A park net zero carbon power supply system and method

Abstract

The present invention relates to a net-zero carbon power supply system, and specifically to a net-zero carbon power supply system and method for a park; the system comprises a data monitoring module, a capture module, an analysis and control module, a delivery and distribution module, and an equipment processing module. The data monitoring module is connected to the analysis and control module, the analysis and control module is connected to the capture module, the delivery and distribution module is connected to the analysis and control module, and the equipment processing module is connected to the delivery and distribution module. The system can monitor and analyze the gas environment parameters of different functional areas in the park and reasonably distribute and process areas where carbon dioxide exceeds the standard in combination with the green coverage areas set in the park, thereby reducing the workload of the carbon dioxide processing equipment to a certain extent, so that the park can obtain more flexible and stable control over carbon emissions.

Description

Technical Field

[0001] The present invention relates to a net-zero-carbon power supply system, and in particular to a net-zero-carbon power supply system and method for a park. Background Art

[0002] Industrial parks are major electricity consumers and greenhouse gas emission sources. Large amounts of carbon emissions within industrial parks directly lead to a decline in air quality and increase the concentration of carbon dioxide and other greenhouse gases in the air. High concentrations of carbon dioxide can also have adverse effects on human health, such as causing breathing difficulties. Excessive carbon emissions can also indirectly lead to water pollution, for example, by introducing pollutants into water bodies through atmospheric deposition.

[0003] To control carbon emissions within industrial parks, most industrial parks will replan and adjust their internal energy structures, increase the proportion of clean energy, gradually reduce dependence on fossil fuels, and increase the use of clean energy such as natural gas, hydrogen, solar energy and wind energy, thereby reducing carbon dioxide emissions. At the same time, most industrial parks will also install systems for capturing and processing carbon dioxide and adopt methods such as expanding green belts to treat emitted carbon dioxide, thereby achieving control of carbon dioxide emissions within the industrial parks.

[0004] Due to the different division of labor in various areas within the park, there will be certain differences in carbon emissions in each area. Some areas with larger carbon emissions can be treated through the existing carbon dioxide treatment system, while some areas with smaller carbon emissions may be directly purified through planted green plants. However, due to the construction planning issues of the park, the emission areas are far apart, making it impossible to effectively absorb and treat the emitted carbon dioxide. At the same time, since the carbon dioxide emissions in each area will fluctuate, all the collected and captured carbon dioxide can only be processed through the corresponding carbon dioxide treatment system, making it impossible for the existing treatment system to flexibly and effectively plan the treatment of carbon dioxide according to the carbon dioxide emissions in different areas of the park, resulting in the entire carbon dioxide treatment system needing to maintain a high-load working state. Summary of the Invention

[0005] The purpose of the present invention is to provide a net-zero carbon power supply system and method for a park, which can monitor and analyze the gas environment parameters of different functional areas in the park and combine the green coverage areas set up in the park to reasonably allocate and treat areas where carbon dioxide exceeds the standard, thereby reducing the workload of carbon dioxide treatment equipment to a certain extent, so that the park can obtain more flexible and stable control of carbon emissions.

[0006] To achieve the above objectives, the present invention adopts a park net-zero carbon power supply system and method, including a data monitoring module, a capture module, an analysis and control module, a delivery and distribution module, and an equipment processing module. The data monitoring module is connected to the analysis and control module, the analysis and control module is connected to the capture module, the delivery and distribution module is connected to the analysis and control module, and the equipment processing module is connected to the delivery and distribution module;

[0007] The data monitoring module is used to complete the gas quality monitoring of the designated area of ​​the park according to the actual functional area division of the park, and then obtain the gas quality monitoring data in the corresponding area;

[0008] The capture module is used to capture and collect gases exceeding the standard in a designated area;

[0009] The analysis and control module is used to analyze and process the gas data of each area collected by the data monitoring module, classify and organize the processing results, and issue corresponding control instructions based on the processing results;

[0010] The transmission and distribution module distributes and transmits the excessive gas collected by the capture module based on the analysis result of the gas data in the designated area by the analysis and control module;

[0011] The equipment processing module is used to process the transmitted gas exceeding the standard.

[0012] Wherein, the data monitoring module includes a monitoring submodule and a position marking submodule, the monitoring submodule is connected to the position marking submodule; the position marking submodule is connected to the analysis and control module;

[0013] The monitoring submodule is used to complete real-time gas quality monitoring of the corresponding area of ​​the park;

[0014] The position marking submodule performs corresponding position marking on the gas quality monitoring data of the monitoring submodule based on the division of the actual functional areas of the park.

[0015] Wherein, the capture module includes an absorption submodule and a regulation submodule, the absorption submodule is connected to the regulation submodule; the regulation submodule is connected to the analysis and control module;

[0016] The absorption submodule is used to absorb the excessive gases in the designated area;

[0017] The regulating submodule regulates the device power collected by the absorbing submodule based on the issued regulating instruction.

[0018] The analysis and control module includes a parameter analysis submodule, a result collating submodule, and a feedback control submodule. The parameter analysis submodule is connected to the data monitoring module and to the result collating submodule; the feedback control submodule is connected to the result collating submodule and to the capture module; and the result collating submodule is connected to the delivery and distribution module.

[0019] The parameter analysis submodule is used to analyze the monitoring data of the data monitoring module;

[0020] The result collating submodule categorizes and sorts the analysis results of the parameter analysis submodule based on the location mark and result type of the monitoring data;

[0021] The feedback control submodule generates a control instruction corresponding to a designated area based on the result data sorted by the result sorting submodule and transmits the control instruction to the capture module of the designated area.

[0022] The delivery distribution module includes a processing and delivery submodule, an adjustment and processing submodule, and a solution confirmation submodule. The processing and delivery submodule is connected to the analysis and control module and to the equipment processing module; the adjustment and processing submodule is connected to the analysis and control module; and the solution confirmation submodule is connected to the adjustment and processing submodule.

[0023] The processing and transport submodule directly transmits the excessive gas in the corresponding area to the equipment processing module for processing based on the result data classified and sorted by the analysis and control module;

[0024] The adjustment processing submodule generates a plan for transmitting excessive gases between corresponding areas based on the result data classified and sorted by the analysis and control module;

[0025] The scheme confirmation submodule is used to simulate the transmission scheme generated by the adjustment processing submodule and generate a final transmission scheme according to the operation result.

[0026] The adjustment processing submodule includes a transfer processing determination unit, a processing area determination unit, and a distribution unit. The transfer processing determination unit is connected to the analysis and control module and to the distribution unit; the processing area determination unit is connected to the analysis and control module and to the distribution unit; and the distribution unit is connected to the solution confirmation submodule.

[0027] The transfer processing determination unit determines a transfer processing area that needs to be transferred for excessive gas based on the result data classified and sorted by the analysis and control module;

[0028] The processing area determination unit determines a processing area capable of processing the excessive gas based on the result data classified and sorted by the analysis and control module;

[0029] The distribution unit generates a transmission plan between the transfer processing area and the processing area based on the determined transfer processing area and the processing area.

[0030] The plan confirmation submodule includes a distribution plan import unit, a simulation operation unit, and a plan implementation unit. The distribution plan import unit is connected to the adjustment processing submodule; the simulation operation unit is connected to the distribution plan import unit; and the plan implementation unit is connected to the simulation operation unit.

[0031] The distribution plan importing unit is used to import the generated transmission plan;

[0032] The simulation operation unit performs simulation operation based on the pre-established digital twin model of the processing area and the imported transmission scheme;

[0033] The scheme implementation unit determines a final transmission scheme based on analysis and processing of the operation data in the simulation operation unit, and implements the final transmission scheme.

[0034] The net zero carbon power supply system and method for a park of the present invention uses the data monitoring module to perform real-time gas quality monitoring of different functional areas within the park, and then analyzes the gas quality data collected by the data monitoring module according to the analysis and control module. After monitoring that the carbon dioxide content in the gas quality data in the corresponding area exceeds the standard, the analysis and control module will issue corresponding regulation and control to the capture module in the corresponding area, so that the capture module can absorb and capture the excessive gas in the designated area. At the same time, the transportation and distribution module will also formulate transportation plans for the excessive gas in various areas according to the analysis results of the analysis and control module, so that the excessive gas generated in different areas can be transmitted and processed accordingly according to the equipment processing module set in conjunction with the corresponding transportation plan. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0036] Figure 1 It is a structural schematic diagram of the park net zero carbon power supply system of the present invention.

[0037] Figure 2 It is a structural diagram of the data monitoring module of the present invention.

[0038] Figure 3 It is a structural diagram of the capture module of the present invention.

[0039] Figure 4 It is a structural diagram of the analysis and control module of the present invention.

[0040] Figure 5 It is a structural schematic diagram of the delivery and distribution module of the present invention.

[0041] Figure 6 It is a structural diagram of the adjustment processing submodule of the present invention.

[0042] Figure 7 It is a structural diagram of the solution confirmation submodule of the present invention.

[0043] Figure 8 It is a flow chart of the net zero carbon power supply method for a park of the present invention.

[0044] In the figure: 1-data monitoring module, 2-capture module, 3-analysis and control module, 4-transportation and distribution module, 5-equipment processing module, 11-monitoring sub-module, 12-position marking sub-module, 21-absorption sub-module, 22-regulation sub-module, 31-parameter analysis sub-module, 32-result collation sub-module, 33-feedback control sub-module, 41-processing and transportation sub-module, 42-adjustment processing sub-module, 43-scheme confirmation sub-module, 421-transfer processing determination unit, 422-processing area determination unit, 423-distribution unit, 431-distribution plan import unit, 432-simulation operation unit, 433-scheme implementation unit. DETAILED DESCRIPTION

[0045] The following describes embodiments of the present invention in detail, examples of which are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and are not to be construed as limiting the present invention.

[0046] In the description of the present invention, it should be understood that “plurality” means two or more than two, unless otherwise clearly defined.

[0047] See also Figures 1 to 7The present invention provides a park net zero carbon power supply system and method, including a data monitoring module 1, a capture module 2, an analysis and control module 3, a delivery and distribution module 4 and an equipment processing module 5, wherein the data monitoring module 1 is connected to the analysis and control module 3, the analysis and control module 3 is connected to the capture module 2, the delivery and distribution module 4 is connected to the analysis and control module 3, and the equipment processing module 5 is connected to the delivery and distribution module 4;

[0048] The data monitoring module 1 is used to complete the gas quality monitoring of the designated area of ​​the park according to the actual functional area division of the park, and then obtain the gas quality monitoring data in the corresponding area;

[0049] The capture module 2 is used to capture and collect gases exceeding the standard in a designated area;

[0050] The analysis and control module 3 is used to analyze and process the gas data of each area collected by the data monitoring module 1, classify and organize the processing results, and issue corresponding control instructions based on the processing results;

[0051] The transmission and distribution module 4 distributes and transmits the excessive gas collected by the capture module 2 based on the analysis result of the gas data in the designated area by the analysis and control module 3;

[0052] The equipment processing module 5 is used to process the transmitted gas exceeding the standard.

[0053] Specifically, the data monitoring module 1 is used to perform real-time gas quality monitoring on different functional areas in the park, and then the gas quality data collected by the data monitoring module 1 is analyzed according to the analysis and control module 3. After monitoring that the carbon dioxide content in the gas quality data in the corresponding area exceeds the standard, the analysis and control module 3 will issue corresponding regulation to the capture module 2 in the corresponding area, so that the capture module 2 can absorb and capture the excessive gas in the designated area. At the same time, the transportation and distribution module 4 will also formulate transportation plans for excessive gas in various areas according to the analysis results of the analysis and control module 3, so that the equipment processing module 5 set in conjunction with the corresponding transportation plan can be used to transmit and process the excessive gas generated in different areas accordingly.

[0054] Further, see Figure 2 The data monitoring module 1 includes a monitoring submodule 11 and a position marking submodule 12, wherein the monitoring submodule 11 is connected to the position marking submodule 12; the position marking submodule 12 is connected to the analysis and control module 3;

[0055] The monitoring submodule 11 is used to complete real-time gas quality monitoring of the corresponding area of ​​the park;

[0056] The position marking submodule 12 performs corresponding position marking on the gas quality monitoring data of the monitoring submodule 11 based on the division of the actual functional areas of the park.

[0057] In this embodiment, the position marking submodule 12 needs to be divided in advance according to the actual functional areas of the park. When dividing the actual functional areas of the park, the staff needs to divide them according to the greening degree and actual carbon emissions of the corresponding areas of the park. When dividing by the greening degree, it is mainly classified according to the greening coverage range in the area, and then the area with a greening coverage higher than a certain value is divided into an internal transfer area. Then, when dividing according to the actual carbon emissions, it is necessary to divide the area with continuous high carbon emissions into a direct transmission area, and divide the area with carbon emissions or discontinuous carbon emissions into a transfer area. The monitoring submodule 11 is provided in each of the above areas. When the monitoring submodule 11 performs air environment monitoring inside the corresponding area, the position marking submodule 12 can mark the monitoring data according to the divided area type, so that the subsequent corresponding module can complete the processing of the corresponding monitoring data according to the marked position information.

[0058] Further, see Figure 3 , the capture module 2 includes an absorption submodule 21 and a regulation submodule 22, the absorption submodule 21 is connected to the regulation submodule 22; the regulation submodule 22 is connected to the analysis and control module 3;

[0059] The absorption submodule 21 is used to absorb the excessive gases in the designated area;

[0060] The regulating submodule 22 regulates the device power collected by the absorbing submodule 21 based on the issued regulating instruction.

[0061] In this embodiment, the absorption submodule 21 is mainly used to absorb and capture unqualified gases in a designated area. Generally, the monitoring submodule 11 and the absorption submodule 21 need to be installed in each area of ​​the park to capture gases exceeding the standard generated in the park. However, since there are areas in the park where carbon dioxide levels are constantly maintained at normal levels, the absorption submodule 21 may not be installed in areas where carbon dioxide levels do not fluctuate significantly.

[0062] The regulating submodule 22 is mainly used to adjust the absorption power of the absorbing submodule 21. When it is monitored that the carbon dioxide exceeds the standard seriously, the absorbing submodule 21 needs to improve the corresponding capture and absorption efficiency to avoid excessive emission of excessive gases. When the monitored data shows that the carbon dioxide exceeds the standard clearly, the absorption efficiency of the absorbing submodule 21 in the corresponding area can be reduced, and even the absorbing submodule 21 in the corresponding area can be shut down when the monitored data does not exceed the standard, so that it can be flexibly adjusted according to the carbon dioxide exceeding the standard within the area, avoiding the absorption submodule 21 from continuing to work when gas capture is not needed.

[0063] Further, see Figure 4 The analysis and control module 3 includes a parameter analysis submodule 31, a result arrangement submodule 32, and a feedback control submodule 33. The parameter analysis submodule 31 is connected to the data monitoring module 1 and to the result arrangement submodule 32; the feedback control submodule 33 is connected to the result arrangement submodule 32 and to the capture module 2; the result arrangement submodule 32 is connected to the delivery and distribution module 4;

[0064] The parameter analysis submodule 31 is used to analyze the monitoring data of the data monitoring module 1;

[0065] The result collating submodule 32 categorizes and sorts the analysis results of the parameter analyzing submodule 31 based on the location mark and result type of the monitoring data;

[0066] The feedback control submodule 33 generates a control instruction corresponding to the designated area based on the result data sorted by the result sorting submodule 32 and transmits the control instruction to the capture module 2 of the designated area.

[0067] In this embodiment, the parameter analysis submodule 31 is mainly used to collect the gas quality parameters monitored by the monitoring submodule 11, and then compare the collected gas quality parameters with the set normal parameter range. In this solution, carbon dioxide emissions are mainly considered, so it is mainly used to analyze and judge the carbon dioxide content. In actual design, the operator can also set multiple parameter ranges according to the actual emission situation, so that the emitted non-compliant gases can be captured and processed more comprehensively. The result sorting submodule 32 classifies and sorts the final processing results based on the monitoring results analyzed by the parameter analysis submodule 31 in combination with the position information marked by the corresponding gas quality parameters. When sorting, it is mainly classified according to the area type and whether the gas quality is compliant. The classification of the area type in the data results corresponds to the area type marking performed by the position marking submodule 12, and the classification of gas quality is based on whether the gas quality of the corresponding area meets the standard. If the carbon dioxide content in the gas does not meet the set standard, it is an excessive gas, and if it meets the standard, it is a normal gas. After that, the feedback control submodule 33 can issue corresponding control instructions to the capture module 2 of the specified area according to the classification of gas quality, so that the gas in the specified area can be absorbed and captured according to the monitoring results through the regulation submodule 22 in cooperation with the absorption submodule 21.

[0068] Further, see Figure 5 The delivery distribution module 4 includes a processing and delivery submodule 41, an adjustment and processing submodule 42, and a solution confirmation submodule 43. The processing and delivery submodule 41 is connected to the analysis and control module 3 and the device processing module 5; the adjustment and processing submodule 42 is connected to the analysis and control module 3; and the solution confirmation submodule 43 is connected to the adjustment and processing submodule 42.

[0069] The processing and transporting submodule 41 directly transmits the excessive gases in the corresponding area to the equipment processing module 5 for processing based on the result data classified and sorted by the analysis and control module 3;

[0070] The adjustment processing submodule 42 generates a plan for transmitting excessive gases between corresponding areas based on the result data classified and sorted by the analysis and control module 3;

[0071] The scheme confirmation submodule 43 is used to simulate the transmission scheme generated by the adjustment processing submodule 42 and generate a final transmission scheme according to the simulation result.

[0072] Further, see Figure 6The adjustment processing submodule 42 includes a transfer processing determination unit 421, a processing area determination unit 422, and a distribution unit 423. The transfer processing determination unit 421 is connected to the analysis and control module 3 and is also connected to the distribution unit 423; the processing area determination unit 422 is connected to the analysis and control module 3 and is also connected to the distribution unit 423; the distribution unit 423 is connected to the solution confirmation submodule 43;

[0073] The transfer determination unit 421 determines a transfer area that needs to be treated by transferring the excessive gas based on the result data classified and sorted by the analysis and control module 3;

[0074] The processing area determination unit 422 determines a processing area capable of processing the excessive gas based on the result data classified and sorted by the analysis and control module 3;

[0075] The distribution unit 423 generates a transmission plan between the transfer processing area and the processing area based on the determined transfer processing area and the processing area.

[0076] Further, see Figure 7 The plan confirmation submodule 43 includes a distribution plan importing unit 431, a simulation operation unit 432 and a plan implementation unit 433. The distribution plan importing unit 431 is connected to the adjustment processing submodule 42; the simulation operation unit 432 is connected to the distribution plan importing unit 431; and the plan implementation unit 433 is connected to the simulation operation unit 432.

[0077] The distribution plan importing unit 431 is used to import the generated transmission plan;

[0078] The simulation operation unit 432 performs simulation operation based on the pre-established digital twin model of the processing area and the imported transmission scheme;

[0079] The solution implementation unit 433 determines a final transmission solution based on the analysis and processing of the operation data in the simulation operation unit 432, and implements the final transmission solution.

[0080] In this embodiment, the above solution mentioned that the result sorting submodule 32 divides the area within the park into a direct transmission area and a transfer area based on the actual carbon emission situation. The gas in the direct transmission area can be directly transported to the equipment processing module 5 for processing through the processing and transportation submodule 41 in conjunction with the capture module 2 and the set transmission line;

[0081] The transfer processing determination unit 421 in the adjustment processing submodule 42 sets the set transfer area as the transfer processing area according to the classification of the actual carbon emission situation. The processing area determination unit 422 determines the processing area by combining the inner transfer area with a higher degree of green plant coverage in the park marked by the position mark with the actual carbon emission situation. The set processing area needs to meet the setting conditions of the inner transfer area and also needs to meet the emission conditions of low carbon emissions. The setting standard for low carbon emissions can be determined according to actual conditions.

[0082] Since the carbon emissions of the set transfer processing area are within a certain controllable range, and since the set inner transfer area has a certain degree of green plant coverage, the excess carbon dioxide can be processed by the green plants in the area. In this way, the distribution unit 423 can set the transmission plan according to the set transfer processing area and the processing area, so as to transport the excess gas in the transfer processing area to the corresponding processing area, and then process the excess carbon dioxide gas through the green plants in the processing area;

[0083] The distribution plan import unit 431 is used to import the distribution plan set by the distribution unit 423 into the simulation operation unit 432 for simulation operation. The simulation operation unit 432 is provided with a digital twin model corresponding to all processing areas. Digital twin refers to the precise simulation of equipment, systems or processes in the physical world by digital means to create a virtual model that is completely corresponding to it. As an integrated multi-physical, multi-scale, hyper-realistic, dynamic probabilistic simulation model, it can be used to simulate, diagnose, predict and control the realization process of physical entities in the real environment. The set digital twin model mainly simulates the flow of people and plant ecology in the processing area, and then determines the carbon dioxide treatment situation in the processing area, so as to better predict and simulate the actual treatment situation in the processing area. When the set processing area digital twin model receives the carbon dioxide exceeding the standard gas imported from the corresponding processing area, if the simulation results show that the corresponding processing area can maintain normal carbon dioxide absorption and emission for a long time, then the corresponding plan can be implemented. The scheme implementation unit 433 implements it. If the normal treatment of carbon dioxide in the treatment area cannot be maintained stably for a long time, the scheme implementation unit 433 will not transmit it according to the set distribution scheme, but will directly transmit the excessive gas in the corresponding transfer treatment area to the equipment processing module 5 for treatment. It should be noted that since there may be multiple transfer treatment areas and treatment areas in actual classification, the distribution unit 423 can pair multiple transfer treatment areas and treatment areas one by one when designing the transmission scheme, and then simulate them one by one through the simulation operation unit 432, and finally determine the final transmission scheme based on the number of successful scheme pairings, so that the excessive carbon dioxide gas in the park can be internally processed to reduce the workload of the corresponding treatment equipment.

[0084] See also Figure 8 A Beidou data transmission method, using the park net zero carbon power supply system and method, includes the following steps:

[0085] S1: Real-time gas quality monitoring of different functional areas in the park is carried out through data monitoring module 1;

[0086] Specifically, the data monitoring module 1 includes a monitoring submodule 11 and a position marking submodule 12. The position marking submodule 12 needs to be divided in advance according to the actual functional areas of the park. When dividing the actual functional areas of the park, the staff needs to divide them according to the greening degree and actual carbon emissions of the corresponding areas of the park. When dividing by the greening degree, it is mainly classified according to the greening coverage range in the area, and then the area with a greening coverage degree higher than a certain value is divided into an internal transfer area. Then, when dividing according to the actual carbon emissions, it is necessary to divide the area with continuous high carbon emissions into a direct transmission area, and divide the area with carbon emissions or discontinuous carbon emissions into a transfer area. The monitoring submodule 11 is set in each of the above areas. When the monitoring submodule 11 performs air environment monitoring inside the corresponding area, the position marking submodule 12 can mark the monitoring data according to the divided area type, so that the subsequent corresponding module can complete the processing of the corresponding monitoring data according to the marked position information.

[0087] S2: Analyzing the gas quality data collected by the data monitoring module 1 according to the analysis control module 3;

[0088] Specifically, the analysis and control module 3 includes a parameter analysis submodule 31, a result collation submodule 32 and a feedback control submodule 33. The parameter analysis submodule 31 is mainly used to collect the gas quality parameters monitored by the monitoring submodule 11, and then compare the collected gas quality parameters with the set normal parameter range. In this solution, carbon dioxide emissions are mainly considered, so it is mainly used to analyze and judge the carbon dioxide content. In actual design, the operator can also set multiple parameter ranges according to the actual emission situation, so that the emitted non-compliant gases can be captured more comprehensively. The result collation submodule 32 is based on the monitoring results analyzed by the parameter analysis submodule 31 in combination with the corresponding gas quality parameters. The final processing results are classified and sorted according to the position information marked by the number. When sorting, the classification is mainly based on the area type and whether the gas quality is compliant. The classification of the area type in the data result corresponds to the area type marking performed by the position marking submodule 12, and the classification of the gas quality is based on whether the gas quality of the corresponding area meets the standard. If the carbon dioxide content in the gas does not meet the set standard, it is an excessive gas, and if it meets the standard, it is a normal gas. After that, the feedback control submodule 33 can issue corresponding control instructions to the capture module 2 of the specified area according to the classification of the gas quality, so that the capture module 2 can absorb and capture the gas in the specified area according to the monitoring results.

[0089] S3: Based on the analysis results of the data monitoring module 1, the analysis control module 3 issues corresponding control instructions to the capture module 2 in the corresponding area, and the capture module 2 set in the area completes the absorption and capture of the excessive gas;

[0090] Specifically, the capture module 2 includes an absorption submodule 21 and a control submodule 22. The absorption submodule 21 is mainly used to complete the absorption and capture of unqualified gases in a specified area. Generally, the monitoring submodule 11 and the absorption submodule 21 need to be installed in each area of ​​the park to facilitate the capture of excessive gases generated in the park. However, since there are areas in the park where carbon dioxide levels are constantly maintained at normal levels, the absorption submodule 21 may not be installed in areas where carbon dioxide levels do not fluctuate significantly.

[0091] The regulating submodule 22 is mainly used to adjust the absorption power of the absorbing submodule 21. When it is monitored that the carbon dioxide exceeds the standard seriously, the absorbing submodule 21 needs to improve the corresponding capture and absorption efficiency to avoid excessive emission of excessive gases. When the monitored data shows that the carbon dioxide exceeds the standard clearly, the absorption efficiency of the absorbing submodule 21 in the corresponding area can be reduced, and even the absorbing submodule 21 in the corresponding area can be shut down when the monitored data does not exceed the standard, so that it can be flexibly adjusted according to the carbon dioxide exceeding the standard within the area, avoiding the absorption submodule 21 from continuing to work when gas capture is not needed.

[0092] S4: The delivery distribution module 4 formulates a delivery plan for the excessive gases in various areas according to the analysis results of the analysis and control module 3 .

[0093] S5: Based on the delivery plan specified by the delivery distribution module 4, the equipment processing module 5 is coordinated to correspondingly transmit and process the excessive gases generated in different areas.

[0094] Specifically, the transportation and distribution module 4 includes a processing and transportation submodule 41, an adjustment and processing submodule 42, and a scheme confirmation submodule 43. The adjustment and processing submodule 42 includes a transfer processing determination unit 421, a processing area determination unit 422, and a distribution unit 423. The scheme confirmation submodule 43 includes a distribution scheme import unit 431, a simulation operation unit 432, and a scheme implementation unit 433. The result collation submodule 32 divides the area within the park into a direct transmission area and a transfer area based on the actual carbon emission situation. The gas in the direct transmission area can be directly transported to the equipment processing module 5 for processing through the processing and transportation submodule 41, the capture module 2, and the set transmission line;

[0095] The transfer processing determination unit 421 in the adjustment processing submodule 42 sets the set transfer area as the transfer processing area according to the classification of the actual carbon emission situation. The processing area determination unit 422 determines the processing area by combining the inner transfer area with a higher degree of green plant coverage in the park marked by the position mark with the actual carbon emission situation. The set processing area needs to meet the setting conditions of the inner transfer area and also needs to meet the emission conditions of low carbon emissions. The setting standard for low carbon emissions can be determined according to actual conditions.

[0096] Since the carbon emissions of the set transfer processing area are within a certain controllable range, and since the set inner transfer area has a certain degree of green plant coverage, the excess carbon dioxide can be processed by the green plants in the area. In this way, the distribution unit 423 can set the transmission plan according to the set transfer processing area and the processing area, so as to transport the excess gas in the transfer processing area to the corresponding processing area, and then process the excess carbon dioxide gas through the green plants in the processing area;

[0097] The distribution plan import unit 431 is used to import the distribution plan set by the distribution unit 423 into the simulation operation unit 432 for simulation operation. The simulation operation unit 432 is provided with a digital twin model corresponding to all processing areas. Digital twin refers to the precise simulation of equipment, systems or processes in the physical world by digital means to create a virtual model that is completely corresponding to it. As an integrated multi-physical, multi-scale, hyper-realistic, dynamic probabilistic simulation model, it can be used to simulate, diagnose, predict and control the realization process of physical entities in the real environment. The set digital twin model mainly simulates the flow of people and plant ecology in the processing area, and then determines the carbon dioxide treatment situation in the processing area, so as to better predict and simulate the actual treatment situation in the processing area. When the set processing area digital twin model receives the carbon dioxide exceeding the standard gas imported from the corresponding processing area, if the simulation results show that the corresponding processing area can maintain normal carbon dioxide absorption and emission for a long time, then the corresponding plan can be implemented. The scheme implementation unit 433 implements it. If the normal treatment of carbon dioxide in the treatment area cannot be maintained stably for a long time, the scheme implementation unit 433 will not transmit it according to the set distribution scheme, but will directly transmit the excessive gas in the corresponding transfer treatment area to the equipment processing module 5 for treatment. It should be noted that since there may be multiple transfer treatment areas and treatment areas in actual classification, the distribution unit 423 can pair multiple transfer treatment areas and treatment areas one by one when designing the transmission scheme, and then simulate them one by one through the simulation operation unit 432, and finally determine the final transmission scheme based on the number of successful scheme pairings, so that the excessive carbon dioxide gas in the park can be internally processed to reduce the workload of the corresponding treatment equipment.

[0098] The above disclosure is only a preferred embodiment of the present invention, and certainly cannot be used to limit the scope of the rights of the present invention. Ordinary technicians in this field can understand that all or part of the processes of the above embodiment and equivalent changes made in accordance with the claims of the present invention are still within the scope of the invention.

Claims

1. A net zero carbon power supply system for a park, characterized by: It includes a data monitoring module, a capture module, an analysis and control module, a delivery and distribution module and an equipment processing module, wherein the data monitoring module is connected to the analysis and control module, the analysis and control module is connected to the capture module, the delivery and distribution module is connected to the analysis and control module, and the equipment processing module is connected to the delivery and distribution module; The data monitoring module is used to monitor the gas quality of designated areas in the park based on the actual functional areas of the park, including: dividing areas with green coverage above a certain value into internal transfer areas, dividing areas with continuous high carbon emissions into direct transfer areas, and dividing areas with existing or discontinuous carbon emissions into transfer areas, thereby completing gas quality monitoring in designated areas of the park and obtaining gas quality monitoring data in the corresponding areas; The capture module is used to capture and collect gases exceeding the standard in a designated area; The analysis and control module is used to analyze and process the gas data of each area collected by the data monitoring module, classify and organize the processing results, and issue corresponding control instructions based on the processing results; The delivery and distribution module distributes and transmits the excessive gas collected by the capture module based on the analysis results of the gas data in the designated area by the analysis and control module. The delivery and distribution module includes a processing and delivery submodule, an adjustment and processing submodule and a scheme confirmation submodule. The adjustment and processing submodule includes a transfer processing determination unit, a processing area determination unit and a distribution unit. The gas in the direct transmission area is directly delivered to the equipment processing module for processing through the processing and delivery submodule in cooperation with the capture module and the set transmission line. The transfer processing determination unit in the adjustment and processing submodule sets the set transfer area as the transfer processing area according to the classification of the actual carbon emission situation. The processing area determination unit determines the processing area through the internal transfer area combined with the actual carbon emission situation. The set transfer processing area is within a certain controllable range because the carbon emissions of the set internal transfer area are also covered by a certain degree of green plants, so the excess carbon dioxide is processed by the green plants in the area. The equipment processing module is used to process the transmitted gas exceeding the standard.

2. The park net zero carbon power supply system according to claim 1, characterized in that: The data monitoring module includes a monitoring submodule and a position marking submodule, wherein the monitoring submodule is connected to the position marking submodule; the position marking submodule is connected to the analysis and control module; The monitoring submodule is used to complete real-time gas quality monitoring of the corresponding area of ​​the park; The position marking submodule performs corresponding position marking on the gas quality monitoring data of the monitoring submodule based on the division of the actual functional areas of the park.

3. The park net zero carbon power supply system according to claim 2, characterized in that: The capture module includes an absorption submodule and a regulation submodule, wherein the absorption submodule is connected to the regulation submodule; the regulation submodule is connected to the analysis and control module; The absorption submodule is used to absorb the excessive gases in the designated area; The regulating submodule regulates the device power collected by the absorbing submodule based on the issued regulating instruction.

4. The park net zero carbon power supply system according to claim 3, characterized in that: The analysis and control module includes a parameter analysis submodule, a result collating submodule and a feedback control submodule. The parameter analysis submodule is connected to the data monitoring module and to the result collating submodule; the feedback control submodule is connected to the result collating submodule and to the capture module; the result collating submodule is connected to the delivery and distribution module; The parameter analysis submodule is used to analyze the monitoring data of the data monitoring module; The result collating submodule categorizes and sorts the analysis results of the parameter analysis submodule based on the location mark and result type of the monitoring data; The feedback control submodule generates a control instruction corresponding to a designated area based on the result data sorted by the result sorting submodule and transmits the control instruction to the capture module of the designated area.

5. The park net zero carbon power supply system according to claim 4, characterized in that: The processing and delivery submodule is connected to the analysis and control module and to the equipment processing module; the adjustment processing submodule is connected to the analysis and control module; the solution confirmation submodule is connected to the adjustment processing submodule; The processing and transport submodule directly transmits the excessive gas in the corresponding area to the equipment processing module for processing based on the result data classified and sorted by the analysis and control module; The adjustment processing submodule generates a plan for transmitting excessive gases between corresponding areas based on the result data classified and sorted by the analysis and control module; The scheme confirmation submodule is used to simulate the transmission scheme generated by the adjustment processing submodule and generate a final transmission scheme according to the operation result.

6. The park net zero carbon power supply system according to claim 5, characterized in that: The transfer processing determination unit is connected to the analysis and control module and to the distribution unit; the processing area determination unit is connected to the analysis and control module and to the distribution unit; the distribution unit is connected to the solution confirmation submodule; The transfer processing determination unit determines a transfer processing area that needs to be transferred for excessive gas based on the result data classified and sorted by the analysis and control module; The processing area determination unit determines a processing area capable of processing the excessive gas based on the result data classified and sorted by the analysis and control module; The distribution unit generates a transmission plan between the transfer processing area and the processing area based on the determined transfer processing area and the processing area.

7. The park net zero carbon power supply system according to claim 6, characterized in that: The plan confirmation submodule includes a distribution plan import unit, a simulation operation unit and a plan implementation unit. The distribution plan import unit is connected to the adjustment processing submodule; the simulation operation unit is connected to the distribution plan import unit; and the plan implementation unit is connected to the simulation operation unit. The distribution plan importing unit is used to import the generated transmission plan; The simulation operation unit performs simulation operation based on the pre-established digital twin model of the processing area and the imported transmission scheme; The scheme implementation unit determines a final transmission scheme based on analysis and processing of the operation data in the simulation operation unit, and implements the final transmission scheme.

8. A net-zero carbon power supply method for a park, using the net-zero carbon power supply system for a park as claimed in claim 1, characterized in that: The following steps are included: Real-time gas quality monitoring of different functional areas in the park is carried out through the data monitoring module; Analyzing the gas quality data collected by the data monitoring module according to the analysis control module; Based on the analysis results of the data monitoring module, the analysis control module issues corresponding control instructions to the capture modules in the corresponding areas, and the capture modules set in the areas complete the absorption and capture of the excessive gases; The delivery distribution module formulates a delivery plan for the excessive gases in various areas according to the analysis results of the analysis and control module; Based on the delivery plan specified by the delivery distribution module, the equipment processing module is coordinated to carry out corresponding transmission and processing of the excessive gases generated in different areas.

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