pollutants in the soil when no chemical agent is injected into the soil corresponding to the single well information. It is detected by those skilled in the art through experimental means at the polluted site and input into the interactive modeling platform.

[0105] The pollutant removal rate information refers to the ratio value of the reduction amount of pollutants in the soil corresponding to the single well information to the initial amount, which is calculated by the interactive modeling platform according to the instantaneous total amount of pollutants at the injection time information corresponding to the total amount information of the unit target pollutant, the initial total amount of pollutants corresponding to the initial total amount information of the pollutant, and the volume of the single well working condition corresponding to the soil environment factor information.

[0106] The specific calculation formula is as follows:

[0107]

[0108] Among them, is the pollutant removal rate information;

[0109] is the total initial pollutant amount information ( );

[0110] is the total amount of pollutants in the single - well information at the corresponding moment of the injection time information ( ); is the total unit target pollutant amount information ( );

[0111] are the three - dimensional upper and lower limits of the single - well working volume corresponding to the soil environmental factor information;

[0112] is the injection time information.

[0113] Step S1022: Analyze according to the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration information, and the injection time information to determine the total amount information of the injected chemical agent.

[0114] Among them, the total amount information of the injected chemical agent refers to the total amount of the chemical agent injected into the soil of the single - well information, which is calculated by the interactive modeling platform according to the chemical agent concentration value corresponding to the chemical agent concentration information, the injection time value corresponding to the injection time information, and the soil environmental data corresponding to the soil environmental factor information. The specific calculation method refers to Figure 3 steps.

[0115] Step S10221: Analyze according to the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration information, the injection time information, and the total amount information of the injected chemical agent to determine the total amount information of the reaction chemical agent.

[0116] Among them, the total amount information of the reaction chemical agent refers to the total amount of the chemical agent reacting with the pollutants in the soil of the single - well information, which is calculated by the interactive modeling platform according to the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration value corresponding to the chemical agent concentration information, the injection time value corresponding to the injection time information, and the total amount of the chemical agent corresponding to the total amount information of the injected chemical agent.

[0117] The specific calculation formula is as follows:

[0118]

[0119] Among them, is the total amount information of the reaction chemical agent;

[0120] is the total amount information of the injected chemical agent;

[0121] is the total amount of the chemical agent flowing out of the corresponding range of the single - well information;

[0122] is the injection time information;

[0123] is the soil porosity information corresponding to the single well information, which is extracted from the soil data corresponding to the soil environmental factor information;

[0124] is the hydrodynamic dispersion tensor information of the soil corresponding to the single well information, which is obtained by analyzing the soil data corresponding to the soil environmental factor information. The specific analysis method refers to Figure 3 the steps;

[0125] is the concentration value of the medicament in the soil pore water corresponding to the single well information;

[0126] is the groundwater Darcy velocity information, which is obtained by analyzing the soil data corresponding to the soil environmental factor information. The specific analysis method refers to Figure 4 the steps.

[0127] Step S10222: Analyze according to the total injection medicament information and the total reaction medicament information to determine the medicament utilization rate information.

[0128] Among them, the medicament utilization rate information refers to the proportion of the total amount of medicament participating in the reaction to the total amount of injected medicament, which is calculated by the interactive modeling platform according to the total amount of medicament corresponding to the total injection medicament information and the total amount of medicament corresponding to the total reaction medicament information. The calculation formula is as follows:

[0129]

[0130] Among them, is the medicament utilization rate information corresponding to the injection time information;

[0131] is the total amount of reaction medicament information;

[0132] is the total amount of injected medicament information.

[0133] Referring to Figure 2 , the method for determining the total amount of unit target pollutants information includes the following steps:

[0134] Step S200: Extract the soil porosity information and the apparent density information of solid particles according to the soil environmental factor information.

[0135] Among them, the soil porosity information refers to the ratio of the volume of the void space in the soil corresponding to the single well information to the volume of the soil, which is obtained by the interactive modeling platform by dividing the volume of the void space corresponding to the soil environmental factor information by the volume of the soil.

[0136] The apparent density information of solid particles refers to the actual density value of solid particles in the soil corresponding to the single-well information, which is obtained by the interactive modeling platform calling the soil environmental factor information.

[0137] Step S201: Analyze according to the soil porosity information and the apparent density information of solid particles to determine the dry density information of the soil mass.

[0138] Among them, the dry density information of the soil mass refers to the ratio between the soil mass and the soil volume when there is no water in the soil voids corresponding to the single-well information, which is calculated by the interactive modeling platform according to the soil porosity information and the apparent density information of solid particles. The specific calculation formula is as follows:

[0139]

[0140] Among them, is the dry density information of the soil mass;

[0141] is the apparent density information of solid particles;

[0142] is the soil porosity information.

[0143] Step S202: Analyze according to the pollutant type corresponding to the detected pollutant type information to determine the dissolution distribution coefficient information.

[0144] Among them, the dissolution distribution coefficient information refers to the ratio of the mass of the pollutant adsorbed by unit mass of organic carbon to the mass of the pollutant in unit volume of the solution, also known as the organic carbon-water distribution coefficient. Different pollutant types corresponding to different detected pollutant type information have different dissolution distribution coefficient information, which is set by those skilled in the art according to the actual situation.

[0145] Step S203: Analyze according to the dissolution distribution coefficient information and the pollutant concentration information to determine the pollutant adsorbed-phase concentration information.

[0146] Among them, the pollutant adsorbed-phase concentration information refers to the concentration value of the pollutant adsorbed by unit mass of organic carbon in the single-well information. This application assumes that there is an equilibrium relationship between the dissolved phase and the adsorbed phase of the pollutant. The interactive modeling platform calculates the pollutant adsorbed-phase concentration information according to the dissolution distribution coefficient information and the pollutant concentration information. The specific calculation formula is as follows:

[0147]

[0148] Among them, is the pollutant adsorbed-phase concentration information;

[0149] is the dissolution distribution coefficient information;

[0150] is the pollutant concentration information.

[0151] Step S204: Analyze based on the soil porosity information, pollutant concentration information, dry density information of the soil mass, and adsorbed-phase concentration information of the pollutant to determine the total amount information of the unit target pollutant.

[0152] Among them, the total amount information of the unit target pollutant in this step is the same as that in Step S1021, and is calculated by the interactive modeling platform based on the soil porosity information, pollutant concentration information, dry density information of the soil mass, and adsorbed-phase concentration information of the pollutant. The specific calculation formula is as follows:

[0153]

[0154] Among them, is the total amount information of the unit target pollutant;

[0155] is the soil porosity information;

[0156] is the pollutant concentration information;

[0157] is the dry density information of the soil mass;

[0158] is the adsorbed-phase concentration information of the pollutant.

[0159] Refer to Figure 3 , the method for determining the total amount information of the injected chemical agent includes the following steps:

[0160] Step S300: Analyze based on the soil environmental data corresponding to the soil environmental factor information to determine the groundwater Darcy velocity information.

[0161] Among them, the groundwater Darcy velocity information refers to the total average value of the microscopic flow velocity in the soil corresponding to the single-well information, and is calculated by the interactive modeling platform based on the soil environmental data corresponding to the soil environmental factor information. The specific calculation method refers to the steps in Figure 4 .

[0162] Step S301: Analyze based on the groundwater Darcy velocity information and the chemical agent concentration information to determine the unit convective flux information.

[0163] Among them, the unit convective flux information refers to the convective flux of the chemical agent in the pore water of the soil corresponding to the single-well information, with the unit of , and convection is the migration of solutes carried by groundwater during movement. The unit convective flux information is calculated by the interactive modeling platform as the product of the groundwater Darcy velocity information and the chemical agent concentration information.

[0164] Step S302: Analyze based on the soil environmental data corresponding to the soil environmental factor information and the chemical agent type information to determine the hydrodynamic dispersion tensor information.

[0165] Among them, the hydrodynamic dispersion tensor information refers to the dispersion ability of the chemical agent in the soil corresponding to the single well information, and its expression is as follows:

[0166]

[0167] Among them, is the hydrodynamic dispersion tensor information, and each element is the dispersion ability in different directions, which is calculated by extracting the soil data corresponding to the chemical agent type information in the soil environmental factor information through an interactive modeling platform. The specific calculation method is as follows:

[0168]

[0169] Among them, is the horizontal dispersion velocity in the transverse direction, is the vertical dispersion velocity in the transverse direction, is the longitudinal dispersion velocity, all of which are extracted from the soil environmental data corresponding to the soil environmental factor information;

[0170] is the longitudinal dispersion degree, is the transverse dispersion degree, all of which are extracted from the soil environmental data corresponding to the soil environmental factor information;

[0171] is the tortuosity factor, which is used to quantify the weakening effect of the soil skeleton on the diffusion movement and is extracted from the soil environmental data corresponding to the soil environmental factor information;

[0172] is the diffusion coefficient of the chemical agent in the open water body and is extracted from the soil environmental data corresponding to the soil environmental factor information.

[0173] Step S303: Analyze based on the hydrodynamic dispersion tensor information, soil porosity information, and chemical agent concentration information to determine the unit mechanical dispersion flux information.

[0174] Among them, the unit mechanical dispersion flux information refers to the mechanical dispersion flux of the chemical agent in the unit soil corresponding to the single well information, which is calculated by the interactive modeling platform according to the hydrodynamic dispersion tensor information, soil porosity information, and chemical agent concentration information. The specific calculation formula is as follows:

[0175]

[0176] Among them, is the unit mechanical dispersion flux information;

[0177] is the soil porosity information;

[0178] is the hydrodynamic dispersion tensor information;

[0179] is the chemical agent concentration information.

[0180] Step S304: Analyze according to the soil environmental factor information, unit convective flux information, unit mechanical dispersion flux information, and injection time information to determine the total amount of injected chemical agent information.

[0181] Among them, the total amount of injected chemical agent information refers to the total amount of chemical agent injected into the soil corresponding to the single well information, which is calculated by the interactive modeling platform according to the soil environmental factor information, unit convective flux information, unit mechanical dispersion flux information, and injection time information. The specific calculation formula is as follows:

[0182]

[0183] Among them, is the total amount of injected chemical agent information;

[0184] is the chemical agent injection rate from the boundary of the single well information to the center;

[0185] is the injection time information;

[0186] is the unit mechanical dispersion flux information;

[0187] is the unit convective flux information.

[0188] Refer to Figure 4 , the method for determining the groundwater Darcy velocity information includes the following steps:

[0189] Step S400: Analyze according to the soil environmental data corresponding to the soil environmental factor information to determine the intrinsic permeability matrix information of the soil skeleton.

[0190] Among them, the intrinsic permeability matrix information of the soil skeleton refers to the water permeability of the soil in the single well information, which is calculated by the interactive modeling platform according to the soil environmental data corresponding to the soil environmental factor information. The specific calculation method refers to the steps of Figure 5 .

[0191] Step S401: Extract the soil meteorological pressure information, pore water density information, gravitational acceleration information, and groundwater dynamic viscosity information according to the soil environmental factor information.

[0192] Among them, the soil meteorological pressure information refers to the pressure value in the soil corresponding to the single well information, the pore water density information refers to the density value of the pore water in the soil corresponding to the single well information, the gravitational acceleration information refers to the gravitational acceleration value at the location of the soil corresponding to the single well information, and the groundwater dynamic viscosity coefficient information refers to the dynamic viscosity coefficient of the groundwater, with the unit of , all of which are obtained by those skilled in the art through experiments at the polluted site.

[0193] Step S402: Obtain the detection depth information.

[0194] Among them, the detection depth information refers to the depth value for detecting the soil environmental factor information in the single well information, which is input by those skilled in the art into the interactive modeling platform.

[0195] Step S403: Analyze according to the soil skeleton intrinsic permeability matrix information, groundwater dynamic viscosity coefficient information, soil meteorological pressure information, pore water density information, gravitational acceleration information and detection depth information to determine the groundwater Darcy velocity information.

[0196] Among them, the groundwater Darcy velocity information in this step is the same as the groundwater Darcy velocity information in step S300, and is calculated by the interactive modeling platform according to the soil skeleton intrinsic permeability matrix information, groundwater dynamic viscosity coefficient information, soil meteorological pressure information, pore water density information, gravitational acceleration information and detection depth information. The specific calculation formula is as follows:

[0197]

[0198] Among them, is the groundwater Darcy velocity information;

[0199] is the soil skeleton intrinsic permeability matrix information;

[0200] is the groundwater dynamic viscosity coefficient information;

[0201] is the soil meteorological pressure information;

[0202] is the pore water density information;

[0203] is the gravitational acceleration information;

[0204] is the detection depth information.

[0205] Referring to Figure 5 , the method for determining the soil skeleton intrinsic permeability matrix information includes the following steps:

[0206] Step S500: Analyze according to the soil environmental data corresponding to the soil environmental factor information to determine the horizontal permeability coefficient information, vertical permeability coefficient information in the horizontal direction, and longitudinal permeability coefficient information.

[0207] Among them, the horizontal permeability coefficient information in the horizontal direction refers to the permeability coefficient of the soil on the x-axis of the same horizontal plane corresponding to the single well information, the vertical permeability coefficient information in the horizontal direction refers to the permeability coefficient of the soil on the y-axis of the same horizontal plane corresponding to the single well information, and the longitudinal permeability coefficient information refers to the permeability coefficient of the soil on the z-axis perpendicular to the x-axis and y-axis corresponding to the single well information, all of which are obtained by those skilled in the art through experiments on the polluted site.

[0208] Step S501: Analyze according to the horizontal permeability coefficient information in the horizontal direction, vertical permeability coefficient information in the horizontal direction, and longitudinal permeability coefficient information to determine the permeability coefficient matrix information.

[0209] Among them, the permeability coefficient matrix information refers to the permeability performance of different soil layers in the single well information. The permeability coefficient corresponding to the permeability coefficient matrix information and the intrinsic permeability of the soil skeleton are both second-order tensors. In this application, it is assumed that the principal components of the two coincide with the coordinate axes. Therefore, the cross terms in the second-order tensor can be eliminated, and only the principal components are left. The matrix expression of the permeability coefficient matrix information is as follows:

[0210]

[0211] Among them, is the permeability coefficient matrix information;

[0212] is the horizontal permeability coefficient information in the horizontal direction;

[0213] is the vertical permeability coefficient information in the horizontal direction;

[0214] is the longitudinal permeability coefficient information.

[0215] Step S502: Analyze according to the permeability coefficient matrix information, groundwater dynamic viscosity coefficient information, pore water density information, and gravitational acceleration information to determine the intrinsic permeability matrix information of the soil skeleton.

[0216] Among them, the intrinsic permeability matrix information of the soil skeleton in this step is the same as the intrinsic permeability matrix information of the soil skeleton in step S400, and is calculated by the interactive modeling platform according to the permeability coefficient matrix information, groundwater dynamic viscosity coefficient information, pore water density information, and gravitational acceleration information. The specific calculation formula is as follows:

[0217]

[0218] Among them, is the intrinsic permeability matrix information of the soil skeleton;

[0219] is the information of the permeability coefficient matrix;

[0220] is the information of the dynamic viscosity coefficient of groundwater;

[0221] is the information of the pore water density;

[0222] is the information of the acceleration of gravity.

[0223] Refer to Figure 6 , after determining the pollutant removal rate information and the agent utilization rate information, it further includes a multi-well information simulation method, and the specific method includes the following steps:

[0224] Step S600: Obtain the overlap factor information.

[0225] Among them, the overlap factor information refers to the overlap range between adjacent single-well information in the multi-well information. For example, when the overlap factor information is equal to 1, the adjacent single-well information is tangent; when the overlap factor information is greater than 1, the adjacent single-well information partially overlaps; when the overlap factor information is less than 1, the adjacent single-well information does not interfere with each other.

[0226] Step S601: Analyze according to the overlap factor information and the single-well information to determine the multi-well information.

[0227] Among them, the multi-well information refers to a larger simulated contaminated site composed of multiple single-well information according to the overlap factor information, which is designed by the interactive modeling platform according to the overlap factor information and the single-well information. The specific design method refers to Figure 7 the steps.

[0228] Step S6011: Obtain the total mass information of pollutants in the target area and the change information of the total mass of pollutants in the target area.

[0229] Among them, the total mass information of pollutants in the target area refers to the total mass of pollutants in a certain single-well information in the multi-well information, and its calculation method is the same as that of the initial total amount of pollutants information in step S10211. The change information of the total mass of pollutants in the target area refers to the reduced value of the pollutant mass in the same single-well information, which is obtained by taking the difference between the total mass information of pollutants in the target area obtained from two successive detections.

[0230] Step S60111: Analyze according to the total mass information of pollutants in the target area and the change information of the total mass of pollutants in the target area to determine the multi-well target pollutant removal rate information.

[0231] Among them, the removal rate information of the target pollutants in multiple wells refers to the removal rate of pollutants in the single-well information under the condition that the single-well information in the multiple-well information affects each other, and is obtained by calculating the quotient between the total mass change information of the pollutants in the target area and the total mass information of the pollutants in the target area by the interactive modeling platform.

[0232] Step S6012: Obtain the total mass information of the injection agent in the target area and the total mass information of the reaction agent in the target area.

[0233] Among them, the total mass information of the injection agent in the target area refers to the total mass of the agent in a single-well information in the multiple-well information, and its calculation method is the same as that in Figure 3 The steps are the same. The total mass information of the reaction agent in the target area refers to the total mass of the agent participating in the reaction in the same single-well information, and its calculation method is the same as the calculation method of the total amount of the reaction agent in step S10221.

[0234] Step S60121: Analyze according to the total mass information of the injection agent in the target area and the total mass information of the reaction agent in the target area to determine the utilization rate information of the remediation agent.

[0235] Among them, the utilization rate information of the remediation agent refers to the utilization rate of the agent in the single-well information under the condition that the single-well information in the multiple-well information affects each other, and is obtained by calculating the quotient between the total mass information of the reaction agent in the target area and the total mass information of the injection agent in the target area by the interactive modeling platform.

[0236] Referring to Figure 7 , analyze according to the overlap factor information and the single-well information to determine the method of the multiple-well information, including the following steps:

[0237] Step S700: Obtain the remediation target concentration information of the single-well information.

[0238] Among them, the remediation target concentration information is the remediation concentration value of the pollutants in the single-well information, and the pollutant concentration corresponding to the specific remediation target concentration information is input into the interactive modeling platform by those skilled in the art.

[0239] Step S701: Judge whether the pollutant concentration information reaches the remediation target concentration information.

[0240] Among them, by judging whether the pollutant concentration value corresponding to the pollutant concentration information reaches the pollutant concentration corresponding to the remediation target concentration information, it is determined whether the influence radius information can be detected.

[0241] Step S7011: If not, continue to obtain the pollutant concentration information.

[0242] Among them, if it is determined that the pollutant concentration value corresponding to the pollutant concentration information has not reached the pollutant concentration corresponding to the remediation target concentration information, it indicates that the pollutants in the single well information have not been reduced to the target value. At this time, the influence radius information does not meet the usage requirements. Therefore, the pollutant concentration information is continuously detected.

[0243] Step S7012: If it reaches, obtain the injection stop time information.

[0244] Among them, the injection stop time information refers to the time when the pollutant concentration value corresponding to the pollutant concentration information reaches the pollutant concentration corresponding to the remediation target concentration information, which is obtained by timing with a timer.

[0245] Step S702: Obtain the target concentration isosurface information according to the injection stop time information.

[0246] Among them, the target concentration isosurface information refers to the isosurface of the pollutant concentration information that extends circumferentially along the central axis of the single well information at the time corresponding to the injection stop time information and is the same as the remediation target concentration information, which is detected by those skilled in the art by extending circumferentially along the central axis of the single well information.

[0247] Step S703: Analyze according to the single well information and the target concentration isosurface information to determine the influence radius information.

[0248] Among them, the influence radius information refers to the radius value at which the agent in the single well information reduces the pollutant concentration to the pollutant concentration corresponding to the remediation target concentration information, which is obtained by calculating the distance between the edge of the target concentration isosurface information and the central axis corresponding to the single well information by an interactive modeling platform.

[0249] Step S704: Analyze according to the influence radius information and the overlap factor information to determine the well spacing information.

[0250] Among them, the well spacing information refers to the distance value between the central axes corresponding to adjacent single well information in the multi-well information, which is calculated by the interactive modeling platform according to the influence radius information and the overlap factor information. The specific calculation formula is as follows:

[0251]

[0252] Among them, is the well spacing information;

[0253] is the influence radius information;

[0254] is the overlap factor information.

[0255] Step S705: Analyze according to the well spacing information and the single well information to determine the multi-well information.

[0256] Among them, the multi-well information refers to a contaminated site composed of well spacings corresponding to multiple single-well information separated by well spacing information. The radius of the single-well information is 2 meters, and the well spacing information is 4 meters. After the adjacent single-well information is tangent, the multi-well information is formed.

[0257] Refer to Figure 8 , when determining the removal rate information of the target pollutants in the multi-well, it also includes optimizing the overlapping factor information to determine the method for optimizing the overlapping factor. The specific method includes the following steps:

[0258] Step S800: Judge whether the removal rate information of the target pollutants in the multi-well is less than the preset reference removal rate information of the target pollutants.

[0259] Among them, the reference removal rate information of the target pollutants refers to the target value of the pollutant removal rate in the preset single-well information, which is set by those skilled in the art according to the actual situation.

[0260] By judging whether the removal rate corresponding to the removal rate information of the target pollutants in the multi-well is less than the removal rate corresponding to the reference removal rate information of the target pollutants, it is determined whether the multi-well information designed with the overlapping factor information meets the pollutant removal index of the contaminated site.

[0261] Step S801: If it is not less than, define the overlapping factor information as the optimized overlapping factor information.

[0262] Among them, if the removal rate corresponding to the removal rate information of the target pollutants in the multi-well is not less than the removal rate corresponding to the reference removal rate information of the target pollutants, it indicates that the multi-well information designed with the overlapping factor information meets the pollutant removal index of the contaminated site. Therefore, the overlapping factor information is defined as the optimized overlapping factor information.

[0263] Step S802: If it is less than, obtain the pollutant removal weighted value information and the reagent utilization weighted value information.

[0264] Among them, the pollutant removal weighted value information refers to the importance of the pollutant removal rate in the repair index, and the reagent utilization weighted value information refers to the importance of the reagent utilization rate in the repair index. The pollutant removal weighted value information and the reagent utilization weighted value information are both set by those skilled in the art according to the actual situation.

[0265] If the removal rate corresponding to the removal rate information of the target pollutants in the multi-well is less than the removal rate corresponding to the reference removal rate information of the target pollutants, it indicates that the multi-well information designed with the overlapping factor information does not meet the pollutant removal index of the contaminated site. Therefore, it is necessary to adjust the overlapping factor information.

[0266] Step S803: Analyze based on the multi-well target pollutant removal rate information, pollutant removal weighting value information, remediation agent utilization rate information, and agent utilization weighting value information to determine the optimized objective function information.

[0267] Among them, the optimized objective function information refers to the objective function for obtaining the optimized overlap factor information using the weighted summation method, which is calculated by the interactive modeling platform based on the multi-well target pollutant removal rate information, pollutant removal weighting value information, remediation agent utilization rate information, and agent utilization weighting value information. The specific calculation formula is as follows:

[0268]

[0269] Among them, is the optimized objective function information;

[0270] is the pollutant removal weighting value information;

[0271] is the multi-well target pollutant removal rate information;

[0272] is the agent utilization weighting value information;

[0273] is the remediation agent utilization rate information.

[0274] Step S804: Obtain the overlap factor range information.

[0275] Among them, the overlap factor range information refers to the interval value of the overlap factor, which is set by those skilled in the art according to the actual situation. For example, the overlap factor ranges from 0.66 to 1.3, etc.

[0276] Step S805: Analyze based on the overlap factor range information and the optimized objective function information to determine the maximum value information of the objective function.

[0277] Among them, the maximum value information of the objective function refers to the maximum value of the optimized objective function information, which is calculated by the interactive modeling platform after inputting the multi-well target pollutant removal rate information and remediation agent utilization rate information corresponding to the overlap factor range information into the optimized objective function information. For example: when the agent utilization weighting value information is 0.4 and the pollutant removal weighting value information is 0.6, if the overlap factor is 1, the pollutant removal rate is 0.919971 and the agent utilization rate is 0.571139, so the objective function value is 0.780438; if the overlap factor is 1.3, the pollutant removal rate is 0.926657 and the agent utilization rate is 0.499676, so the objective function value is 0.755865. Thus, when the overlap factor is 1 and 1.3, the maximum value information of the objective function is 0.780438.

[0278] Step S806: Determine the optimized overlapping factor information corresponding to the maximum value information of the objective function according to the maximum value information of the objective function.

[0279] Among them, the optimized overlapping factor information refers to the overlapping factor obtained by comprehensively considering the removal rate information of the target pollutants in multiple wells and the utilization rate information of the remediation agent. For example, if the maximum value information of the objective function is 0.780438, the optimized overlapping factor information corresponding to the maximum value information of the objective function is 1.

[0280] Based on the same inventive concept, an embodiment of the present invention provides a contaminated site remediation simulation system, including:

[0281] An acquisition module, configured to acquire soil environmental factor information, detected pollutant type information, pollutant concentration information, agent concentration information, injection time information, detection depth information, overlapping factor information, total mass information of pollutants in the target area, total mass change information of pollutants in the target area, total mass information of injected agents in the target area, total mass information of reactive agents in the target area, remediation target concentration information, injection stop time information, target concentration isosurface information, pollutant removal weighting value information, agent utilization weighting value information, and overlapping factor range information;

[0282] A memory, configured to store a program of a method for revealing the remediation law of a contaminated site as described in any one of Figures 1 to 8 ;

[0283] A processor, the program in the memory can be loaded and executed by the processor and implement a method for revealing the remediation law of a contaminated site as described in any one of Figures 1 to 8 ;

[0284] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the above division of each functional module is used as an example for illustration. In practical applications, the above functions can be allocated to different functional modules according to needs, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working processes of the above-described system, device, and unit can refer to the corresponding processes in the foregoing method embodiments and will not be elaborated herein.

[0285] An embodiment of the present invention provides a computer-readable storage medium, storing a computer program that can be loaded and executed by a processor to implement a method for revealing the remediation law of a contaminated site.

[0286] Computer storage media include, for example, various media that can store program codes such as USB flash drives, mobile hard disks, read-only memories (ROMs), random access memories (RAMs), magnetic disks, or optical discs.

[0287] Based on the same inventive concept, an embodiment of the present invention provides an intelligent terminal, including a memory and a processor, and a computer program capable of being loaded and executed by the processor to reveal the law of contaminated site remediation is stored on the memory.

[0288] Those skilled in the art can clearly understand that for the convenience and brevity of description, only the above division of each functional module is used as an example. In actual applications, the above functions can be allocated to different functional modules according to needs, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working processes of the above-described system, device, and unit can refer to the corresponding processes in the foregoing method embodiments and will not be elaborated herein.

[0289] The above are all preferred embodiments of the present application. Without restricting the protection scope of the present application accordingly, any feature disclosed in this specification (including the abstract and drawings), unless specifically described, can be replaced by other equivalent or similar-purpose alternative features. That is, unless specifically described, each feature is only an example of a series of equivalent or similar features.

Claims

1. A method for revealing the law of contaminated site remediation, characterized in that, Including: Obtaining the soil environmental factor information and the detected pollutant type information of the preset single-well information; Analyzing according to the pollutant type corresponding to the detected pollutant type information to determine the chemical agent type information; Obtaining the pollutant concentration information of the pollutant type corresponding to the detected pollutant type information, the chemical agent concentration information of the chemical agent type corresponding to the chemical agent type information, and the injection time information; Analyzing according to the soil environmental data corresponding to the soil environmental factor information and the pollutant concentration information to determine the total amount information of the unit target pollutant; Analyzing according to the total amount information of the unit target pollutant, the preset initial pollutant total amount information, and the soil environmental factor information to determine the pollutant removal rate information; Analyzing according to the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration information, and the injection time information to determine the total amount information of the injected chemical agent; Analyzing according to the soil environmental data corresponding to the soil environmental factor information, the chemical agent concentration information, the injection time information, and the total amount information of the injected chemical agent to determine the total amount information of the reaction chemical agent; Analyzing according to the total amount information of the injected chemical agent and the total amount information of the reaction chemical agent to determine the chemical agent utilization rate information; After determining the pollutant removal rate information and the chemical agent utilization rate information, it further includes a multi-well information simulation method. The specific method includes: Obtaining the overlap factor information; Analyzing according to the overlap factor information and the single-well information to determine the multi-well information; Obtaining the total mass information of the pollutants in the target area and the change information of the total mass of the pollutants in the target area; Analyzing according to the total mass information of the pollutants in the target area and the change information of the total mass of the pollutants in the target area to determine the multi-well target pollutant removal rate information; Obtaining the total mass information of the injected chemical agent in the target area and the total mass information of the reaction chemical agent in the target area; Analyzing according to the total mass information of the injected chemical agent in the target area and the total mass information of the reaction chemical agent in the target area to determine the repair chemical agent utilization rate information; The method of analyzing according to the overlap factor information and the single-well information to determine the multi-well information includes: Obtaining the repair target concentration information of the single-well information; Judging whether the pollutant concentration information reaches the repair target concentration information; If not, continue to obtain the pollutant concentration information; If it reaches, obtain the injection stop time information; Obtaining the target concentration isosurface information according to the injection stop time information; Analyzing according to the single-well information and the target concentration isosurface information to determine the influence radius information; Analyzing according to the influence radius information and the overlap factor information to determine the well spacing information; Analyzing according to the well spacing information and the single-well information to determine the multi-well information.

2. The method for revealing the remediation law of a contaminated site according to claim 1, characterized in that The method of determining the total amount information of the unit target pollutant includes: Extracting the soil porosity information and the apparent density information of the solid particles according to the soil environmental factor information; Analyzing according to the soil porosity information and the apparent density information of the solid particles to determine the dry density information of the soil mass; Analyzing according to the pollutant type corresponding to the detected pollutant type information to determine the dissolution distribution coefficient information; Analyzing according to the dissolution distribution coefficient information and the pollutant concentration information to determine the adsorbed phase concentration information of the pollutant; Analyze based on soil porosity information, pollutant concentration information, dry density information of the soil mass, and adsorbed-phase concentration information of the pollutant to determine the total amount information of the unit target pollutant.

3. A method for revealing the law of contaminated site remediation according to claim 2, characterized in that, The methods for determining the total amount information of the injected agent include: Analyze according to the soil environment data corresponding to the soil environment factor information to determine the groundwater Darcy velocity information; Analyze according to the groundwater Darcy velocity information and the agent concentration information to determine the unit convective flux information; Analyze according to the soil environment data corresponding to the soil environment factor information and the agent type information to determine the hydrodynamic dispersion tensor information; Analyze according to the hydrodynamic dispersion tensor information, soil porosity information, and agent concentration information to determine the unit mechanical dispersion flux information; Analyze according to the soil environment factor information, unit convective flux information, unit mechanical dispersion flux information, and injection time information to determine the total amount information of the injected agent.

4. A method for revealing the law of contaminated site remediation according to claim 3, characterized in that, The methods for determining the groundwater Darcy velocity information include: Analyze according to the soil environment data corresponding to the soil environment factor information to determine the intrinsic permeability matrix information of the soil skeleton; Extract the soil meteorological pressure information, pore water density information, gravitational acceleration information, and groundwater dynamic viscosity coefficient information according to the soil environment factor information; Obtain the detection depth information; Analyze according to the intrinsic permeability matrix information of the soil skeleton, groundwater dynamic viscosity coefficient information, soil meteorological pressure information, pore water density information, gravitational acceleration information, and detection depth information to determine the groundwater Darcy velocity information.

5. A method for revealing the law of contaminated site remediation according to claim 4, characterized in that The methods for determining the intrinsic permeability matrix information of the soil skeleton include: Analyze according to the soil environment data corresponding to the soil environment factor information to determine the horizontal permeability coefficient information in the transverse direction, vertical permeability coefficient information in the transverse direction, and longitudinal permeability coefficient information; Analyze according to the horizontal permeability coefficient information in the transverse direction, vertical permeability coefficient information in the transverse direction, and longitudinal permeability coefficient information to determine the permeability coefficient matrix information; Analyze according to the permeability coefficient matrix information, groundwater dynamic viscosity coefficient information, pore water density information, and gravitational acceleration information to determine the intrinsic permeability matrix information of the soil skeleton.

6. The method for revealing the remediation law of a contaminated site according to claim 1, wherein When determining the removal rate information of the multi-well target pollutant, it also includes optimizing the overlap factor information to determine the method for optimizing the overlap factor. The specific methods include: Judge whether the removal rate information of the multi-well target pollutant is less than the preset benchmark target pollutant removal rate information; If it is not less than, define the overlap factor information as the optimized overlap factor information; If it is less than, obtain the pollutant removal weighted value information and the agent utilization weighted value information; Analyze according to the removal rate information of the multi-well target pollutant, pollutant removal weighted value information, remediation agent utilization rate information, and agent utilization weighted value information to determine the optimized objective function information; Obtain the overlap factor range information; Analyze according to the overlap factor range information and the optimized objective function information to determine the maximum value information of the objective function; Determine the optimized overlap factor information corresponding to the maximum value information of the objective function according to the maximum value information of the objective function.

7. A contaminated site remediation simulation system, characterized in that, Include: An acquisition module for acquiring soil environmental factor information, detecting pollutant type information, pollutant concentration information, chemical agent concentration information, and injection time information; A memory for storing a program of a method for revealing the remediation law of a contaminated site according to any one of claims 1 to 6; A processor, and the program in the memory can be loaded and executed by the processor to implement a method for revealing the remediation law of a contaminated site according to any one of claims 1 to 6.

8. A computer-readable storage medium, characterized in that, A computer program stored and capable of being loaded and executed by a processor to implement a method for revealing the remediation law of a contaminated site according to any one of claims 1 to 5.

Citation Information

Patent Citations

  • In-situ remediation method for polluted place based on dynamic groundwater circulation

    CN110355193A

  • High-precision injection method for in-situ remediation agent for polluted soil and underground water

    CN114798706A