Production control method and system based on carbon assets

Abstract

The present invention provides a production control method and system based on carbon assets. The server divides and processes enterprise equipment according to the carbon usage attributes of the enterprise equipment and adds corresponding carbon usage labels, and obtains corresponding carbon usage sets based on the division of carbon usage labels; the server determines the carbon source of each enterprise equipment in the carbon usage set with a positive carbon usage label within a first preset time period and the corresponding carbon usage calculation time period based on the working status of the enterprise equipment in the energy supply topology diagram of the enterprise energy supply line; obtains enterprise equipment in the carbon usage set with a reverse carbon usage label, divides and processes the first preset time period based on the working status and working time of the enterprise equipment in the first preset time period, and obtains different carbon saving calculation time periods; obtains comprehensive carbon assets based on the carbon usage calculation time periods, carbon usage data, carbon saving calculation time periods, and carbon saving data of all enterprise equipment, and performs production control based on the comprehensive carbon assets.

Description

Technical Field

[0001] The present invention relates to data processing technology, and in particular to a production control method and system based on carbon assets. Background Art

[0002] Carbon assets refer to the emission allowances, emission reduction credits, and related activities generated under mandatory or voluntary carbon emissions trading mechanisms that can directly or indirectly impact an organization's greenhouse gas emissions. Enterprises can reduce their carbon emissions through energy-saving and technological improvements, thereby increasing the amount of emission allowances available for market trading. Enterprises can also maintain internal carbon emissions statistics to facilitate energy-saving adjustments and reduce carbon emissions.

[0003] At present, when enterprises calculate emissions, they usually make a unified calculation based on the energy consumed, and are unable to make detailed calculations based on the types of energy consumed by different equipment, resulting in certain errors in the calculated results.

[0004] Therefore, how to make detailed calculations based on the types of energy used by the equipment in the enterprise to obtain accurate carbon asset data, thereby generating corresponding adjustment equipment to adjust and control the enterprise equipment in the enterprise to achieve energy-saving production, has become an urgent problem that needs to be solved. Summary of the Invention

[0005] The present invention provides a production control method and system based on carbon assets, which can perform refined calculations according to the types of energy used by equipment in the enterprise, obtain accurate carbon asset data, and thus generate corresponding adjustment equipment to adjust and control the enterprise equipment in the enterprise to achieve energy-saving production.

[0006] A first aspect of the present invention provides a carbon asset-based production management and control method, comprising:

[0007] S1. The server divides and processes enterprise equipment according to the carbon usage attributes of the enterprise equipment and adds corresponding carbon usage labels. The carbon usage labels include forward carbon usage labels and reverse carbon usage labels. Based on the carbon usage labels, corresponding carbon usage sets are obtained.

[0008] S2. The server determines the carbon source of each enterprise device in the carbon consumption set with positive carbon labels within a first preset time period, and the corresponding carbon consumption calculation time period, based on the working status of the enterprise devices in the energy supply topology diagram of the enterprise energy supply line;

[0009] S3. Obtain enterprise equipment in a carbon consumption set with reverse carbon consumption labels, and divide the first preset time period into different carbon saving calculation time periods based on the working status and working hours of the enterprise equipment within the first preset time period;

[0010] S4. Comprehensively calculate the carbon assets based on the carbon calculation time period, carbon usage data, carbon saving calculation time period, and carbon saving data of all enterprise equipment, and perform production control based on the comprehensive carbon assets.

[0011] Optionally, in a possible implementation of the first aspect, S1 specifically includes:

[0012] S11, obtaining the energy consumption demand attributes and energy consumption output attributes corresponding to the enterprise equipment during production. If it is determined that the energy consumption demand attribute includes electricity and the energy consumption output attribute is non-electricity, a positive carbon label is added to the enterprise equipment;

[0013] S12, if the energy consumption output attribute is electricity, then add a reverse carbon label to the enterprise equipment classification process;

[0014] S13, classify enterprise equipment with positive carbon label into the carbon use set with positive carbon label;

[0015] S14, classify the enterprise equipment with reverse carbon usage labels into the carbon usage set with reverse carbon usage labels.

[0016] Optionally, in a possible implementation of the first aspect, S2 specifically includes:

[0017] S21, the server obtains an energy supply topology diagram of the enterprise's energy supply line, wherein the energy supply topology diagram includes multiple energy supply sources, and the energy supply sources include at least an electric energy supply source;

[0018] S22, classifying the electric energy supply sources to obtain carbon-saving energy supply, composite energy supply, and carbon-using energy supply;

[0019] S23, obtain the working status of each electric energy source within the first preset time period, and determine the carbon source of each enterprise equipment in the carbon consumption set with positive carbon labels within the first preset time period, and the corresponding carbon consumption calculation time period based on the working status and the connection status of the energy supply lines in the energy supply topology diagram.

[0020] Optionally, in a possible implementation of the first aspect, S23 specifically includes:

[0021] The server takes each electric energy supply source as a target source entity and determines an energy supply time period during which the target source entity supplies energy within a first preset time period;

[0022] Based on the connection status of the target source entity in the energy supply topology diagram during the energy supply time period, determine the enterprise equipment connected to the target source entity in the carbon consumption set of the positive carbon consumption label;

[0023] The target source entity is used as the carbon source of the corresponding enterprise equipment and a carbon source type label is added. The energy supply time period is used as the carbon consumption calculation time period of the corresponding enterprise equipment and carbon consumption information is obtained based on the metering equipment.

[0024] Optionally, in a possible implementation of the first aspect, determining, based on the connection status of the target source entity in the energy supply topology diagram during the energy supply time period, enterprise equipment connected to the target source entity in the carbon usage set of the forward carbon usage tag includes:

[0025] Count the energy supply time periods of each target source entity corresponding to each enterprise equipment and compare them to determine the overlapping target source entities corresponding to the overlapping energy supply time periods;

[0026] Extracting the overlapping energy supply time period and determining multiple energy supply time periods in which the overlapping energy supply time period is located as energy supply time periods to be divided;

[0027] The to-be-divided energy supply time period is divided based on the overlapping energy supply time period to obtain an updated energy supply time period.

[0028] Optionally, in a possible implementation of the first aspect, using the target source entity as the carbon source for the corresponding enterprise equipment and adding a carbon source type label, using the energy supply time period as the carbon usage calculation time period for the corresponding enterprise equipment, and obtaining carbon usage information based on a metering device includes:

[0029] The carbon source type labels include carbon-saving energy supply labels, composite energy supply labels and carbon-using energy supply labels;

[0030] If the target source's carbon source type label is a carbon-saving energy supply label or a composite energy supply label, the carbon usage information of the corresponding enterprise equipment during the carbon usage calculation period is set to a virtual calculation of 0;

[0031] If the carbon source type label of the target source entity is determined to be a carbon-based energy supply label, the carbon usage information for the carbon usage calculation period is obtained based on the metering equipment.

[0032] Optionally, in a possible implementation of the first aspect, if it is determined that the carbon source type label of the target source entity is a carbon-based energy supply label, obtaining carbon usage information for a carbon usage calculation time period based on a metering device includes:

[0033] Determine the energy supply branches corresponding to the target source entity and enterprise equipment in the energy supply topology diagram, and each energy supply branch has a preset metering device;

[0034] Obtaining metering information for a carbon calculation period based on the metering device, and determining a corresponding carbon coefficient based on a metering type corresponding to the metering information, each metering type having a preset carbon coefficient;

[0035] The carbon usage information is calculated based on the multiplication of the measurement information and the carbon coefficient.

[0036] Optionally, in a possible implementation of the first aspect, S3 specifically includes:

[0037] S31, obtaining the time during which the enterprise equipment in the carbon consumption set with the reverse carbon consumption label in the energy supply topology is in a working state, as the corresponding working time of each reverse carbon consumption enterprise equipment;

[0038] S32, dividing the first preset time period based on the working hours to obtain a different carbon saving calculation time period for each enterprise device using a reverse carbon label;

[0039] S33, determining the energy supply connection relationship corresponding to the enterprise equipment using the reverse carbon label in the energy supply topology diagram, and determining the corresponding energy supply metering equipment based on the energy supply connection relationship;

[0040] S34, based on the energy supply metering device, obtains the carbon usage information of the energy consumption input corresponding to the carbon saving calculation time period of each enterprise equipment with reverse carbon usage, and the carbon saving information of the energy consumption output, wherein the carbon saving data includes the carbon usage information and carbon saving information of the enterprise equipment with reverse carbon usage labels.

[0041] Optionally, in a possible implementation of the first aspect, step S4 includes:

[0042] S41, comprehensively calculating the carbon usage information of the enterprise equipment in the carbon usage set with positive carbon usage labels to obtain the total carbon usage value of the comprehensive carbon assets;

[0043] S42, comprehensively calculating the carbon usage information and carbon saving information of the enterprise equipment in the carbon usage set with the reverse carbon usage label to obtain the total carbon saving value of the comprehensive carbon assets;

[0044] S43, performing comprehensive processing based on the total carbon usage value and the total carbon savings value to obtain a corresponding carbon portrait coefficient, performing data processing based on the carbon portrait coefficient and the energy supply topology map, and determining a production control strategy for the energy supply topology map.

[0045] Optionally, in a possible implementation of the first aspect, performing comprehensive processing based on the total carbon usage value and the total carbon savings value to obtain a corresponding carbon portrait coefficient, performing data processing based on the carbon portrait coefficient and an energy supply topology map, and determining a production control strategy for the energy supply topology map include:

[0046] The total carbon saving value is divided by the sum of the total carbon use value and the total carbon saving value to obtain the corresponding carbon image coefficient, and the carbon image coefficient is calculated by the following formula:

[0047] ,

[0048] in, is the carbon image coefficient, is the total carbon value, is the total carbon saving value, is the portrait weight value, For the The sum of electricity consumption of corporate equipment with positive carbon labels during all carbon calculation periods, is the electric carbon coefficient, The upper limit for corporate equipment that uses electricity with a positive carbon label;

[0049] For the The sum of the electricity generated by the enterprise equipment with reverse carbon label in all carbon saving calculation periods, The upper limit for corporate equipment with reverse carbon labeling power generation capabilities;

[0050] For the The sum of electricity consumption of enterprise equipment with reverse carbon label in all carbon saving calculation periods, This is the upper limit for corporate equipment that uses electricity with a reverse carbon label.

[0051] Optionally, in a possible implementation of the first aspect, performing data processing based on the carbon portrait coefficient and the energy supply topology to determine a production control strategy for the energy supply topology includes:

[0052] If the carbon profile coefficient is lower than the preset coefficient value, the carbon usage values of the enterprise devices with positive carbon labels in the energy supply topology diagram within the first preset time period are sorted in descending order to obtain an enterprise device sequence;

[0053] An adjustment coefficient value is obtained based on the difference between the carbon image coefficient and the preset coefficient value. Based on the adjustment coefficient value and the basic adjustment value, corresponding new enterprise equipment and the numerical attributes of the new enterprise equipment are generated. The numerical attributes of the new enterprise equipment are calculated using the following formula:

[0054] ,

[0055] in, To add numerical attributes of enterprise devices, is the preset coefficient value, is a constant, is the base adjustment value;

[0056] Determining a corresponding selection quantity based on the numerical attribute, each numerical attribute interval has a preset selection quantity, and selecting balanced enterprise equipment from the enterprise equipment sequence based on the selection quantity;

[0057] In the energy supply topology diagram, a carbon source corresponding to the newly added enterprise equipment is established, and the carbon source is connected to the balanced enterprise equipment and then highlighted.

[0058] A second aspect of the present invention provides a carbon asset-based production management and control system, comprising:

[0059] A partitioning module is configured to enable the server to partition enterprise equipment according to the carbon usage attributes of the enterprise equipment and add corresponding carbon usage labels. The carbon usage labels include forward carbon usage labels and reverse carbon usage labels. Based on the carbon usage labels, corresponding carbon usage sets are obtained.

[0060] a determination module configured to enable the server to determine the carbon source of each enterprise device in the carbon consumption set with a positive carbon consumption label within a first preset time period and the corresponding carbon consumption calculation time period based on the working status of the enterprise devices in the energy supply topology diagram of the enterprise energy supply line;

[0061] An acquisition module is configured to acquire enterprise equipment within a carbon consumption set with a reverse carbon consumption label, and to segment the first preset time period based on the working status and working hours of the enterprise equipment within the first preset time period to obtain different carbon saving calculation time periods;

[0062] The calculation module is used to calculate the comprehensive carbon assets based on the carbon calculation time period, carbon usage data, carbon saving calculation time period, and carbon saving data of all enterprise equipment, and to perform production management and control based on the comprehensive carbon assets.

[0063] According to a third aspect of the present invention, a storage medium is provided, in which a computer program is stored. When the computer program is executed by a processor, it is used to implement the method of the first aspect of the present invention and various possible designs of the first aspect.

[0064] The beneficial effects of the present invention are as follows:

[0065] 1. The present invention can perform refined calculations based on the types of energy used by enterprise equipment to obtain accurate carbon asset data, thereby generating corresponding adjustment devices to adjust and control enterprise equipment in the enterprise to achieve energy-saving production. Specifically, the present invention can classify enterprise equipment according to different carbon usage attributes and add corresponding labels to obtain corresponding carbon usage sets. This allows the subsequent calculation of the enterprise's corresponding carbon usage data based on different types of carbon usage sets.

[0066] 2. The present invention can calculate carbon usage information or carbon savings information for corresponding enterprise equipment based on carbon usage sets with different labels, thereby obtaining a comprehensive total carbon usage value for the enterprise and accurately calculating the enterprise's carbon usage information, so as to facilitate adjustments to the enterprise's carbon usage situation based on the carbon usage information. Specifically, the present invention can calculate the carbon usage information for enterprise equipment with carbon usage sets that have positive carbon usage labels, and also calculate the carbon savings information for enterprise equipment with carbon usage sets that have negative carbon usage labels. Thus, calculations can be performed for all equipment based on metering equipment to obtain an accurate and comprehensive carbon usage situation for the enterprise.

[0067] 3. The present invention can manage and control an enterprise's production based on its comprehensive carbon assets, enabling it to achieve more energy-efficient carbon usage and reduce carbon content during production. Specifically, the present invention can derive a corresponding adjustment coefficient value from the carbon profile coefficient and a preset coefficient value, thereby determining the amount of new equipment to be added to adjust the enterprise's carbon usage and the corresponding number of new equipment. This allows adjustments to be made to the enterprise's carbon savings, thereby reducing the enterprise's carbon usage and ensuring that the enterprise's carbon savings meet standards. BRIEF DESCRIPTION OF THE DRAWINGS

[0068] Figure 1 This is a flow chart of a carbon asset-based production control method provided by the present invention;

[0069] Figure 2 This is a structural diagram of a carbon asset-based production management and control system provided by the present invention. DETAILED DESCRIPTION

[0070] To make the objectives, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings 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 making creative efforts shall fall within the scope of protection of the present invention.

[0071] The following specific embodiments are used to describe the technical solution of the present invention in detail. The following specific embodiments can be combined with each other, and the same or similar concepts or processes may not be described in detail in some embodiments.

[0072] like Figure 1 As shown, the present invention provides a production control method based on carbon assets, comprising:

[0073] S1. The server divides and processes enterprise equipment according to the carbon usage attributes of the enterprise equipment and adds corresponding carbon usage labels. The carbon usage labels include forward carbon usage labels and reverse carbon usage labels. Based on the carbon usage labels, corresponding carbon usage sets are obtained.

[0074] It is understandable that there are many types of equipment in an enterprise, and the energy consumed by different equipment may also be different. For example, electrical equipment consumes electricity to work and releases carbon dioxide, gas equipment consumes gas to work, and photovoltaic equipment in the enterprise generates electricity through light energy. The energy consumed and output types of different equipment may be different. Therefore, the enterprise equipment can be divided according to different carbon usage attributes and corresponding labels can be added to obtain the corresponding carbon usage set, so that the corresponding carbon usage data of the enterprise can be calculated based on different types of carbon usage sets.

[0075] Among them, enterprise equipment refers to equipment in the enterprise, such as electrical equipment, sewage treatment equipment, photovoltaic power generation equipment, etc. Carbon labels are labels for enterprise equipment, including forward carbon labels and reverse carbon labels, and carbon collections are collections of different enterprise equipment.

[0076] In some embodiments, the specific implementation of step S1 (the server classifies and processes enterprise equipment according to the carbon usage attributes of the enterprise equipment and adds corresponding carbon usage labels, wherein the carbon usage labels include forward carbon usage labels and reverse carbon usage labels, and the corresponding carbon usage sets are obtained based on the classification of the carbon usage labels) includes:

[0077] S11, obtaining the energy consumption demand attributes and energy consumption output attributes corresponding to the enterprise equipment during production. If it is determined that the energy consumption demand attribute includes electricity and the energy consumption output attribute is non-electricity, a positive carbon label is added to the enterprise equipment classification processing.

[0078] It can be understood that the energy consumption demand attribute is the attribute of the energy that enterprise equipment needs to consume when working, and the energy consumption output attribute is the attribute of the output of the enterprise equipment after working. For example, when the enterprise equipment is a blender, it needs to consume electricity when working, and consumes electricity to maintain the blending work of the blender. Therefore, during the output, it is only the stirring action of the blender, and no usable electricity will be generated. It only consumes energy and does not generate usable energy. Therefore, enterprise equipment that consumes energy but does not generate energy can be added with a positive carbon label.

[0079] Among them, the positive carbon label is a label for corporate equipment that only consumes energy and does not generate energy.

[0080] Through the above implementation, the present invention can obtain enterprise equipment with positive carbon usage labels, so as to facilitate subsequent aggregation of enterprise equipment, thereby facilitating subsequent calculation of the enterprise's carbon asset data based on the carbon usage aggregation.

[0081] S12: If the energy consumption output attribute is electricity, a reverse carbon label is added to the enterprise equipment classification process.

[0082] It is understandable that when corporate equipment consumes energy to generate electricity, the corresponding corporate equipment can be added with a reverse carbon label. For example, when the corporate equipment is a solar photovoltaic panel equipment, it can convert solar energy into electrical energy and will not produce carbon dioxide, then the solar photovoltaic panel equipment can be added with a reverse carbon label.

[0083] Among them, the reverse carbon label is a label for corporate equipment that can output electricity.

[0084] Through the above implementation, the present invention can obtain enterprise equipment with reverse carbon usage labels, so as to facilitate subsequent aggregation of enterprise equipment, thereby facilitating the subsequent calculation of accurate carbon asset data of the enterprise based on the carbon usage aggregation.

[0085] S13, classify the enterprise equipment with positive carbon usage labels into the carbon usage set with positive carbon usage labels.

[0086] It can be understood that the carbon usage collection with positive carbon usage labels is a collection of corporate equipment with positive carbon usage labels.

[0087] Through the above implementation, the present invention can obtain the carbon usage set of the positive carbon usage label, so that the carbon usage of the corresponding enterprise equipment can be calculated based on the carbon usage set of the positive carbon usage label.

[0088] S14, classify the enterprise equipment with reverse carbon usage labels into the carbon usage set with reverse carbon usage labels.

[0089] It can be understood that the reverse carbon labelled carbon usage collection is a collection of enterprise equipment with reverse carbon labelling.

[0090] S2. The server determines the carbon source of each enterprise device in the carbon consumption set with a positive carbon consumption label within a first preset time period and the corresponding carbon consumption calculation time period based on the working status of the enterprise equipment in the energy supply topology diagram of the enterprise energy supply line.

[0091] It can be understood that the energy supply line is the line for energy supply to the equipment of each enterprise in the enterprise, the energy supply topology is the topology of the energy supply line including the enterprise equipment and energy supply, the working state is the state when the equipment is performing the specified function, the first preset time period is the time period pre-set for calculating the carbon usage, which can be manually pre-set, such as one month, the carbon source is the energy source for producing carbon dioxide, such as electricity, and the carbon calculation time period is the time period when the enterprise equipment consumes energy and produces carbon dioxide in the working state, that is, the time period when the enterprise equipment is working, such as 9:00-18:00 every day.

[0092] Through the above implementation, the present invention can obtain the carbon source of the enterprise equipment and the corresponding carbon usage calculation time period according to the energy supply topology diagram, so as to facilitate the subsequent calculation of carbon usage information.

[0093] In some embodiments, the specific implementation of step S2 (the server determines the carbon source of each enterprise device in the carbon consumption set with positive carbon labels within a first preset time period and the corresponding carbon consumption calculation time period based on the working status of the enterprise devices in the energy supply topology diagram of the enterprise energy supply line) includes:

[0094] S21, the server obtains an energy supply topology diagram of the enterprise's energy supply line, wherein the energy supply topology diagram includes multiple energy supply sources, and the energy supply sources include at least an electric energy supply source.

[0095] It can be understood that the energy supply is an energy source that supplies energy, including electric energy supply, wherein the electric energy supply is electric energy.

[0096] Through the above-mentioned implementation, the present invention can obtain an energy supply topology map, so as to subsequently determine the type of energy supply of the enterprise according to the energy supply topology map, thereby facilitating the acquisition of the carbon usage information of the enterprise.

[0097] S22, classifying the electric energy supply sources to obtain carbon-saving energy supply, composite energy supply and carbon-using energy supply.

[0098] It is understandable that carbon-saving energy is clean energy, such as solar photovoltaic panels, biogas pools, etc., and composite energy supply consumes energy and also generates new available energy. For example, fuel generators can consume fuel to generate electricity, and carbon-saving energy is directly consumable energy, such as city electricity.

[0099] Through the above implementation, the present invention can classify energy so that carbon consumption can be calculated according to different types of energy in the future, thereby obtaining accurate carbon consumption data for energy-saving adjustments for enterprises.

[0100] S23, obtain the working status of each electric energy source within the first preset time period, and determine the carbon source of each enterprise equipment in the carbon consumption set with positive carbon labels within the first preset time period, and the corresponding carbon consumption calculation time period based on the working status and the connection status of the energy supply lines in the energy supply topology diagram.

[0101] It can be understood that by obtaining the working status of each electric energy source within the first preset time period, the carbon source and carbon calculation time period of the enterprise equipment can be determined in conjunction with the connection status of the energy supply lines in the energy supply topology diagram.

[0102] For example: when it is obtained within the first preset time period that the time when the No. 1 electric energy supply source is in working state is 9:00-18:00 every day, and the time when the No. 2 electric energy supply source is in working state is 12:00-13:00 every day, it can be obtained that the carbon source of the enterprise equipment connected to the No. 1 electric energy supply source in the energy supply topology diagram is the electric energy supply source, and the carbon consumption calculation time period of the enterprise equipment can be further determined based on the working state time of the energy supply source.

[0103] In some embodiments, the specific implementation of step S23 (obtaining the operating status of each electric energy supply source within the first preset time period, and determining the carbon source of each enterprise equipment in the carbon consumption set with positive carbon label usage within the first preset time period, and the corresponding carbon consumption calculation time period based on the operating status and the connection status of the energy supply lines in the energy supply topology diagram) includes:

[0104] S231: The server takes each electric energy supply source as a target source entity and determines an energy supply time period during which the target source entity outputs energy within a first preset time period.

[0105] It can be understood that the target source body is the energy source of the target currently being judged, and can be an electric energy source.

[0106] The energy supply period is the period during which the target source entity supplies energy.

[0107] For example: when the first preset time period is one month, and when the electric energy supply source is currently judged, the target source entity is the electric energy supply source, so it can be determined that the time period for the electric energy supply source to supply electricity within one month is 9:00-18:00 every day, and the energy supply time period is 9:00-18:00 every day.

[0108] S232: Based on the connection status of the target source entity in the energy supply topology diagram during the energy supply time period, determine the enterprise equipment connected to the target source entity in the carbon consumption set of the forward carbon consumption label.

[0109] It can be understood that in the energy supply topology diagram, the enterprise equipment connected to the target source entity in the carbon consumption set of the positive carbon label can be determined based on the connection status of the target source entity with the enterprise equipment during the energy supply time period.

[0110] The connection status refers to the connection status between the power supply source and the enterprise equipment. For example, the power supply source can be connected to the enterprise equipment 1 and the enterprise equipment 2 within a certain period of time, and disconnected within another period of time.

[0111] Through the above implementation, the present invention can determine the enterprise equipment connected to the target source entity within the carbon consumption set of the positive carbon consumption label of the target source entity during the energy supply time period, so that the carbon consumption of the enterprise equipment can be calculated based on the target source entity in the future to obtain accurate carbon consumption information of the enterprise.

[0112] In some embodiments, the specific implementation of step S232 (determining the enterprise equipment connected to the target source entity in the carbon consumption set of the positive carbon label based on the connection status of the target source entity in the energy supply topology diagram during the energy supply time period) includes:

[0113] S2321: Count the energy supply time periods of each target source entity corresponding to each enterprise device and compare them to determine the overlapping target source entities corresponding to the overlapping energy supply time periods.

[0114] It is understandable that different enterprise equipment can use multiple energy sources within the same time period. For example, enterprise equipment No. 1 can use the mains power function and can also use solar photovoltaic panels to generate electricity. When the target source body is mains power, the corresponding energy supply time period is 9:00-18:00. When the target source body is solar photovoltaic panels, the corresponding function time is 11:00-15:00. Since the different target source bodies corresponding to enterprise equipment No. 1 have overlapping energy supply time periods, mains power and solar photovoltaic panels can be used as overlapping target source bodies.

[0115] Among them, the overlapping energy supply time period is the time when the energy supply time periods of different target source entities have overlapping parts. For example, when the target source entity corresponding to the No. 1 enterprise equipment is the city electricity energy supply time period of 9:00-18:00, and the corresponding target source entity is the solar photovoltaic panel energy supply time period of 11:00-15:00, then the overlapping energy supply time period is 11:00-15:00, and the overlapping target source entity is the target source entity with an overlapping time period.

[0116] S2322: Extract the overlapping energy supply time periods and determine multiple energy supply time periods in which the overlapping energy supply time periods are located as energy supply time periods to be divided.

[0117] It can be understood that when the overlapping energy supply time period is 11:00-15:00, the energy supply time period 9:00-18:00 in which the overlapping energy supply time period 11:00-15:00 is located can be used as the energy supply time period to be divided, so that the energy supply time period 9:00-18:00 can be divided subsequently to obtain the updated energy supply time period, so as to facilitate subsequent carbon consumption calculations and obtain accurate carbon consumption information.

[0118] S2323: Split the to-be-divided energy supply time period based on the overlapping energy supply time period to obtain updated energy supply time periods.

[0119] It can be understood that the time period of the function to be divided is divided according to the overlapping power supply time period. For example, when the overlapping power supply time period is 11:00-15:00 and the power supply time period to be divided is 9:00-18:00, 9:00-18:00 can be divided to obtain the updated power supply time periods of 9:00-11:00, 11:00-15:00, and 15:00-18:00.

[0120] The updated energy supply time period is the time period obtained after segmentation, so that the corresponding carbon consumption information can be obtained through subsequent calculation.

[0121] S233, taking the target source entity as the carbon source of the corresponding enterprise equipment and adding a carbon source type label, taking the energy supply time period as the carbon consumption calculation time period of the corresponding enterprise equipment and obtaining carbon consumption information based on the metering equipment.

[0122] It can be understood that when the target source is mains electricity, and the corresponding connected enterprise equipment is enterprise equipment No. 1, mains electricity can be used as the carbon source of enterprise equipment No. 1, and a carbon source type label can be added to the carbon source to facilitate subsequent calculation of carbon information.

[0123] Among them, the carbon source type label is the label of the energy type of the carbon source, the metering equipment is a device that records the energy consumption of the equipment, such as an electric meter that calculates electricity consumption, etc., and the carbon information is the data information of the energy consumption of the enterprise equipment.

[0124] Through the above-mentioned implementation, the present invention can obtain the carbon usage information of the enterprise's equipment, so as to calculate the carbon usage of the enterprise, and thus make energy-saving adjustments to the enterprise according to the carbon usage information.

[0125] In some embodiments, the specific implementation of step S233 (using the target source entity as the carbon source of the corresponding enterprise equipment and adding a carbon source type label, using the energy supply time period as the carbon consumption calculation time period of the corresponding enterprise equipment and obtaining carbon consumption information based on the metering device) includes:

[0126] S2331, the carbon source type labels include carbon-saving energy supply labels, composite energy supply labels and carbon-using energy supply labels.

[0127] It can be understood that the carbon-saving energy supply label is the corresponding label for clean energy. For example, when the carbon source is a solar photovoltaic panel, the corresponding carbon source type label is the carbon-saving energy supply label, the composite energy supply label is the label for the composite energy supply, and the carbon energy supply label is the label when the carbon source of the energy supply is municipal electricity.

[0128] S2332: If the carbon source type label of the target source entity is determined to be a carbon-saving energy supply label or a composite energy supply label, the carbon usage information of the corresponding enterprise equipment in the carbon usage calculation time period is set to virtual calculation 0.

[0129] It can be understood that when the target source used by the enterprise equipment is the energy corresponding to the carbon-saving energy supply label or the composite energy supply label, it can be said that the energy used by the corresponding enterprise equipment is clean energy and will not increase the enterprise's carbon emissions. Therefore, when the carbon source type label of the target source is a carbon-saving energy supply label or a composite energy supply label, the carbon usage information of the corresponding enterprise equipment in the carbon calculation time period can be set to a virtual calculation of 0, which can indicate that the carbon usage of the enterprise equipment is 0.

[0130] Among them, virtual calculation 0 is to give priority to the virtual setting of 0 for enterprise equipment using clean energy.

[0131] S2333: If it is determined that the carbon source type label of the target source entity is a carbon-based energy supply label, the carbon usage information of the carbon usage calculation time period is obtained based on the metering equipment.

[0132] It can be understood that when it is determined that the carbon source type label of the target source entity is a carbon energy supply label, it can be explained that the corresponding enterprise equipment consumes energy to produce carbon-containing gas, and thus it is necessary to obtain the carbon usage information for the carbon calculation time period based on the metering equipment, so as to judge whether the enterprise needs to adjust its carbon usage based on the carbon usage information.

[0133] In some embodiments, in step S2333 (if the carbon source type label of the target source entity is determined to be a carbon-based energy label, then obtaining carbon usage information for the carbon usage calculation period based on the metering device) the specific implementation method includes:

[0134] S23331, determine the energy supply branches corresponding to the target source entity and the enterprise equipment in the energy supply topology diagram, each energy supply branch has a preset metering device.

[0135] It can be understood that the energy supply branch is the line connecting the target source body and the enterprise equipment in the energy supply topology diagram. The same target source body can be connected to multiple enterprise equipment, thus corresponding to multiple energy supply branches. In addition, in order to determine the amount of carbon-containing energy consumed on different energy supply branches, each corresponding energy supply branch will have corresponding metering equipment.

[0136] S23332: Obtain metering information for a carbon calculation time period based on the metering device, and determine a corresponding carbon coefficient based on a metering type corresponding to the metering information, where each metering type has a preset carbon coefficient.

[0137] It can be understood that the metering information is the data information in the metering device. For example, when the metering device is an electric meter, the metering information is the electricity consumption in the electric meter during the carbon calculation period. For example, the electricity consumption data obtained from the electric meter within one month is 300 degrees.

[0138] Among them, the measurement type is the type to which the measurement information belongs, for example, it can be electricity. It is not difficult to understand that the amount of carbon-containing gas generated by different types of carbon sources may be different. Therefore, when calculating with carbon information, data information of different measurement types have corresponding carbon coefficients. The carbon coefficient usually refers to the carbon emission coefficient, which refers to the amount of carbon emissions generated per unit energy during the combustion or use of each energy. It is the coefficient value for calculating carbon-containing information of different measurement types. Different carbon sources have corresponding carbon coefficients.

[0139] S23333, obtain carbon usage information based on the multiplication of the measurement information and the carbon coefficient.

[0140] Through the above implementation, the present invention can obtain the carbon usage information of enterprise equipment in the carbon usage set of the positive carbon usage label, which is convenient for personnel to view the carbon usage information of the enterprise, and at the same time, it is convenient to adjust the carbon usage of the enterprise according to the carbon usage information in the future.

[0141] S3. Obtain enterprise equipment in the carbon consumption set with reverse carbon consumption labels, and divide the first preset time period based on the working status and working hours of the enterprise equipment in the first preset time period to obtain different carbon saving calculation time periods.

[0142] It is understandable that enterprise equipment may not work continuously within the preset time period. Therefore, the working status and working time of the enterprise equipment in the carbon consumption set of the reverse carbon label within the first preset time period can be obtained, so as to obtain the specific time period of energy consumption of the enterprise equipment.

[0143] The carbon saving calculation period is the time period during which the enterprise equipment in the carbon consumption set of the reverse carbon label consumes energy.

[0144] Through the above implementation, the present invention can obtain different carbon saving calculation time periods to facilitate subsequent calculation to obtain comprehensive carbon assets.

[0145] In some embodiments, the specific implementation of step S3 (obtaining enterprise equipment in a carbon usage set with a reverse carbon usage label, and dividing the first preset time period based on the working status and working hours of the enterprise equipment within the first preset time period to obtain different carbon saving calculation time periods) includes:

[0146] S31, obtaining the time during which the enterprise equipment in the carbon consumption set with the reverse carbon consumption label in the energy supply topology diagram is in a working state, as the corresponding working time of each reverse carbon consumption enterprise equipment.

[0147] It is understandable that the working hours are the time when the enterprise equipment is in working state. For example, when the enterprise equipment is in working state from 10:00 to 14:00 every day, the working hours are from 10:00 to 14:00 every day.

[0148] Through the above implementation, the present invention can obtain working time, so as to obtain the carbon saving calculation time period subsequently, thereby calculating the comprehensive carbon assets of the entire enterprise.

[0149] S32: Divide the first preset time period based on the working time to obtain a different carbon saving calculation time period for each enterprise device using a reverse carbon label.

[0150] It is understandable that when the first preset time period is the past month and the working hours are 10:00-14:00 every day, the past month can be divided into time periods to obtain multiple carbon saving calculation time periods, for example, May 1st 10:00-14:00, May 2nd 10:00-14:00, May 3rd 10:00-14:00...

[0151] S33, determining the energy supply connection relationship corresponding to the enterprise equipment with reverse carbon labels in the energy supply topology diagram, and determining the corresponding energy supply metering equipment based on the energy supply connection relationship.

[0152] It can be understood that the energy supply connection relationship is the connection relationship between enterprise equipment and supplied energy. For example, enterprise equipment No. 3 is connected to solar photovoltaic panels, and enterprise equipment No. 4 is connected to the public power supply line. Since solar photovoltaic panels can generate electricity, the corresponding energy can be measured through the electricity meter. Moreover, since the equipment is connected to the public power supply line, the electricity consumption can also be obtained through the electricity meter.

[0153] The energy supply metering device is a device that measures the supplied energy, such as a voltmeter.

[0154] S34, based on the energy supply metering device, obtains the carbon usage information of the energy consumption input corresponding to the carbon saving calculation time period of each enterprise equipment with reverse carbon usage, and the carbon saving information of the energy consumption output, wherein the carbon saving data includes the carbon usage information and carbon saving information of the enterprise equipment with reverse carbon usage labels.

[0155] It can be understood that carbon-saving information is the energy information output by enterprise equipment. For example, when the enterprise equipment is sewage treatment equipment, it may consume electricity when treating sewage. The corresponding amount of electricity consumed is the carbon information. Similarly, the equipment will produce usable water resources, and the corresponding content of the generated water is the carbon-saving information.

[0156] Through the above implementation, the present invention can obtain carbon saving data of enterprise equipment to facilitate subsequent statistics of the enterprise's comprehensive carbon assets.

[0157] S4. Comprehensively calculate the carbon assets based on the carbon calculation time period, carbon usage data, carbon saving calculation time period, and carbon saving data of all enterprise equipment, and perform production control based on the comprehensive carbon assets.

[0158] It can be understood that comprehensive carbon assets include the total carbon consumption and carbon savings of an enterprise, which is a comprehensive consumption of carbon-containing energy calculated based on various data information of the enterprise's equipment.

[0159] It is not difficult to understand that when an enterprise consumes more energy, it may release a large amount of carbon-containing gas, which will have a greater impact on the environment and fail to meet the standards. Therefore, it is necessary to control and manage the production of the enterprise so that the enterprise's carbon emissions meet the standards and reduce environmental pollution.

[0160] In some embodiments, the specific implementation of step S4 (comprehensively calculating a comprehensive carbon asset based on the carbon usage calculation time period, carbon usage data, carbon saving calculation time period, and carbon saving data of all enterprise equipment, and performing production control based on the comprehensive carbon asset) includes:

[0161] S41, comprehensively calculating the carbon usage information of enterprise equipment in the carbon usage set with positive carbon usage labels to obtain the total carbon usage value of the comprehensive carbon assets.

[0162] It can be understood that the total carbon consumption value of comprehensive carbon assets is the sum of the carbon consumption information of corporate equipment within the carbon consumption set with positive carbon labels.

[0163] S42, comprehensively calculating the carbon usage information and carbon saving information of the enterprise equipment in the carbon usage set with the reverse carbon usage label to obtain the total carbon saving value of the comprehensive carbon assets.

[0164] It can be understood that the carbon usage information of enterprise equipment in the carbon usage set with a reverse carbon usage label is the data amount of carbon source consumed by the enterprise equipment, and the carbon saving information is the data amount of carbon source generated. Since, when the amount of carbon source consumed by the enterprise equipment may be greater than the amount of carbon source generated, the calculated total carbon saving value of the comprehensive carbon assets may be a negative value, and when the amount of carbon source consumed by the enterprise equipment may be less than the amount of carbon source generated, the calculated total carbon saving value of the comprehensive carbon assets may be a positive value.

[0165] Among them, the total carbon saving value of comprehensive carbon assets is the sum of carbon usage information and carbon saving information.

[0166] S43, performing comprehensive processing based on the total carbon usage value and the total carbon savings value to obtain a corresponding carbon portrait coefficient, performing data processing based on the carbon portrait coefficient and the energy supply topology map, and determining a production control strategy for the energy supply topology map.

[0167] It can be understood that the carbon portrait coefficient is a coefficient used to reflect the carbon saving status of an enterprise in order to determine the production control strategy of the energy supply topology.

[0168] In some embodiments, the specific implementation of step S43 (comprehensively processing the total carbon usage value and the total carbon savings value to obtain a corresponding carbon profile coefficient, performing data processing based on the carbon profile coefficient and the energy supply topology map, and determining a production control strategy for the energy supply topology map) includes:

[0169] S431, dividing the total carbon saving value by the sum of the total carbon usage value and the total carbon saving value to obtain a corresponding carbon image coefficient, and calculating the carbon image coefficient by the following formula:

[0170] ,

[0171] in, is the carbon image coefficient, is the total carbon value, is the total carbon saving value, is the portrait weight value, For the The sum of electricity consumption of corporate equipment with positive carbon labels during all carbon calculation periods, is the electric carbon coefficient, This is the upper limit for corporate equipment that uses electricity with a positive carbon label.

[0172] For the The sum of the electricity generated by the enterprise equipment with reverse carbon label in all carbon saving calculation periods, This is the upper limit for corporate equipment with power generation capabilities that can be reverse-labeled.

[0173] For the The sum of electricity consumption of enterprise equipment with reverse carbon label in all carbon saving calculation periods, This is the upper limit for corporate equipment that uses electricity with a reverse carbon label.

[0174] It is understandable that when the sum of electricity consumption of corporate equipment with positive carbon labels in all carbon calculation time periods is greater and the electricity carbon coefficient is greater, the total carbon value will also increase accordingly. It can be said that the more electricity is used and the larger the corresponding carbon coefficient is, the greater the total carbon value of the enterprise will be, and the amount of carbon-containing gas generated by the consumed energy will increase.

[0175] It is not difficult to understand that when the sum of the power generation of the enterprise equipment with the reverse carbon label in all carbon saving calculation time periods is greater, and the sum of the electricity consumption of the enterprise equipment with the reverse carbon label in all carbon saving calculation time periods is smaller, the total carbon saving value obtained is greater, which means that the enterprise's carbon saving situation is better. Conversely, when the sum of the power generation of the enterprise equipment with the reverse carbon label in all carbon saving calculation time periods is smaller, and the sum of the electricity consumption of the enterprise equipment with the reverse carbon label in all carbon saving calculation time periods is greater, the total carbon saving value obtained is smaller, which means that the enterprise's carbon saving situation is low and carbon saving adjustments are needed.

[0176] Likewise, when The greater the total carbon saving value, the corresponding The larger the value of the carbon portrait coefficient is, the better the carbon saving of the enterprise is. The smaller the total carbon saving value, the corresponding The value of the carbon portrait coefficient will also become smaller, which means that the company's carbon saving situation is poor and the company needs to make carbon saving adjustments.

[0177] In some embodiments, the specific implementation of step S43 (processing data based on the carbon profile coefficient and the energy supply topology to determine the production control strategy of the energy supply topology) includes:

[0178] S432: If the carbon profile coefficient is lower than a preset coefficient value, the enterprise equipment with positive carbon labels in the energy supply topology diagram within the first preset time period is sorted in descending order to obtain an enterprise equipment sequence.

[0179] It is understandable that when the carbon portrait coefficient is lower than the preset coefficient value, it means that the company's carbon saving situation does not meet the carbon saving standards. Therefore, the company's equipment can be adjusted. For example, the company's equipment can be optimized, and high-energy-consuming equipment can be replaced with energy-saving equipment, or clean carbon sources can be added to improve the company's carbon saving situation.

[0180] Among them, the preset coefficient value is a judgment coefficient set in advance by humans, so as to facilitate comparison with the carbon portrait coefficient. The carbon value is the value of the energy used to digest the carbon source of the enterprise equipment. The enterprise equipment sequence is the sequence obtained by sorting the enterprise equipment with positive carbon labels in descending order by using carbon values.

[0181] It is not difficult to understand that by sorting in descending order, the equipment of enterprises with higher carbon values can be adjusted first.

[0182] S433, obtaining an adjustment coefficient value based on the difference between the carbon profile coefficient and the preset coefficient value, generating corresponding new enterprise equipment and numerical attributes of the new enterprise equipment based on the adjustment coefficient value and the basic adjustment value, wherein the new enterprise equipment is a new power generation equipment, and calculating the numerical attributes of the new enterprise equipment using the following formula:

[0183] ,

[0184] in, To add numerical attributes of enterprise devices, is the preset coefficient value, is a constant, Adjust the value based on the base.

[0185] It can be understood that the adjustment coefficient value is the difference between the carbon portrait coefficient and the preset coefficient value, the basic adjustment value is a manually preset value, and the newly added enterprise equipment is the added power generation equipment required for the enterprise to make carbon-saving adjustments, such as solar photovoltaic panels. The numerical attributes of the newly added enterprise equipment are the numerical values of the equipment corresponding to the newly added enterprise equipment, such as solar photovoltaic panels that can generate 500 degrees of electricity.

[0186] S434 , determining a corresponding selection quantity based on the numerical attribute, each numerical attribute interval has a preset selection quantity, and selecting balanced enterprise equipment from the enterprise equipment sequence based on the selection quantity.

[0187] It can be understood that the newly added enterprise equipment has corresponding energy capacity. Therefore, the number of enterprise equipment to be adjusted accordingly can be determined based on the adjustable values of the newly added enterprise equipment. Among them, the selected number is the number of enterprise equipment to be adjusted accordingly, which can be manually pre-set. The balanced enterprise equipment is the enterprise equipment selected to adjust the enterprise's carbon usage.

[0188] For example: when the numerical attribute is 500, the corresponding selection quantity is 2, then the first two enterprise equipment in the enterprise equipment sequence can be used as balanced enterprise equipment, so that the carbon usage of the two selected enterprise equipment can be adjusted. For example, the carbon source of the selected enterprise equipment can be changed from municipal electricity to solar photovoltaic panels, so that it can reduce carbon usage and achieve carbon saving adjustments for the enterprise.

[0189] S435, establishing a carbon source corresponding to the newly added enterprise equipment in the energy supply topology diagram, and connecting the carbon source to the balanced enterprise equipment and then highlighting it.

[0190] It is understandable that after selecting balanced enterprise equipment to make carbon-saving adjustments to the enterprise, the newly added enterprise equipment and the corresponding carbon source need to be updated in the corresponding energy supply topology diagram so that enterprise personnel can intuitively view the corresponding adjustment information, thereby achieving energy conservation and carbon reduction for the enterprise.

[0191] like Figure 2 As shown, the present invention provides a production management and control system based on carbon assets, comprising:

[0192] The partitioning module is used to enable the server to partition and process enterprise equipment according to the carbon usage attributes of the enterprise equipment and add corresponding carbon usage labels. The carbon usage labels include forward carbon usage labels and reverse carbon usage labels. The corresponding carbon usage sets are obtained based on the partitioning of the carbon usage labels.

[0193] The determination module is used to enable the server to determine the carbon source of each enterprise device in the carbon consumption set with a positive carbon label within a first preset time period and the corresponding carbon consumption calculation time period based on the working status of the enterprise equipment in the energy supply topology diagram of the enterprise energy supply line.

[0194] The acquisition module is used to obtain enterprise equipment in the carbon consumption set with reverse carbon consumption labels, and divide the first preset time period based on the working status and working time of the enterprise equipment in the first preset time period to obtain different carbon saving calculation time periods.

[0195] The calculation module is used to calculate the comprehensive carbon assets based on the carbon calculation time period, carbon usage data, carbon saving calculation time period, and carbon saving data of all enterprise equipment, and to perform production management and control based on the comprehensive carbon assets.

[0196] The present invention also provides a storage medium, in which a computer program is stored. When the computer program is executed by a processor, it is used to implement the methods provided in the various embodiments described above.

[0197] The storage medium may be a computer storage medium or a communication medium. A communication medium includes any medium that facilitates the transfer of a computer program from one location to another. A computer storage medium may be any available medium that can be accessed by a general-purpose or special-purpose computer. For example, a storage medium is coupled to a processor so that the processor can read information from the storage medium and write information to the storage medium. Of course, the storage medium may also be an integral part of the processor. The processor and the storage medium may be located in an application-specific integrated circuit (ASIC). In addition, the ASIC may be located in a user device. Of course, the processor and the storage medium may also exist as discrete components in a communication device. The storage medium may be a read-only memory (ROM), a random access memory (RAM), a CD-ROM, a magnetic tape, a floppy disk, an optical data storage device, and the like.

[0198] The present invention also provides a program product, which includes execution instructions stored in a storage medium. At least one processor of a device can read the execution instructions from the storage medium, and at least one processor executes the execution instructions so that the device implements the methods provided in the various embodiments described above.

[0199] In the above-mentioned terminal or server embodiments, it should be understood that the processor may be a central processing unit (CPU), other general-purpose processors, digital signal processors (DSP), application-specific integrated circuits (ASICs), etc. The general-purpose processor may be a microprocessor or any conventional processor. The steps of the method disclosed in the present invention may be directly executed by a hardware processor or by a combination of hardware and software modules within the processor.

[0200] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the above embodiments, or replace some or all of the technical features therein with equivalents. However, these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A production control method based on carbon assets, characterized in that: include: S1. The server divides and processes enterprise equipment according to the carbon usage attributes of the enterprise equipment and adds corresponding carbon usage labels. The carbon usage labels include forward carbon usage labels and reverse carbon usage labels. Based on the carbon usage labels, corresponding carbon usage sets are obtained. S2. The server determines the carbon source of each enterprise device in the carbon consumption set with a positive carbon consumption tag within a first preset time period, and the corresponding carbon consumption calculation time period, based on the working status of the enterprise devices in the energy supply topology diagram of the enterprise energy supply line, including: S21, the server obtains an energy supply topology diagram of the enterprise's energy supply line, wherein the energy supply topology diagram includes multiple energy supply sources, and the energy supply sources include at least an electric energy supply source; S22, classifying the electric energy supply sources to obtain carbon-saving energy supply, composite energy supply, and carbon-using energy supply; S23, obtaining the working status of each electric energy source within the first preset time period, and determining the carbon source of each enterprise equipment in the carbon consumption set with positive carbon consumption labels within the first preset time period, and the corresponding carbon consumption calculation time period based on the working status and the connection status of the energy supply lines in the energy supply topology diagram, including: The server takes each electric energy supply source as a target source entity and determines an energy supply time period during which the target source entity supplies energy within a first preset time period; Based on the connection status of the target source entity in the energy supply topology diagram during the energy supply time period, determine the enterprise equipment connected to the target source entity in the carbon consumption set of the positive carbon consumption label; The target source entity is used as the carbon source of the corresponding enterprise equipment and a carbon source type label is added. The carbon source type label includes a carbon-saving energy supply label, a composite energy supply label, and a carbon-using energy supply label. The energy supply time period is used as the carbon consumption calculation time period of the corresponding enterprise equipment and carbon consumption information is obtained based on the metering equipment; S3. Obtain enterprise equipment in a carbon consumption set with reverse carbon consumption labels, and divide the first preset time period into different carbon saving calculation time periods based on the working status and working hours of the enterprise equipment within the first preset time period; S4. Calculate a comprehensive carbon asset based on the carbon usage calculation period, carbon usage data, carbon savings calculation period, and carbon savings data of all enterprise equipment, and perform production control based on the comprehensive carbon asset; The S3 includes: S31, obtaining the time during which the enterprise equipment in the carbon consumption set with the reverse carbon consumption label in the energy supply topology is in a working state, as the corresponding working time of each reverse carbon consumption enterprise equipment; S32, dividing the first preset time period based on the working hours to obtain a different carbon saving calculation time period for each enterprise device using a reverse carbon label; S33, determining the energy supply connection relationship corresponding to the enterprise equipment using the reverse carbon label in the energy supply topology diagram, and determining the corresponding energy supply metering equipment based on the energy supply connection relationship; S34, based on the energy supply metering device, obtains the carbon usage information of the energy consumption input corresponding to the carbon saving calculation time period of each enterprise equipment with reverse carbon usage, and the carbon saving information of the energy consumption output, wherein the carbon saving data includes the carbon usage information and carbon saving information of the enterprise equipment with reverse carbon usage labels.

2. The carbon asset-based production control method according to claim 1, characterized in that: in, S1 specifically includes: S11, obtaining the energy consumption demand attributes and energy consumption output attributes corresponding to the enterprise equipment during production. If it is determined that the energy consumption demand attribute includes electricity and the energy consumption output attribute is non-electricity, a positive carbon label is added to the enterprise equipment; S12, if the energy consumption output attribute is electricity, then add a reverse carbon label to the enterprise equipment classification process; S13, classify enterprise equipment with positive carbon label into the carbon use set with positive carbon label; S14, classify the enterprise equipment with reverse carbon usage labels into the carbon usage set with reverse carbon usage labels.

3. The carbon asset-based production control method according to claim 1, characterized in that: The step of determining the enterprise equipment connected to the target source entity in the carbon consumption set of the forward carbon consumption label based on the connection status of the target source entity in the energy supply topology diagram during the energy supply time period includes: Count the energy supply time periods of each target source entity corresponding to each enterprise equipment and compare them to determine the overlapping target source entities corresponding to the overlapping energy supply time periods; Extracting the overlapping energy supply time period and determining multiple energy supply time periods in which the overlapping energy supply time period is located as energy supply time periods to be divided; The to-be-divided energy supply time period is divided based on the overlapping energy supply time period to obtain an updated energy supply time period.

4. The carbon asset-based production control method according to claim 1, characterized in that: The target source entity is used as the carbon source of the corresponding enterprise equipment and a carbon source type label is added, the energy supply time period is used as the carbon consumption calculation time period of the corresponding enterprise equipment and the carbon consumption information is obtained based on the metering device, including: The carbon source type labels include carbon-saving energy supply labels, composite energy supply labels and carbon-using energy supply labels; If the target source's carbon source type label is a carbon-saving energy supply label or a composite energy supply label, the carbon usage information of the corresponding enterprise equipment during the carbon usage calculation period is set to a virtual calculation of 0; If the carbon source type label of the target source entity is determined to be a carbon-based energy supply label, the carbon usage information for the carbon usage calculation period is obtained based on the metering equipment.

5. The carbon asset-based production control method according to claim 4, characterized in that: If the carbon source type label of the target source is determined to be a carbon-based energy supply label, obtaining carbon usage information for the carbon usage calculation period based on the metering device includes: Determine the energy supply branches corresponding to the target source entity and enterprise equipment in the energy supply topology diagram, and each energy supply branch has a preset metering device; Obtaining metering information for a carbon calculation period based on the metering device, and determining a corresponding carbon coefficient based on a metering type corresponding to the metering information, each metering type having a preset carbon coefficient; The carbon usage information is calculated based on the multiplication of the measurement information and the carbon coefficient.

6. The carbon asset-based production management and control method according to claim 1, It is characterized in that Wherein, step S4 includes: S41, comprehensively calculating the carbon usage information of the enterprise equipment in the carbon usage set with positive carbon usage labels to obtain the total carbon usage value of the comprehensive carbon assets; S42, comprehensively calculating the carbon usage information and carbon saving information of the enterprise equipment in the carbon usage set with the reverse carbon usage label to obtain the total carbon saving value of the comprehensive carbon assets; S43, performing comprehensive processing based on the total carbon usage value and the total carbon savings value to obtain a corresponding carbon portrait coefficient, performing data processing based on the carbon portrait coefficient and the energy supply topology map, and determining a production control strategy for the energy supply topology map.

7. The carbon asset-based production control method according to claim 6, characterized in that: The method of obtaining a corresponding carbon profile coefficient by comprehensive processing based on the total carbon consumption value and the total carbon savings value, performing data processing based on the carbon profile coefficient and the energy supply topology map, and determining a production control strategy for the energy supply topology map includes: The total carbon saving value is divided by the sum of the total carbon use value and the total carbon saving value to obtain the corresponding carbon image coefficient, and the carbon image coefficient is calculated by the following formula: ， in, is the carbon image coefficient, is the total carbon value, is the total carbon saving value, is the portrait weight value, For the The sum of electricity consumption of corporate equipment with positive carbon labels during all carbon calculation periods, is the electric carbon coefficient, The upper limit for corporate equipment that uses electricity with a positive carbon label; For the The sum of the electricity generated by the enterprise equipment with reverse carbon label in all carbon calculation periods, The upper limit for corporate equipment with reverse carbon labeling power generation capabilities; For the The sum of electricity consumption of corporate equipment with reverse carbon label in all carbon calculation periods, This is the upper limit for corporate equipment that uses electricity with a reverse carbon label.

8. The carbon asset-based production control method according to claim 7, characterized in that: The data processing based on the carbon profile coefficient and the energy supply topology map to determine the production control strategy of the energy supply topology map includes: If the carbon profile coefficient is lower than the preset coefficient value, the carbon usage values of the enterprise devices with positive carbon labels in the energy supply topology diagram within the first preset time period are sorted in descending order to obtain an enterprise device sequence; An adjustment coefficient value is obtained based on the difference between the carbon profile coefficient and the preset coefficient value. Based on the adjustment coefficient value and the basic adjustment value, corresponding new enterprise equipment and the numerical attributes of the new enterprise equipment are generated. The new enterprise equipment is a new power generation equipment. The numerical attributes of the new enterprise equipment are calculated using the following formula: ， in, To add numerical attributes of enterprise devices, is the preset coefficient value, is a constant, is the base adjustment value; Determining a corresponding selection quantity based on the numerical attribute, each numerical attribute interval has a preset selection quantity, and selecting balanced enterprise equipment from the enterprise equipment sequence based on the selection quantity; In the energy supply topology diagram, a carbon source corresponding to the newly added enterprise equipment is established, and the carbon source is connected to the balanced enterprise equipment and then highlighted.

9. A carbon asset-based production control system according to any one of claims 1 to 8, characterized in that: include: A partitioning module is configured to enable the server to partition enterprise equipment according to the carbon usage attributes of the enterprise equipment and add corresponding carbon usage labels. The carbon usage labels include forward carbon usage labels and reverse carbon usage labels. Based on the carbon usage labels, corresponding carbon usage sets are obtained. a determination module configured to enable the server to determine the carbon source of each enterprise device in the carbon consumption set with a positive carbon consumption label within a first preset time period and the corresponding carbon consumption calculation time period based on the working status of the enterprise devices in the energy supply topology diagram of the enterprise energy supply line; An acquisition module is configured to acquire enterprise equipment within a carbon consumption set with a reverse carbon consumption label, and to segment the first preset time period based on the working status and working hours of the enterprise equipment within the first preset time period to obtain different carbon saving calculation time periods; The calculation module is used to calculate the comprehensive carbon assets based on the carbon calculation time period, carbon usage data, carbon saving calculation time period, and carbon saving data of all enterprise equipment, and to perform production management and control based on the comprehensive carbon assets.

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