An intelligent monitoring method and system for production, treatment and discharge linkage of pollutant-discharging enterprises

Abstract

The present invention discloses a production, treatment and discharge linkage intelligent monitoring method and system for pollutant-discharging enterprises, which belongs to the field of pollution monitoring technology, and includes a production data acquisition module to obtain pollutant data generated by the enterprise during the production process; a data processing and analysis module to analyze and process the acquired pollutant data, so as to determine the initial treatment agent dosage; an emission detection module to detect the treated pollutants and determine whether the pollutant treatment results meet the standards; an adjustment module to adjust the next treatment agent dosage according to the judgment results. The present invention detects and determines whether the pollutant treatment meets the standards through the emission detection module, and adjusts the next treatment agent dosage according to the judgment results, so that each time the treatment agent is added, the amount of treatment agent used can be dynamically adjusted according to the previous dosage and historical dosage, so as to reasonably avoid the waste of treatment agents while ensuring that the treatment meets the standards, thereby maximizing the utilization of resources.

Description

Technical Field

[0001] The present invention belongs to the technical field of pollution monitoring, and specifically relates to an intelligent monitoring method and system for the linkage between production, treatment and discharge of pollutant-discharging enterprises. Background Art

[0002] The linkage between production, treatment and discharge of polluting enterprises refers to a management model in which pollutants generated by enterprises in the production process are treated by effective treatment facilities before being discharged. This model emphasizes the close connection between production, treatment and discharge, ensuring that pollutants are effectively treated before being discharged to reduce environmental pollution.

[0003] The existing treatment methods are mostly to transport pollutants to the corresponding treatment equipment, then add the corresponding treatment agents for corresponding treatment, and then discharge them after meeting the standards. However, the treatment agents added to the treatment equipment are generally quantitative, and the severity and amount of pollutants generated during enterprise production are different, so the required treatment dosage is also different. If it is added according to the quantitative dosage, it is easy to have poor treatment effect, which will affect the emission efficiency. Summary of the invention

[0004] The purpose of the present invention is to provide a method and system for intelligent monitoring of production, treatment and discharge linkage of pollutant-discharging enterprises, so as to solve the problems faced by the above-mentioned background technology.

[0005] The purpose of the present invention can be achieved through the following technical solutions:

[0006] An intelligent monitoring system for production, treatment and discharge linkage of pollutant-discharging enterprises, the monitoring system comprising:

[0007] A production data collection module, which is used to obtain pollutant data generated by the enterprise during the production process;

[0008] A data processing and analysis module, which is used to analyze and process the acquired pollutant data, so as to determine the corresponding initial treatment agent dosage;

[0009] An emission detection module, which is used to detect the pollutants after treatment, so as to determine whether the pollutant treatment results meet the standards;

[0010] An adjustment module generates an adjustment instruction according to the judgment result, so as to adjust the amount of treatment agent added next time according to the adjustment instruction.

[0011] Furthermore, the pollutant data acquired by the production data acquisition module includes the concentration of the pollutants, the volume of the pollutants, the treatment pH value of the pollutants, and the temperature of the pollutants.

[0012] Furthermore, the method by which the data processing and analysis module determines the corresponding initial treatment agent dosage is:

[0013] Divide the pollutants obtained into multiple treatment times according to their volume, and obtain the volume of pollutants in each treatment time. , concentration , pH value And the temperature ;

[0014] So through the formula The initial treatment agent dosage ;

[0015] in, The treatment dose required for the preset unit volume concentration is The optimal pH value for the treatment is preset. is the preset pH comparison value, The preset optimal processing temperature is is the preset temperature comparison value, is the total number of other types of items related to pollutants, is the value of the jth item type detected, is the optimal processing value for the preset j-th item type, is the preset comparison value of the jth item type, and .

[0016] Furthermore, the method for the emission detection module to determine whether the pollutant treatment result meets the standard is:

[0017] During the specified time period, the pollutant content index is detected in real time, and the pollutant content index at the end of the specified time period is obtained. , the pollutant content index obtained The pollution content index reaches the set threshold To compare:

[0018] when When , it is judged that the pollutant treatment result meets the standard;

[0019] Otherwise, the pollutant treatment results are judged to be substandard.

[0020] Furthermore, the adjustment instructions include a maintain instruction, an increase delivery instruction, and a decrease delivery instruction:

[0021] when When , a hold instruction is generated;

[0022] when , an increase delivery instruction is generated;

[0023] when When , a reduction order is generated;

[0024] in, It is another preset pollution content indicator reaching standard threshold.

[0025] Furthermore, the method in which the adjustment module adjusts the amount of treatment agent added next time according to the adjustment instruction is:

[0026] When the increase delivery instruction is generated, the formula Adjust the next treatment agent dosage to ;

[0027] When a reduction order is generated, the formula Adjust the next treatment agent dosage to ;

[0028] When a hold instruction is generated, the amount of treatment agent added next time is kept consistent with the previous time;

[0029] in, is the conversion coefficient, To determine whether the pollutant content index reaches the set pollutant content index standard threshold after the pollutant treatment result does not meet the standard The duration of time, The time at the end of the specified time period, To judge whether the pollutant treatment results meet the standards, the pollutant content index reaches the set pollution content index standard threshold The duration of time, is the historical impact coefficient.

[0030] Furthermore, the historical impact coefficient The method to obtain it is:

[0031] Obtain the treatment agent dosage of the first N treatment times for the next treatment, so as to draw up a curve of treatment agent dosage changing with the number of times ;

[0032] Then through the formula Historical Impact Factor ;

[0033] in, For the first processing delivery, For the last processing delivery, It is the standard curve of the preset treatment agent dosage changing with the number of times.

[0034] A method for intelligent monitoring of the linkage between production, treatment and discharge of pollutants in a pollutant-discharging enterprise, wherein the monitoring method is controlled and executed by the intelligent monitoring system for the linkage between production, treatment and discharge of pollutants in a pollutant-discharging enterprise, and the monitoring method comprises:

[0035] Step 1: Obtain data on pollutants generated by the enterprise during the production process;

[0036] Step 2: Divide the obtained pollutants into multiple treatment times according to their volume, and determine the initial treatment agent dosage for each treatment time;

[0037] Step 3: within the specified time period, the treated pollutants are tested in real time to determine whether the pollutant treatment results meet the standards and generate corresponding adjustment instructions;

[0038] Step 4: Adjust the amount of treatment agent to be added next time accordingly according to the generated adjustment instruction.

[0039] Beneficial effects of the present invention:

[0040] The present invention obtains pollutant data of the enterprise during the production process, including but not limited to the concentration of pollutants, the volume of pollutants, the treatment pH value of pollutants and the temperature of pollutants, and then analyzes the parameter information such as the concentration, volume, pH value, temperature and so on of the pollutants to determine the dosage of the treatment agent. In this way, the dosage of each treatment agent can be determined more accurately according to the relevant data in the pollutants to ensure the most suitable dosage of the treatment agent.

[0041] The present invention also detects pollutants in the treatment process through the emission detection module, determines whether the pollutant treatment meets the standards, and adjusts the amount of treatment agent added for the next time according to the judgment result. In this way, each time the treatment agent is added, the amount of treatment agent added can be dynamically adjusted according to the previous addition situation and the historical addition situation, so as to reasonably avoid the waste of treatment agent while ensuring that the treatment meets the standards, thereby maximizing the utilization of resources.

[0042] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0044] Figure 1 is a system block diagram of the present invention;

[0045] Figure 2 The present invention is a flow chart of the method. DETAILED DESCRIPTION

[0046] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0047] In one embodiment, a pollution-discharging enterprise production, treatment and discharge linkage intelligent monitoring system is disclosed, such as Figure 1 As shown, the monitoring system includes:

[0048] Production data collection module: The production data collection module is used to obtain pollutant data generated by the enterprise during the production process. The pollutant data includes the concentration of pollutants, the volume of pollutants, the pH value of pollutant treatment, and the temperature of the pollutants;

[0049] The data processing and analysis module is used to analyze and process the acquired pollutant data, so as to determine the corresponding initial treatment agent dosage;

[0050] Emission detection module: The emission detection module is used to detect the pollutants after treatment, so as to determine whether the pollutant treatment results meet the standards;

[0051] The adjustment module generates an adjustment instruction according to the judgment result, so as to adjust the amount of the treatment agent added next time according to the adjustment instruction.

[0052] The present application obtains pollutant data of the enterprise during the production process, including but not limited to the concentration of pollutants, the volume of pollutants, the treatment pH value of pollutants and the temperature of pollutants, and then analyzes the parameter information such as the concentration, volume, pH value, temperature and other parameters of the pollutants to determine the dosage of the treatment agent. In this way, the dosage of each treatment agent can be determined more accurately according to the relevant data in the pollutants to ensure the most suitable dosage of the treatment agent. At the same time, the pollutants in the treatment process are detected through the emission detection module to determine whether the pollutant treatment meets the standards, and the next dosage of the treatment agent is adjusted according to the judgment result. In this way, each time the treatment agent is added, the dosage of the treatment agent can be dynamically adjusted according to the previous dosage and historical dosage, so as to reasonably avoid the waste of treatment agent while ensuring that the treatment meets the standards, thereby maximizing the utilization of resources.

[0053] As an embodiment of the present invention, the method for the data processing and analysis module to determine the corresponding initial treatment agent dosage is:

[0054] Divide the pollutants obtained into multiple treatment times according to their volume, and obtain the volume of pollutants in each treatment time. , concentration , pH value And the temperature ;

[0055] So through the formula The initial treatment agent dosage ;

[0056] in, The treatment dose required for the preset unit volume concentration is The optimal pH value for the treatment is preset. is the preset pH comparison value, The preset optimal processing temperature is is the preset temperature comparison value, is the total number of other types of items related to pollutants, is the value of the jth item type detected, is the optimal processing value for the preset j-th item type, is the preset comparison value of the jth item type, and .

[0057] In the above scheme, after obtaining the pollutant data, the pollutants are divided into multiple treatment times according to their volume, and the volume of pollutants in each treatment time is obtained. , concentration , pH value And the temperature In actual use, the corresponding project type parameters can also be obtained according to the type of pollutant, including but not limited to pH value and temperature, so as to obtain the corresponding project type parameters ... and obtain the corresponding project type parameters according to the type of pollutant, including but not limited to pH value and temperature, and obtain the corresponding project type parameters according to the type of poll The initial treatment agent dosage ,in The treatment dosage required for the preset unit volume concentration can be formulated based on historical experience data. It can be seen from the formula that the greater the difference between the pH value and the preset optimal treatment pH value, the greater the difference between the temperature and the preset optimal treatment temperature, or the higher the volume and concentration of the pollutant, the more initial treatment agent is required. In this way, a comprehensive analysis can be conducted based on the volume of pollutants, the concentration of pollutants, the pH value, the temperature, and other items related to pollutants, so as to more accurately determine the required amount of treatment agent.

[0058] It should be noted that The optimal pH value for the treatment is preset , preset pH comparison value , preset optimal processing temperature , preset temperature comparison value , the optimal processing value of the preset j-th item type , the preset comparison value of the jth item type All of them can be determined based on the historical data of relevant parameters and processing experience data, which will not be described in detail here.

[0059] As an embodiment of the present invention, the method for the emission detection module to determine whether the pollutant treatment result meets the standard is:

[0060] During the specified time period, the pollutant content index is detected in real time, and the pollutant content index at the end of the specified time period is obtained. , the pollutant content index obtained The pollution content index reaches the set threshold To compare:

[0061] when When , it is judged that the pollutant treatment result meets the standard;

[0062] Otherwise, the pollutant treatment results are judged to be substandard.

[0063] In the above scheme, a processing time period is specified for each treatment, and the emission detection module detects the pollutant content index in real time and obtains the pollutant content index at the end of the processing time period. , and compare it with the set pollution content index reaching the standard threshold Compare and find out the pollution content index reaches the standard threshold The size of can be determined according to the emission standards of corresponding pollutants in big data: When , it means that the pollutant content index at this time has dropped below the threshold, and the pollutant treatment result is judged to be up to standard; otherwise, the pollutant treatment result is judged to be not up to standard.

[0064] As an implementation mode of the present invention, the adjustment instruction includes a maintenance instruction, an increase delivery instruction, and a decrease delivery instruction:

[0065] when When , a hold instruction is generated;

[0066] when , an increase delivery instruction is generated;

[0067] when When , a reduction order is generated;

[0068] The method by which the adjustment module adjusts the amount of treatment agent to be added next time according to the adjustment instruction is:

[0069] When the increase delivery instruction is generated, the formula Adjust the next treatment agent dosage to ;

[0070] When a reduction order is generated, the formula Adjust the next treatment agent dosage to ;

[0071] When a hold instruction is generated, the amount of treatment agent added next time is kept consistent with the previous time;

[0072] in, is another preset pollution content index reaching the standard threshold, is the conversion coefficient, To determine whether the pollutant content index reaches the set pollutant content index standard threshold after the pollutant treatment result does not meet the standard The duration of time, The time at the end of the specified time period, To judge whether the pollutant treatment results meet the standards, the pollutant content index reaches the set pollution content index standard threshold The duration of time, is the historical impact coefficient, the historical impact coefficient The method to obtain it is:

[0073] Obtain the treatment agent dosage of the first N treatment times for the next treatment, so as to draw up a curve of treatment agent dosage changing with the number of times ;

[0074] Then through the formula Historical Impact Factor ;

[0075] in, For the first processing delivery, For the last processing delivery, It is the standard curve of the preset treatment agent dosage changing with the number of times.

[0076] In the above technical solution, a specific method for adjusting the amount of treatment agent is provided. First, the adjustment instruction includes a maintenance instruction, an increase instruction and a decrease instruction: when When , it means that the treatment agent dosage is appropriate, and a hold instruction is generated; when When , it means that the pollutant treatment is not up to standard. In order to ensure the treatment efficiency, an increase in the delivery instruction is generated; when , although the pollutant treatment meets the standard, in order to reasonably use the amount of treatment agent and avoid waste of treatment agent, a reduction instruction is generated, and corresponding adjustments are made according to the corresponding adjustment instructions. Specifically, when an increase instruction is generated, the amount of treatment agent is increased. At this time, the formula Adjust the next treatment agent dosage to ,in is the historical impact coefficient, the historical impact coefficient The method of obtaining is: obtain the treatment agent dosage of the first N treatment times before the next treatment, so as to formulate the treatment agent dosage change curve with the number of times , and then through the formula Historical Impact Factor , For the first processing delivery, For the last processing delivery, is the preset standard curve of the treatment agent dosage changing with the number of times. It can be seen from the formula that the greater the difference between the proposed treatment agent dosage changing with the number of times and the preset standard change of the treatment agent dosage changing with the number of times, the more treatment agent needs to be added next time, and vice versa. Therefore, from the formula It can be seen that when the pollutant content index is obtained The pollution content index reaches the set threshold The greater the difference between the two values, the higher the pollutant content index reaches the set pollutant content index threshold. The longer the time is, the more treatment agent dosage needs to be increased; similarly, when a reduction instruction is generated, the treatment agent dosage is reduced. At this time, the formula Adjust the next treatment agent dosage to ; From the formula, we can see that when and The greater the difference between the two, or the pollutant content index reaches the set pollution content index compliance threshold The shorter the duration, the more the amount of treatment agent needs to be reduced. Similarly, when a hold instruction is generated, it means that the pollutant treatment status is in the most appropriate state at this time, so the amount of treatment agent added next time can be kept consistent with the previous time. In this way, the amount of treatment agent added each time can be adjusted dynamically in real time based on the pollutant reaching the standard time each time, the pollutant content at the end of each specified time period, and the historical content. Comprehensive analysis can be conducted to ensure the pollutant treatment effect while saving the amount of treatment agent used, thereby maximizing resource utilization.

[0077] It should be noted that the preset threshold value of another pollution content indicator is According to the emission standards of the corresponding pollutants in the big data, the length of the specified time period can be artificially determined according to the actual situation of the treatment equipment, and the conversion coefficient And the preset standard curve of treatment agent dosage changing with the number of times Since it can be determined based on historical experience data, I will not elaborate on it here.

[0078] In one embodiment, a method for intelligent monitoring of the linkage between production, treatment and discharge of pollutants is also disclosed. Figure 2 As shown, the monitoring method includes:

[0079] Step 1: Obtain data on pollutants generated by the enterprise during the production process;

[0080] Step 2: Divide the obtained pollutants into multiple treatment times according to their volume, and determine the initial treatment agent dosage for each treatment time;

[0081] Step 3: within the specified time period, the treated pollutants are tested in real time to determine whether the pollutant treatment results meet the standards and generate corresponding adjustment instructions;

[0082] Step 4: Adjust the amount of treatment agent to be added next time accordingly according to the generated adjustment instruction.

[0083] The present invention obtains pollutant data of the enterprise during the production process, including but not limited to the concentration of pollutants, the volume of pollutants, the pH value of the treatment of pollutants, and the temperature of the pollutants, and then analyzes the parameter information such as the concentration, volume, pH value, temperature, etc. of the pollutants to determine the amount of treatment agent to be added, so that the amount of each treatment agent to be added can be more accurately determined according to the relevant data in the pollutants to ensure the most suitable amount of treatment agent to be added. At the same time, the present invention also detects pollutants in the treatment process through an emission detection module to determine whether the pollutant treatment is up to standard, and adjusts the amount of treatment agent to be added next time according to the judgment result, so that each time the treatment agent is added, the amount of treatment agent to be added can be dynamically adjusted according to the previous delivery situation and the historical delivery situation, and the waste of treatment agent can be reasonably avoided while ensuring that the treatment is up to standard, thereby maximizing the utilization of resources.

[0084] The above contents are merely examples and explanations of the concept of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined by the claims, they should all fall within the protection scope of the present invention.

Claims

1. An intelligent monitoring system for the linkage between production, treatment and discharge of pollutants in polluting enterprises, characterized in that: The monitoring system comprises: A production data collection module, which is used to obtain pollutant data generated by the enterprise during the production process; A data processing and analysis module, which is used to analyze and process the acquired pollutant data, so as to determine the corresponding initial treatment agent dosage; An emission detection module, which is used to detect the pollutants after treatment, so as to determine whether the pollutant treatment results meet the standards; An adjustment module, wherein the adjustment module generates an adjustment instruction according to the judgment result, so as to adjust the amount of treatment agent added next time according to the adjustment instruction; The method for the data processing and analysis module to determine the corresponding initial treatment agent dosage is: divide the obtained pollutants into multiple treatment times according to their volume, and obtain the volume of pollutants in each treatment time. , concentration , pH value And the temperature ; So through the formula The initial treatment agent dosage ; in, The treatment dose required for the preset unit volume concentration is The optimal pH value for the treatment is preset. is the preset pH comparison value, The preset optimal processing temperature is is the preset temperature comparison value, is the total number of other types of items related to pollutants, is the value of the jth item type detected, is the optimal processing value for the preset j-th item type, is the preset comparison value of the jth item type, and ; The method for the emission detection module to determine whether the pollutant treatment result meets the standard is: within a specified time period, real-time detection of pollutant content indicators, and obtaining the pollutant content indicators at the end of the specified time period , the pollutant content index obtained The pollution content index reaches the set threshold To compare: when When , it is judged that the pollutant treatment result meets the standard; Otherwise, it is judged that the pollutant treatment results do not meet the standards; The adjustment instructions include a maintenance instruction, an increase delivery instruction, and a decrease delivery instruction: When , a hold instruction is generated; when When , an increase delivery instruction is generated; when When , a reduction order is generated; in, is another preset pollution content index reaching standard threshold; The method for the adjustment module to adjust the next treatment agent dosage according to the adjustment instruction is as follows: when an increase dosage instruction is generated, the formula Adjust the next treatment agent dosage to ; When a reduction order is generated, the formula Adjust the next treatment agent dosage to ; When a hold instruction is generated, the amount of treatment agent added next time is kept consistent with the previous time; in, is the conversion coefficient, To determine whether the pollutant content index reaches the set pollutant content index standard threshold after the pollutant treatment result does not meet the standard The duration of time, The time at the end of the specified time period, To judge whether the pollutant treatment results meet the standards, the pollutant content index reaches the set pollution content index standard threshold The duration of time, is the historical impact coefficient, the historical impact coefficient The method to obtain it is: Obtain the treatment agent dosage of the first N treatment times for the next treatment, so as to draw up a curve of treatment agent dosage changing with the number of times ; Then through the formula Historical Impact Factor ; in, For the first processing delivery, For the last processing delivery, It is the standard curve of the preset treatment agent dosage changing with the number of times.

2. According to claim 1, a pollution-discharging enterprise production, treatment and discharge linkage intelligent monitoring system is characterized in that: The pollutant data acquired by the production data acquisition module include the concentration of the pollutants, the volume of the pollutants, the treatment pH value of the pollutants, and the temperature of the pollutants.

3. A method for intelligent monitoring of the linkage between production, treatment and discharge of pollutants in pollutants-discharging enterprises, wherein the monitoring method is controlled and executed by the intelligent monitoring system for the linkage between production, treatment and discharge of pollutants-discharging enterprises according to any one of claims 1-2, and is characterized in that: The monitoring method comprises: Step 1: Obtain data on pollutants generated by the enterprise during the production process; Step 2: Divide the obtained pollutants into multiple treatment times according to their volume, and determine the initial treatment agent dosage for each treatment time; Step 3: within the specified time period, the treated pollutants are tested in real time to determine whether the pollutant treatment results meet the standards and generate corresponding adjustment instructions; Step 4: Adjust the amount of treatment agent to be added next time accordingly according to the generated adjustment instruction.

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