Forestry ecological wastewater treatment and resource recovery integrated method

Abstract

The invention discloses an integrated method for forestry ecological wastewater treatment and resource recovery, which relates to the technical field of wastewater treatment, and comprises the following implementation steps: configuring a control terminal server for forestry ecological wastewater treatment and resource recovery, and entering a decision monitoring and adjusting module; adjusting a wastewater treatment decision scheme in real time according to water resource requirements of crops in different life cycles; the water enters a resource period distribution module, and balanced utilization of the water resources is realized by correspondingly adjusting the recycling amount of the water resources and carrying out balanced distribution of the recycled water resources in combination with different regions; and entering a collaborative benefit game module, and obtaining an optimal wastewater treatment decision in real time according to crop water resource requirements in different periods. According to the forestry ecological wastewater treatment and resource recovery integrated method, the situation that water resource recycling cannot be executed is avoided, balanced utilization of crop multi-region water resource requirements is achieved, and the accuracy of cooperative benefit optimal wastewater treatment decision execution is guaranteed.

Description

Technical Field

[0001] The present invention relates to the technical field of wastewater treatment, and in particular to an integrated method for forestry ecological wastewater treatment and resource recovery. Background Art

[0002] Forestry ecological wastewater treatment and resource recovery refers to the practice of achieving efficient treatment of wastewater generated during forestry production and resource utilization of waste by integrating sewage treatment technology and resource recycling strategies. Its core lies in solving the problem of forestry wastewater pollution while converting organic matter, nutrients, etc. in the wastewater into reusable resources, thereby forming synergistic benefits between the environment and the economy.

[0003] At present, there are some deficiencies in the treatment of forestry ecological wastewater: 1. Although the existing intelligent equipment is quite mature in wastewater treatment technology, a unified standard of wastewater treatment decision is usually adopted when treating wastewater, and the wastewater treatment decision cannot be adjusted in real time according to the life cycle of crops. If a unified standard of wastewater treatment decision is adopted, water resource recovery anomalies are likely to occur; 2. When recycling water resources, it is impossible to adjust the recycling and utilization of water resources in real time according to the wastewater treatment volume in different regions, resulting in unbalanced water resource distribution during resource recovery, and unable to achieve efficient and balanced utilization of water resources, and prone to water shortage and waste of water resources; 3. When recycling resources after wastewater treatment, it is impossible to balance the synergistic benefits of wastewater treatment costs and resource recovery costs in real time, and it is impossible to obtain the optimal wastewater treatment decision in real time according to the water resource needs of crops in different cycles, and the accuracy of the execution of the wastewater treatment decision with the best synergistic benefits cannot be guaranteed.

[0004] Therefore, a new integrated method of forestry ecological wastewater treatment and resource recovery is proposed to solve the above problems. Summary of the Invention

[0005] The main purpose of the present invention is to provide an integrated method for forestry ecological wastewater treatment and resource recovery to solve the problems raised in the above background.

[0006] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is: an integrated method for forestry ecological wastewater treatment and resource recovery, the method comprising the following implementation steps: Step 1: Configure the control terminal server for forestry ecological wastewater treatment and resource recovery, enter the decision-making monitoring and adjustment module, set wastewater treatment decisions, collect real-time data on development projects in the corresponding area, obtain the wastewater treatment volume in the corresponding area, and adjust the wastewater treatment decision plan in real time based on the water resource demand of crops in different life cycles to ensure the accuracy of water resource supply in different crop cycles; Step 2: Enter the resource cycle allocation module. By collecting the water resource demand of crops in different cycles in real time and obtaining the wastewater recycling and utilization volume of development projects in different regions in real time, the water resource recycling and utilization volume is adjusted in real time according to the water resource demand of different crops. The recycled water resources are evenly distributed in different regions to achieve balanced utilization of water resources. Step 3: Enter the synergistic benefit game module. By calculating the wastewater treatment risk and resource recovery risk, the synergistic benefits of wastewater treatment cost and resource recovery cost are balanced in real time. The optimal wastewater treatment decision is obtained in real time according to the crop water resource demand in different cycles, ensuring the accuracy of the execution of the optimal wastewater treatment decision under synergistic benefits.

[0007] The decision-making, monitoring and adjustment module includes a wastewater treatment decision unit, a regional project wastewater collection unit and a life cycle resource demand unit; The wastewater treatment decision unit is used to set the corresponding regional scope and wastewater treatment decision plan for forestry ecological wastewater treatment and resource recovery. The corresponding regional scope is set in combination with the crop demand divided into villages, towns and urban areas. The wastewater treatment decision plan is set according to the crop water resource demand in different regional scopes. The crop water resource demand is matched with the nitrogen, phosphorus and organic matter requirements according to the different life cycles of different crops.

[0008] The regional project wastewater collection unit is used to collect development projects and crop planting requirements within the corresponding area in real time through a data acquisition instrument, and obtain the wastewater treatment volume of different development projects within the corresponding area in real time according to the development projects. , the calculation formula is as follows: ; in, represents the total volume of wastewater to be treated, It represents the treatment time, and combines the development projects and pollutant monitors to obtain the wastewater treatment residual substances in the wastewater treatment volume corresponding to different development projects.

[0009] The life cycle resource demand unit is used to adjust the wastewater treatment decision plan in real time based on the wastewater treatment residual substances in the wastewater treatment volume and the water resource demand of crops in different life cycles, and calculate the material demand of crops in the next life cycle within the corresponding area. , the formula is as follows: ; in, Indicates the current stage ( The material demand of crops in the Indicates the current stage ( Standard evaporative emission of substances in the Indicates the next stage ( Standard evaporative emission of substances in the It represents the total evaporation of standard crop material demand calculated by standard method based on meteorological data (temperature, humidity, wind speed, sunshine), and characterizes the impact of climate on crop material demand. Adjust wastewater treatment decisions in real time.

[0010] The resource cycle allocation module includes a regional wastewater recycling unit, a corresponding cycle resource allocation unit and a resource allocation balance unit; The regional wastewater recycling unit is used to collect the water resource demand of crops in different cycles in real time through the data acquisition instrument, and obtain the wastewater recycling volume Q corresponding to different development projects in different regions in real time. 回收 , the calculation formula is as follows: Q 回收 =Q 废水 ×η 处理 ×η 回用 ; Among them, Q 废水 represents the total wastewater generation corresponding to different development projects within the corresponding area, η 处理 represents the wastewater treatment system efficiency corresponding to different development projects within the corresponding area, η 回用 It indicates the actual reuseable proportion of the wastewater that meets the standards corresponding to different development projects in the corresponding area.

[0011] The corresponding period resource allocation unit is used to adjust the wastewater recycling amount of water resources in real time according to the water resource demand of different crops. The corresponding adjustment is to match the water resource demand of different crops in the corresponding area with the wastewater recycling amount.

[0012] The resource allocation balancing unit is used to balance the allocation of resource recovery water resources in different areas.

[0013] The synergistic benefit game module includes a recovery risk processing unit, a synergistic benefit game unit and an optimal decision calculation unit; The treatment and recovery risk unit is used to monitor the wastewater treatment risk and resource recovery risk of the development project in real time.

[0014] The synergistic benefit game unit is used to balance the wastewater treatment cost and resource recovery cost to achieve synergistic benefits, and calculate the wastewater treatment cost and resource recovery cost in real time to achieve the profit rate of the game synergistic solution. The calculation formula is as follows: ; in, represents the profit rate of game coordination, represents the reward coefficient of game coordination, It represents the probability of game profit from collaborative execution of the game. If the profit rate is positive, it indicates that the game collaborative plan can be executed. If the profit rate is negative, it indicates that the game collaborative plan cannot be executed.

[0015] The optimal decision-making calculation unit is used to calculate the optimal wastewater treatment decision in real time based on the water resource demand of crops in different periods and in combination with game theory, and set the profit demand of wastewater treatment and the profit demand of resource recovery.

[0016] The present invention has the following beneficial effects: 1. In the present invention, by setting up a decision-making monitoring and adjustment module, when performing forestry ecological wastewater treatment and resource recovery operations, by setting the corresponding regional scope and wastewater treatment decision plan for forestry ecological wastewater treatment and resource recovery, and obtaining the wastewater treatment volume within the corresponding regional scope in real time according to the development project, and obtaining the corresponding wastewater treatment residual substances under different development projects, when treating the wastewater caused by the development project within the corresponding regional scope, the wastewater treatment decision plan can be adjusted in real time according to the water resource requirements of different crop life, thereby increasing the convenience and effectiveness of resource recovery after wastewater treatment; 2. In the present invention, by setting up a resource cycle allocation module, during the forestry ecological wastewater treatment and resource recovery operations, the water resource requirements of crops in different cycles are collected in real time, and the wastewater recycling and utilization amount of water resources is adjusted in real time according to the water resource requirements of different crops, thereby achieving balanced utilization of water resource requirements in multiple regions of crops and avoiding water shortage and water waste during water resource replenishment; 3. In the present invention, by setting up a synergistic benefit game module, when conducting forestry ecological wastewater treatment and resource recovery operations, the optimal wastewater treatment decision is obtained in real time by combining the water resource demand of crops in different cycles with game theory, so that when resources are recovered after wastewater treatment, the accuracy of the execution of the synergistic benefit optimal wastewater treatment decision can be guaranteed, further increasing the forestry ecological wastewater treatment and resource recovery effects. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is an overall flow chart of an integrated method for forestry ecological wastewater treatment and resource recovery according to the present invention; Figure 2 This is a schematic diagram of the architecture of a decision-making, monitoring, and adjustment module of an integrated method for forestry ecological wastewater treatment and resource recovery according to the present invention; Figure 3 This is a schematic diagram of the architecture of a resource cycle allocation module of an integrated method for forestry ecological wastewater treatment and resource recovery according to the present invention; Figure 4 This is a schematic diagram of the architecture of a synergistic benefit game module for an integrated method for forestry ecological wastewater treatment and resource recovery according to the present invention. DETAILED DESCRIPTION

[0018] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.

[0019] Example 1, please refer to Figures 1 to 2 An integrated method for forestry ecological wastewater treatment and resource recovery is shown, including the following implementation steps: Step 1: Configure the control terminal server for forestry ecological wastewater treatment and resource recovery, enter the decision-making monitoring and adjustment module, set wastewater treatment decisions, collect real-time data on development projects in the corresponding area, obtain the wastewater treatment volume in the corresponding area, and adjust the wastewater treatment decision plan in real time based on the water resource demand of crops in different life cycles to ensure the accuracy of water resource supply in different crop cycles; Step 2: Enter the resource cycle allocation module. By collecting the water resource demand of crops in different cycles in real time and obtaining the wastewater recycling and utilization volume of development projects in different regions in real time, the water resource recycling and utilization volume is adjusted in real time according to the water resource demand of different crops. The recycled water resources are evenly distributed in different regions to achieve balanced utilization of water resources. Step 3: Enter the synergistic benefit game module. By calculating the wastewater treatment risk and resource recovery risk, the synergistic benefits of wastewater treatment cost and resource recovery cost are balanced in real time. The optimal wastewater treatment decision is obtained in real time according to the crop water resource demand in different cycles, ensuring the accuracy of the execution of the optimal wastewater treatment decision under synergistic benefits.

[0020] The decision-making, monitoring and adjustment module includes a wastewater treatment decision-making unit, a regional project wastewater collection unit and a life cycle resource demand unit; The wastewater treatment decision-making unit is used to set the corresponding regional scope and wastewater treatment decision-making plan for forestry ecological wastewater treatment and resource recovery. The corresponding regional scope is set in combination with the crop demand divided into villages, towns and urban areas. The wastewater treatment decision-making plan is set according to the crop water resource demand in different regional scopes. The crop water resource demand is matched with the nitrogen, phosphorus and organic matter requirements according to the different life cycles of different crops.

[0021] The regional project wastewater collection unit is used to collect the development projects and crop planting needs in the corresponding area in real time through the data acquisition instrument, and obtain the wastewater treatment volume of different development projects in the corresponding area in real time according to the development projects. , the calculation formula is as follows: ; in, represents the total volume of wastewater to be treated, It represents the treatment time, and combines the development projects and pollutant monitors to obtain the wastewater treatment residual substances in the wastewater treatment volume corresponding to different development projects.

[0022] The life cycle resource demand unit is used to adjust the wastewater treatment decision plan in real time based on the wastewater treatment residual substances in the wastewater treatment volume and the water resource demand of crops in different life cycles, and calculate the material demand of crops in the next life cycle within the corresponding area. , the formula is as follows: ; in, Indicates the current stage ( The material demand of crops in the Indicates the current stage ( Standard evaporative emission of substances in the Indicates the next stage ( Standard evaporative emission of substances in the It represents the total evaporation of standard crop material demand calculated by standard method based on meteorological data (temperature, humidity, wind speed, sunshine), and characterizes the impact of climate on crop material demand. Adjust the wastewater treatment decision plan in real time, obtain the wastewater treatment volume in the corresponding area according to the development project in real time, obtain the corresponding wastewater treatment residual substances under different development projects, and adjust the wastewater treatment decision plan in real time according to the water resource demand of different crops in the life cycle, so that when treating the wastewater caused by the development project in the corresponding area, the wastewater treatment decision plan can be adjusted in real time according to the water resource demand of different crops.

[0023] Example 2, please refer to Figure 3 As shown: Based on the first embodiment, the resource cycle allocation module includes a regional wastewater recycling unit, a corresponding cycle resource allocation unit and a resource allocation balance unit; The regional wastewater recycling unit is used to collect the water resource demand of different crop cycles in real time through the data acquisition instrument, and obtain the wastewater recycling volume Q corresponding to different development projects in different regions in real time. 回收 , the calculation formula is as follows: Q 回收 =Q 废水 ×η 处理 ×η 回用 ; Among them, Q 废水 represents the total wastewater generation corresponding to different development projects within the corresponding area, η 处理 represents the wastewater treatment system efficiency corresponding to different development projects within the corresponding area, η 回用It indicates the actual reuseable proportion of the wastewater that meets the standards corresponding to different development projects in the corresponding area.

[0024] The corresponding periodic resource allocation unit is used to adjust the wastewater recycling volume of water resources in real time according to the water resource demand of different crops. The corresponding adjustment is to match the water resource demand of different crops in the corresponding area with the wastewater recycling volume.

[0025] The resource allocation balance unit is used to balance the allocation of recycled water resources in different areas, as follows: ; ; in, Indicates the total number of regions, , Indicates the area number ( , =1,2,…, ), Indicates area Wastewater recycling, Indicates area Recycled water material demand, Indicates area The actual quality of recycled water obtained, Indicates area Wastewater treatment costs within the scope of Indicates area arrive The distance water delivery cost is area arrive Water delivery distance, Indicates area arrive Actual water delivery, Indicates area The priority weight, represents the penalty coefficient for lack of material, Indicates the minimum material supply ratio, Indicates area The maximum processing capacity, Indicates area arrive The maximum capacity of the material in the water supply network is determined. According to the water resource needs of different crops, the wastewater recycling and utilization volume of water resources is adjusted in real time, and the balanced distribution of resource recycling water resources is carried out in combination with different regions to achieve balanced utilization of water resource needs of crops in multiple regions, and avoid water shortage and waste of crops when water resources are replenished.

[0026] Example 3, please refer to Figure 4 As shown: Based on the first embodiment, the synergistic benefit game module includes a recovery risk processing unit, a synergistic benefit game unit and an optimal decision-making calculation unit; The treatment and recovery risk unit is used to monitor the wastewater treatment risk and resource recovery risk of development projects in real time. The calculation formula is as follows: The risk cost of wastewater treatment is as follows: ; in, Represents the total risk cost of wastewater treatment for development projects within the corresponding area, Indicates the The probability of a risk event occurring. Indicates the The expected loss after the occurrence of such risk events, represents the average lifecycle cost of risk prevention measures; The risk cost of resource recovery is as follows: ; in, Represents the total risk cost of resource recovery for development projects within the corresponding region, represents the wastewater recycling quality monitoring cost, It represents the reserve fund for wastewater recycling to cope with unexpected risks.

[0027] The synergistic benefit game unit is used to balance the wastewater treatment cost and resource recovery cost to achieve synergistic benefits. It calculates the wastewater treatment cost and resource recovery cost in real time to achieve the profit rate of the game synergistic solution. The calculation formula is as follows: ; in, represents the profit rate of game coordination, represents the reward coefficient of game coordination, It represents the probability of game profit from collaborative execution of the game. If the profit rate is positive, it indicates that the game collaborative plan can be executed. If the profit rate is negative, it indicates that the game collaborative plan cannot be executed.

[0028] The optimal decision-making calculation unit is used to calculate the optimal wastewater treatment decision in real time based on the water resource demand of crops in different cycles and combined with game theory, and set the profit demand of wastewater treatment and resource recovery. The profit demand can be set according to the actual needs of different crop cycles, as follows: The optimal wastewater treatment decision combination is matched through the Nash equilibrium point calculation formula. The calculation formula is as follows: ; in, , then it is called For the Nash equilibrium of the interest object, The first object of interest Interest demands, The second object of interest Interest demands, Indicates the benefits of wastewater treatment, It represents the interest demand of resource recovery, ensures the balanced wastewater treatment cost and resource recovery cost to achieve synergistic benefits, and obtains the optimal wastewater treatment decision in real time based on the water resource demand of crops in different cycles combined with game theory. When resources are recovered after wastewater treatment, the synergistic benefits of wastewater treatment cost and resource recovery cost can be balanced in real time. At the same time, the optimal wastewater treatment decision can be obtained in real time based on the water resource demand of crops in different cycles, ensuring the accuracy of the execution of the wastewater treatment decision with the best synergistic benefits.

[0029] In the present invention, an integrated method for forestry ecological wastewater treatment and resource recovery first implements the following steps: configuring a control terminal server for forestry ecological wastewater treatment and resource recovery, entering a decision-making monitoring and adjustment module, setting a wastewater treatment decision, and obtaining the wastewater treatment volume of the corresponding area in real time by collecting development projects in the corresponding area in real time, and adjusting the wastewater treatment decision plan in real time according to the water resource demand in different life cycles of crops to ensure the accuracy of water resource demand supply in different cycles of crops, by setting the corresponding area range and wastewater treatment decision plan for forestry ecological wastewater treatment and resource recovery, and collecting the development projects and crop planting needs in the corresponding area in real time through a data acquisition instrument. , obtain the wastewater treatment volume in the corresponding area in real time according to the development project, obtain the corresponding wastewater treatment residual substances under different development projects, and adjust the wastewater treatment decision-making plan in real time according to the water resource demand of different life cycles of crops, so that when treating the wastewater caused by the development projects in the corresponding area, the wastewater treatment decision-making plan can be adjusted in real time according to the water resource demand of different life cycles of crops, avoiding the unimplementation of water resource recycling caused by wastewater treatment decisions under unified standards, and increasing the convenience and effectiveness of resource recycling after wastewater treatment; enter the resource cycle allocation module, through real-time collection of water resource demand of different cycles of crops, and real-time acquisition of wastewater treatment projects in different regions The amount of water recycled and utilized is adjusted in real time according to the water resource needs of different crops, and the balanced allocation of resource recycled water resources in different regions is carried out to achieve balanced utilization of water resources. By adjusting the amount of wastewater recycled and utilized water resources accordingly and balancing the balanced allocation of resource recycled water resources in different regions, the balanced utilization of water resource needs in multiple regions of crops is achieved, avoiding water shortages and water waste in crops when water resources are replenished; entering the synergistic benefit game module, by calculating the wastewater treatment risk and resource recovery risk, the synergistic benefits of wastewater treatment costs and resource recovery costs are balanced in real time, and real-time data is obtained based on the water resource needs of crops in different cycles. The optimal wastewater treatment decision ensures the accuracy of the execution of the optimal wastewater treatment decision under synergistic benefits. By real-time monitoring of the wastewater treatment risks and resource recovery risks of development projects, balancing the wastewater treatment costs and resource recovery costs to achieve synergistic benefits, and combining game theory with the water resource demand of crops in different cycles to obtain the optimal wastewater treatment decision in real time, so that when resources are recovered after wastewater treatment, the synergistic benefits of wastewater treatment costs and resource recovery costs can be balanced in real time. At the same time, the optimal wastewater treatment decision can be obtained in real time according to the water resource demand of crops in different cycles, ensuring the accuracy of the execution of the optimal wastewater treatment decision with synergistic benefits, and further increasing the forestry ecological wastewater treatment and resource recovery effects.

[0030] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. An integrated method for forestry ecological wastewater treatment and resource recovery, characterized in that: The method comprises the following implementation steps: Step 1: Configure the control terminal server for forestry ecological wastewater treatment and resource recovery, enter the decision-making monitoring and adjustment module, set wastewater treatment decisions, collect real-time data on development projects in the corresponding area, obtain the wastewater treatment volume in the corresponding area, and adjust the wastewater treatment decision plan in real time based on the water resource demand of crops in different life cycles to ensure the accuracy of water resource supply in different crop cycles; Step 2: Enter the resource cycle allocation module. By collecting the water resource demand of crops in different cycles in real time and obtaining the wastewater recycling and utilization volume of development projects in different regions in real time, the water resource recycling and utilization volume is adjusted in real time according to the water resource demand of different crops. The recycled water resources are evenly distributed in different regions to achieve balanced utilization of water resources. Step 3: Enter the synergistic benefit game module. By calculating the wastewater treatment risk and resource recovery risk, the synergistic benefits of wastewater treatment cost and resource recovery cost are balanced in real time. The optimal wastewater treatment decision is obtained in real time according to the crop water resource demand in different cycles, ensuring the accuracy of the execution of the optimal wastewater treatment decision under synergistic benefits.

2. The method according to claim 1, wherein: The decision-making, monitoring and adjustment module includes a wastewater treatment decision unit, a regional project wastewater collection unit and a life cycle resource demand unit; The wastewater treatment decision unit is used to set the corresponding regional scope and wastewater treatment decision plan for forestry ecological wastewater treatment and resource recovery. The corresponding regional scope is set in combination with the crop demand divided into villages, towns and urban areas. The wastewater treatment decision plan is set according to the crop water resource demand in different regional scopes. The crop water resource demand is matched with the nitrogen, phosphorus and organic matter requirements according to the different life cycles of different crops.

3. The method according to claim 2, wherein: The regional project wastewater collection unit is used to collect development projects and crop planting requirements within the corresponding area in real time through a data acquisition instrument, and obtain the wastewater treatment volume of different development projects within the corresponding area in real time according to the development projects. , the calculation formula is as follows: ； in, represents the total volume of wastewater to be treated, It represents the treatment time, and combines the development projects and pollutant monitors to obtain the wastewater treatment residual substances in the wastewater treatment volume corresponding to different development projects.

4. The method according to claim 3, wherein: The life cycle resource demand unit is used to adjust the wastewater treatment decision plan in real time based on the wastewater treatment residual substances in the wastewater treatment volume and the water resource demand of crops in different life cycles, and calculate the material demand of crops in the next life cycle within the corresponding area. , the formula is as follows: ； in, Indicates the current stage ( The material demand of crops in the Indicates the current stage ( Standard evaporative emission of substances in the Indicates the next stage ( Standard evaporative emission of substances in the It represents the total evaporation of standard crop material demand calculated by standard method based on meteorological data (temperature, humidity, wind speed, sunshine), and characterizes the impact of climate on crop material demand. Adjust wastewater treatment decisions in real time.

5. The method according to claim 1, wherein: The resource cycle allocation module includes a regional wastewater recycling unit, a corresponding cycle resource allocation unit and a resource allocation balance unit; The regional wastewater recycling unit is used to collect the water resource demand of crops in different cycles in real time through the data acquisition instrument, and obtain the wastewater recycling volume Q corresponding to different development projects in different regions in real time. 回收 , the calculation formula is as follows: Q 回收 =Q 废水 ×η 处理 ×η 回用 ; Among them, Q 废水 represents the total wastewater generation corresponding to different development projects within the corresponding area, η 处理 represents the wastewater treatment system efficiency corresponding to different development projects within the corresponding area, η 回用 It indicates the actual reuseable proportion of the wastewater that meets the standards corresponding to different development projects in the corresponding area.

6. The method according to claim 5, characterized in that: The corresponding period resource allocation unit is used to adjust the wastewater recycling amount of water resources in real time according to the water resource demand of different crops. The corresponding adjustment is to match the water resource demand of different crops in the corresponding area with the wastewater recycling amount.

7. The method according to claim 6, characterized in that: The resource allocation balancing unit is used to balance the allocation of resource recovery water resources in different areas.

8. The method according to claim 1, wherein: The synergistic benefit game module includes a recovery risk processing unit, a synergistic benefit game unit and an optimal decision calculation unit; The treatment and recovery risk unit is used to monitor the wastewater treatment risk and resource recovery risk of the development project in real time. The calculation formula is as follows: The risk cost of wastewater treatment is as follows: ； in, Represents the total risk cost of wastewater treatment for development projects within the corresponding area, Indicates the The probability of a risk event occurring. Indicates the The expected loss after the occurrence of such risk events, represents the average lifecycle cost of risk prevention measures; The risk cost of resource recovery is as follows: ； in, Represents the total risk cost of resource recovery for development projects within the corresponding region, represents the wastewater recycling quality monitoring cost, It represents the reserve fund for wastewater recycling to cope with unexpected risks.

9. The method according to claim 8, characterized in that: The synergistic benefit game unit is used to balance the wastewater treatment cost and resource recovery cost to achieve synergistic benefits, and calculate the wastewater treatment cost and resource recovery cost in real time to achieve the profit rate of the game synergistic solution. The calculation formula is as follows: ； in, represents the profit rate of game coordination, represents the reward coefficient of game coordination, It represents the probability of game profit from collaborative execution of the game. If the profit rate is positive, it indicates that the game collaborative plan can be executed. If the profit rate is negative, it indicates that the game collaborative plan cannot be executed.

10. The method according to claim 9, characterized in that: The optimal decision-making calculation unit is used to calculate the optimal wastewater treatment decision in real time based on the crop water resource demand in different cycles and in combination with game theory, and set the profit requirements of wastewater treatment and resource recovery, as follows: The optimal wastewater treatment decision combination is matched through the Nash equilibrium point calculation formula. The calculation formula is as follows: ； in, , then it is called For the Nash equilibrium of the interest object, The first object of interest Interest demands, The second object of interest Interest demands, Indicates the benefits of wastewater treatment, Represent the interests of resource recovery and ensure the balance of wastewater treatment costs and resource recovery costs to achieve synergistic benefits.

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