Energy carbon management method and system and electronic equipment

Abstract

The invention discloses an energy-carbon management method and system and electronic equipment, and belongs to the technical field of energy-carbon management, and the method comprises the steps: determining an interaction task based on an obtained energy-carbon task, and the interaction task comprises an interaction purpose and a cadrer; interacting with the cadrer based on the interaction purpose to obtain interaction data, the interaction data including energy-carbon problems; generating an energy-carbon implementation scheme based on the energy-carbon problem; based on the energy-carbon implementation scheme, interacting with the trunk line person to obtain feedback data; and updating the energy-carbon implementation scheme based on the feedback data to obtain a solution corresponding to the energy-carbon task. According to the energy and carbon management method provided by the invention, a plurality of relation departments and personnel related to energy and carbon can be integrated, huge and complex data are refined, the efficiency of energy and carbon management is improved, and comprehensive management and timely monitoring of data in energy and carbon management are realized.

Description

Technical Field

[0001] The embodiments of the present application relate to the field of energy carbon management technology, and in particular to an energy carbon management method, system and electronic equipment. Background Art

[0002] Energy carbon management includes system engineering such as carbon reduction and consumption reduction, and net zero emissions. Energy carbon management usually involves multiple departments of an organization or company, and even involves communication and coordination with other organizations or companies upstream and downstream of the supply chain. The workload is large and the affairs are cumbersome. In addition, energy carbon management involves a wide range of professional knowledge, and requires high capabilities and knowledge of relevant staff. Among them, carbon reduction and consumption reduction is a task that spans a long time. The process of carbon reduction and consumption reduction includes multiple project tasks. Each project task includes multiple related departments and personnel. The data involved is huge and complex. Manual scheduling and management of these data is inefficient and cannot achieve comprehensive management and timely monitoring. Summary of the invention

[0003] The embodiments of the present application aim to provide an energy carbon management method, system and electronic device to solve the technical problem of low efficiency in manual energy carbon management in the prior art.

[0004] In order to solve the above technical problems, the embodiments of the present application disclose the following technical solutions:

[0005] In a first aspect, a method for carbon management is provided, the method comprising:

[0006] Determine an interaction task based on the acquired energy and carbon task, wherein the interaction task includes an interaction purpose and stakeholders;

[0007] Interacting with the stakeholder based on the interaction purpose to obtain interaction data, wherein the interaction data includes energy-carbon issues;

[0008] generating an energy-carbon implementation plan based on the energy-carbon problem;

[0009] Interacting with the stakeholders based on the energy carbon implementation plan to obtain feedback data;

[0010] The energy carbon implementation plan is updated based on the feedback data to obtain a solution corresponding to the energy carbon task.

[0011] In combination with the first aspect, the method for interacting with the stakeholder based on the interaction purpose and obtaining interaction data includes:

[0012] Establishing a meeting agenda with the stakeholders based on the interaction purpose;

[0013] Send the pre-prepared communication documents to the stakeholders;

[0014] Interact with the stakeholders through text or voice to obtain interaction data;

[0015] The interactive data include energy-carbon issues, decision-making information and energy-carbon parameters.

[0016] In combination with the first aspect, the purpose of the interaction includes one or more of collecting energy-carbon data, establishing energy-carbon models, formulating energy-carbon plans, discussing reducing carbon emissions, discussing energy efficiency improvements, solving technical problems, and formulating new energy-carbon management strategies.

[0017] In combination with the first aspect, the method for generating an energy-carbon implementation plan based on the energy-carbon problem includes:

[0018] Identify the energy-carbon problem and obtain the type of the energy-carbon problem;

[0019] Based on the type, the corresponding technical module is called to analyze the energy-carbon problem to obtain an energy-carbon implementation plan;

[0020] The technical modules include one or more of a knowledge base, intelligent search, a natural language processing module, a data analysis tool, an expert system or a decision support system, a carbon calculation module, an energy-carbon simulation module, an energy-saving and carbon reduction module, and an application program module.

[0021] In combination with the first aspect, the method for obtaining feedback data by interacting with the stakeholders based on the energy carbon implementation plan includes:

[0022] Obtaining contact information of the relevant person;

[0023] Sending the energy carbon implementation plan and interaction method to the stakeholder based on the contact method;

[0024] Calling a communication module to interact with the stakeholders based on the energy carbon implementation plan;

[0025] Obtaining feedback data from the stakeholders based on the energy-carbon implementation plan;

[0026] The feedback data includes the interaction results and the stakeholders' satisfaction with the energy-carbon implementation plan, and the communication module includes any one or more of a voice module, a video module and a text module.

[0027] In combination with the first aspect, the method for updating the energy carbon implementation plan based on the feedback data to obtain a solution corresponding to the energy carbon task includes:

[0028] Decomposing the energy-carbon implementation plan based on the feedback data to obtain sub-implementation plans;

[0029] Interacting with the stakeholders based on the sub-implementation plan to obtain sub-stakeholders;

[0030] Interacting with the sub-stakeholder based on the sub-implementation to update the sub-implementation;

[0031] The updated sub-implementation plan is determined as the solution corresponding to the energy-carbon task.

[0032] In combination with the first aspect, after determining the updated sub-implementation plan as the solution corresponding to the energy-carbon task, the method further includes:

[0033] Evaluate the sub-implementation plan based on the energy-carbon task, the interaction purpose and the feedback data to obtain an evaluation result;

[0034] modifying the interactive task based on the evaluation result;

[0035] updating the interaction purpose and the stakeholders based on the modified interaction task;

[0036] The method further comprises interacting with the stakeholders based on the updated interaction purpose to modify the sub-implementation.

[0037] In combination with the first aspect, the energy carbon tasks include any one of energy carbon assessment, energy carbon planning, energy use optimization, carbon emission reduction, energy carbon operation and energy carbon compliance requirements.

[0038] In a second aspect, an energy-carbon management system is provided, which adopts the energy-carbon management method as described in any one of the first aspects, and the system comprises:

[0039] A chat management module, wherein the chat management module is configured to determine an interaction task based on the energy-carbon task, wherein the interaction task includes an interaction purpose and a stakeholder; the chat management module is further configured to interact with the stakeholder based on the interaction purpose to obtain interaction data, wherein the interaction data includes an energy-carbon problem; and the energy-carbon problem is configured to generate an energy-carbon implementation plan;

[0040] A data output module, wherein the data output module is configured to output the energy carbon implementation plan;

[0041] Wherein, the chat management module is also configured to interact with the stakeholders based on the energy carbon implementation plan to obtain feedback data; the feedback data is configured to improve the energy carbon implementation plan to obtain a solution corresponding to the energy carbon task.

[0042] In combination with the second aspect, the chat management module includes a chat task management module, a stakeholder management module, a problem management module and a data management module;

[0043] The chat task management module is configured to generate an interactive task based on the energy carbon task;

[0044] The stakeholder management module is configured to obtain and store the stakeholders and information related to the stakeholders;

[0045] The problem management module is configured to obtain the energy-carbon problem fed back by the stakeholders, and analyze the energy-carbon problem to determine the type of the energy-carbon problem;

[0046] The data management module is configured to store the energy carbon implementation plan.

[0047] In combination with the second aspect, it also includes an energy carbon model module, a capability library module and a knowledge base module, and the energy carbon model module, the capability library module and the knowledge base module are all connected to the chat management module;

[0048] The energy carbon large model module includes a large language model, which is used to interact with the stakeholders to obtain interaction data and feedback data;

[0049] The capability library module is used to solve the energy carbon problem in the energy carbon implementation plan by calculation or analysis when called by the chat management module;

[0050] The knowledge base module is used to output corresponding professional knowledge when called by the chat management module.

[0051] In a third aspect, an electronic device is provided, comprising a memory and a processor; the memory is used to store a computer program; the processor is used to implement the energy-carbon management method as described in any one of the first aspects when executing the computer program.

[0052] One of the above technical solutions has the following advantages or beneficial effects:

[0053] The embodiment of the present application provides an energy carbon management method, the method comprising: determining an interactive task based on the acquired energy carbon task, the interactive task including the interactive purpose and stakeholders; interacting with stakeholders based on the interactive purpose to obtain interactive data, the interactive data including energy carbon issues; generating an energy carbon implementation plan based on the energy carbon issues; interacting with stakeholders based on the energy carbon implementation plan to obtain feedback data; updating the energy carbon implementation plan based on the feedback data to obtain a solution corresponding to the energy carbon task. The energy carbon management method provided by the present application can integrate multiple related departments and personnel involved in energy carbon, refine the huge and complex data, improve the efficiency of energy carbon management, and achieve comprehensive management and timely monitoring of data in energy carbon management.

[0054] The embodiment of the present application also provides an energy carbon management system, which adopts the energy carbon management method as described above, and the system includes: a chat management module, the chat management module is configured to determine the interactive task based on the energy carbon task, and the interactive task includes the interactive purpose and the stakeholders; the chat management module is also configured to interact with the stakeholders based on the interactive purpose to obtain the interactive data, and the interactive data includes the energy carbon problem; the energy carbon problem is configured to generate the energy carbon implementation plan; the data output module is configured to output the energy carbon implementation plan; wherein the chat management module is also configured to interact with the stakeholders based on the energy carbon implementation plan to obtain feedback data; the feedback data is configured to improve the energy carbon implementation plan to obtain the solution corresponding to the energy carbon task. The energy carbon management system provided by the present application interacts with the relevant stakeholders in the energy carbon aspect through the chat management module, thereby breaking down the huge and complex data and tasks into small data and small tasks, thereby improving the efficiency of energy carbon management and achieving comprehensive management and timely monitoring of data in energy carbon management. BRIEF DESCRIPTION OF THE DRAWINGS

[0055] The technical solution and other beneficial effects of the present application will be made apparent by describing in detail the specific implementation methods of the present application in conjunction with the accompanying drawings.

[0056] Figure 1 A schematic diagram of the steps of the energy and carbon management method provided in the embodiment of the present application;

[0057] Figure 2 A schematic diagram of the steps of the energy and carbon management method provided in some embodiments of the present application;

[0058] Figure 3 A schematic diagram of the steps of a method for interacting with stakeholders provided in an embodiment of the present application;

[0059] Figure 4 A schematic diagram of the steps of the energy and carbon management method provided in some embodiments of the present application;

[0060] Figure 5 A schematic diagram of the steps of the energy and carbon management method provided in some embodiments of the present application;

[0061] Figure 6 A schematic diagram of the steps of a method for interacting with stakeholders provided in some embodiments of the present application;

[0062] Figure 7 A schematic diagram of the steps of the energy and carbon management method provided in other embodiments of the present application;

[0063] Figure 8 A schematic diagram of a module of an energy-carbon management system provided in an embodiment of the present application;

[0064] Fig. 9A schematic diagram of a chat management module in an energy carbon management system provided in an embodiment of the present application;

[0065] Fig.10 A schematic diagram of a module of an energy carbon management system provided in some embodiments of the present application;

[0066] Fig.11 A schematic diagram of a module of an energy carbon management system provided in some further embodiments of the present application;

[0067] Fig.12 A schematic diagram of a module of an energy-carbon management system provided in some embodiments of the present application;

[0068] Fig.13 Module schematic diagram of an energy carbon management system provided for other embodiments of the present application;

[0069] Fig.14 A schematic diagram of a module of an energy carbon management system provided for some other embodiments of the present application;

[0070] Fig.15 A schematic diagram of a module of an energy carbon management system provided for some other embodiments of the present application;

[0071] Fig.16 A schematic diagram of a module of an energy carbon management system provided for some other embodiments of the present application;

[0072] The reference numerals are as follows:

[0073] 100-data acquisition module, 200-chat management module, 300-data output module, 400-task / plan management module, 500-energy carbon model, 601-capability library, 602-knowledge base, 700-communication tool, 800-controller module. DETAILED DESCRIPTION

[0074] The technical solutions in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. In the description of the present application, it should be understood that the terms "first" and "second" are used for descriptive purposes only and cannot be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, the features defined as "first" and "second" may explicitly or implicitly include one or more of the features. In the description of the present application, the meaning of "multiple" is two or more, unless otherwise clearly and specifically defined.

[0075] Glossary:

[0076] Big Model / Large Language Model: Big Model is short for Large Language Model (LLM). A language model is an artificial intelligence model that is trained to understand and generate human language. The “big” in “large language model” means that the model has a very large number of parameters.

[0077] Large models refer to machine learning models with large parameter scale and complexity. Large language models refer to those language models that are trained on large text corpora and contain tens of billions of parameters (or more). They are a series of artificial intelligence models designed to understand and generate human language. They are trained on large amounts of text data and can perform a wide range of tasks, including text summarization, translation, sentiment analysis, and more.

[0078] LLMs are characterized by their large size and contain billions of parameters, which help them learn complex patterns in language data. These models are usually based on deep learning architectures such as transformers, which helps them achieve impressive performance on various NLP (Natural Language Processing tasks).

[0079] Product carbon footprint: Product carbon footprint is the statistics of all greenhouse gas emissions generated by a product at each stage of its life cycle. There are two main carbon emission calculation methods with different boundaries: "from cradle to gate" and "from cradle to grave". The former refers to the carbon emissions generated from resource extraction, processing, manufacturing to product manufacturing and delivery, while the latter also includes the carbon emissions generated during the entire life cycle of product distribution, use, maintenance, and final disposal.

[0080] Net-zero emission: refers to the balance between greenhouse gas emissions and greenhouse gas removals caused by human activities over a certain period of time.

[0081] The relevant technical personnel of this application have noticed that energy carbon management involves a wide range of professions and knowledge. Carrying out energy carbon management to achieve carbon reduction and consumption reduction and net zero emissions is a complex system engineering, which requires high capabilities and knowledge of technical personnel. At the same time, energy carbon management involves multiple departments of an organization or company, and even involves communication and coordination with other organizations or companies upstream and downstream of the supply chain. The workload is large and the affairs are cumbersome. In addition, carbon reduction and consumption reduction is a task that spans a long period of time. The process of carbon reduction and consumption reduction includes multiple project tasks. Each project task includes multiple related departments and personnel. The data involved is huge and complex. Manual scheduling and management of these data is inefficient, and it is impossible to achieve full management and timely monitoring. In order to improve the efficiency of energy carbon management, optimize the quality of energy carbon management, improve the efficiency of energy carbon management and carbon reduction, reduce the cost of energy carbon management and carbon reduction, and adapt to different scenarios and complex and diverse needs, the embodiment of this application proposes an energy carbon management method and system.

[0082] The specific implementation methods of the present application are described below by way of examples:

[0083] like Figure 1 As shown, the embodiment of the present application provides an energy carbon management method, the method comprising:

[0084] S1: Determine the interactive tasks based on the acquired energy-carbon tasks, which include the purpose of interaction and stakeholders. Specifically, obtain the energy-carbon tasks and pre-entered process templates. The energy-carbon tasks can be input by the staff or obtained by extracting the corresponding keywords from the contract. According to the input energy-carbon tasks and keywords combined with the knowledge base data and process templates, the energy-carbon tasks are analyzed and clearly decomposed to clarify the specific purpose, expected effect and key requirements involved in the energy-carbon tasks. Among them, energy-carbon tasks include any one or more of energy-carbon assessment, energy-carbon planning, energy use optimization, carbon emission reduction, energy-carbon operation and energy-carbon compliance requirements.

[0085] In the embodiment of the present application, after the energy carbon task is analyzed in detail and clearly decomposed, the specific purpose and expected effect of the interaction (the type of interaction includes chat, meeting or discussion) are determined, such as discussing the progress of the task, solving characteristic problems, reaching consensus, and specifying an action plan. The specific purpose of each interaction is determined according to the energy carbon task, including collecting energy carbon data, establishing an energy carbon model, formulating an energy carbon plan, discussing reducing carbon emissions, discussing energy efficiency improvements, solving technical problems, and formulating new energy carbon management strategies.

[0086] In the embodiment of the present application, after the energy carbon task is analyzed in detail and clearly decomposed, the stakeholders are determined, and the key stakeholders related to the energy carbon task are identified, wherein the stakeholders include decision makers, executors, technical experts, project team members, business managers, technical experts, environmental regulators, ESG personnel (Environmental Social and Governance, Chinese: environment, society and corporate governance), EHS (Environment Health and Safety, Chinese: environment, health and safety) personnel. When forming an interactive task, determine which stakeholders need to participate according to the purpose of the chat and the topic of discussion, and assign their roles and responsibilities in the chat.

[0087] It is understandable that by conducting a detailed analysis and clear decomposition of energy carbon tasks, the specific interactive tasks and stakeholders under each step can be determined. Based on the interactive tasks and stakeholders, energy carbon data can be obtained more quickly, which helps to improve the efficiency of energy carbon management.

[0088] S2: Interact with stakeholders based on the purpose of interaction and obtain interaction data, which includes energy and carbon issues. Specifically, formulate a meeting agenda with stakeholders based on the purpose of interaction, and formulate a detailed meeting agenda based on the purpose of the chat, expected results and stakeholders. The meeting agenda should include information such as discussion topics, time allocation, discussion focus, possible solutions and decision points, and the person in charge of each topic. Arrange meeting times by using calendar tools or online meeting platforms (such as Google Calendar, Microsoft Outlook, etc.) and send invitation notifications to relevant stakeholders.

[0089] In an embodiment of the present application, before the meeting, the meeting agenda, expected results and preparations are communicated with stakeholders via email, messaging applications or project management tools to determine the meeting time of one or more stakeholders, ensuring that each participant has enough time to prepare and familiarize themselves with the meeting agenda and related materials before the meeting. The pre-prepared communication documents are sent to the stakeholders, and the communication documents include energy carbon reports, data related to energy carbon or other supporting materials, so that the stakeholders can understand the relevant matters and required information before the meeting. Cloud storage services such as Baidu Netdisk, Google Drive, Dropbox, etc. can be used to send or share communication documents, thereby improving the efficiency of communication. After providing the necessary meeting links and access information to the stakeholders, the stakeholders join the meeting through a calendar tool or an online meeting platform.

[0090] In an embodiment of the present application, when a meeting is held, all stakeholders share screens and files, and guide stakeholders to discuss according to a predetermined agenda, and the discussion methods include but are not limited to text, voice or video. During the interaction process, the voice in the stakeholder interaction process is obtained through a voice recognition model, or the voice of the stakeholder is converted into corresponding text through a voice-to-text model, so as to collect the necessary energy-carbon-related data provided by the stakeholders, the energy-carbon issues raised, the energy-carbon parameters, the key points of the discussion and the decision-making information, and promote the interaction and collaboration of the stakeholders. At the same time, the stakeholder data is collected, and the stakeholder-related data is collected from the meeting minutes, the feedback of the stakeholders, the documents or the system. These data may include contact information, roles, key points of interest, historical records, etc. The collected problems are classified and summarized for further processing and resolution. Determine the priority issues according to the importance and urgency of the problem. After the interaction is completed, the chat plan, program, and action item execution can be tracked through the project management tool.

[0091] It is understandable that by formulating a meeting agenda and bringing together multiple stakeholders to interact based on a communication platform to obtain relevant energy-carbon issues in energy-carbon tasks, the efficiency of obtaining energy-carbon issues is improved.

[0092] S3: Generate an energy-carbon implementation plan based on the energy-carbon problem. Specifically, identify the energy-carbon problem and obtain the type of the energy-carbon problem; decompose and analyze the energy-carbon problem one by one through the large language model to determine the type involved in the energy-carbon problem, and call the corresponding technical module based on the type to analyze the energy-carbon problem to obtain the energy-carbon implementation plan. Among them, the technical modules include knowledge base, intelligent search, natural language processing module, data analysis tools, expert system or decision support system, carbon calculation module, energy-carbon simulation module, energy-saving and carbon reduction module and application module; the knowledge base is used to store data information related to energy and carbon, and with the help of intelligent search, it can quickly lock the data information related to energy and carbon, so as to obtain the corresponding answers to energy and carbon problems; the natural language processing module is used to understand and process text information, such as the generation and conversion of problem descriptions, suggestions or solutions; the data analysis tools are used to analyze and interpret complex data to support decision-making and problem solving; the expert system or decision support system is used to provide recommendations and solutions based on rules or expert knowledge; the carbon calculation module is used to calculate carbon emissions or product carbon footprints according to the provided data; the energy-carbon simulation module is used to simulate energy flow and carbon flow according to the provided data, and calculate the potential energy saving and carbon reduction and economic efficiency; the energy-saving and carbon reduction module: optimizes and regulates energy equipment or systems, improves energy efficiency and carbon efficiency, and realizes low-carbon economic energy use; the application module includes applications that can complete energy-carbon specific functions. After analyzing the energy-carbon issues through the technical module to obtain the corresponding energy-carbon data, all the energy-carbon data are summarized and analyzed to obtain the energy-carbon implementation plan.

[0093] In the embodiment of the present application, the type of energy-carbon problem can be determined by calling the natural language processing module, wherein the types of energy-carbon problems include question-answering, calculation, simulation, carbon reduction, and application. When the energy-carbon problem is a question-answering type, the energy-carbon problem of the question-answering type is solved by calling the knowledge base, intelligent search, expert system, or decision support system to obtain the corresponding energy-carbon data; when the energy-carbon problem is a calculation type, the energy-carbon problem is calculated by calling the data analysis tool and the carbon calculation module to obtain the corresponding energy-carbon data; when the energy-carbon problem is a simulation type, the energy-carbon problem is simulated by calling the energy-carbon simulation module to obtain the corresponding energy-carbon data; when the energy-carbon problem is a carbon reduction type, the energy-carbon problem is solved by calling the energy-saving and carbon reduction module to obtain the corresponding energy-carbon data; when the energy-carbon problem is an application type, the corresponding operation is completed by calling the application module to obtain the corresponding energy-carbon data.

[0094] In some embodiments of the present application, during the interaction with stakeholders, when the energy and carbon issues raised by stakeholders include some professional terms or professional knowledge, the system can analyze the professional terms or professional knowledge in the energy and carbon issues based on the large language model, and obtain corresponding solutions or responses based on the knowledge base or expert base for the stakeholders to understand, thereby promoting the effective progress of the meeting.

[0095] It is understandable that after obtaining the energy-carbon problem, the skill module is used to solve the energy-carbon problem, thereby obtaining the energy-carbon data corresponding to the energy-carbon problem, analyzing all the energy-carbon data obtained, and finally obtaining the corresponding energy-carbon implementation plan. Solving each energy-carbon problem through the skill module improves the accuracy of the energy-carbon data and the efficiency of solving the energy-carbon data.

[0096] S4: Interact with stakeholders based on the energy carbon implementation plan to obtain feedback data. Specifically, obtain the contact information of stakeholders, including mobile phones, emails, and other applications. Send the energy carbon implementation plan and interaction method to stakeholders based on the contact information, and send the energy carbon implementation plan and conference link to stakeholders through mobile phones, emails, or other applications; call the communication module to interact with stakeholders based on the energy carbon implementation plan; obtain stakeholders' feedback data based on the energy carbon implementation plan; wherein, the feedback data includes the interaction results and the stakeholders' satisfaction with the energy carbon implementation plan, and the communication module includes any one or more of the voice module, video module, and text module. Similarly, interact with stakeholders based on the energy carbon implementation plan through meetings, and obtain data with stakeholders during the interaction process through a large language model to form feedback data.

[0097] In the embodiment of the present application, after obtaining the feedback data, the method further includes:

[0098] A summary report is generated based on the feedback data. The summary report is used to characterize the interaction results, the goals achieved, and the subsequent interaction tasks. The summary report is sent to all stakeholders. Specifically, the summary report is fed back to all stakeholders for confirmation to ensure the transparency of the summary report, and further communication and collaboration with stakeholders are carried out when necessary.

[0099] It is understandable that after the energy carbon implementation plan is generated based on the energy carbon data, the energy carbon implementation plan will be sent to the stakeholders again for further interaction. The stakeholders will analyze the energy carbon implementation plan to determine that each implementation step complies with energy carbon management. The stakeholders will reply with corresponding feedback data based on the actual situation, avoiding repeated modifications due to the energy carbon implementation plan not conforming to the actual situation.

[0100] S5: Update the energy carbon implementation plan based on the feedback data to obtain the solution corresponding to the energy carbon task. Specifically, the energy carbon implementation plan is decomposed and refined step by step based on the feedback data to obtain a more specific sub-implementation plan. Interact with stakeholders based on the sub-implementation plan to confirm the feasibility of the sub-implementation plan. If some stakeholders cannot be determined, the sub-stakeholders are determined through the stakeholders or the sub-stakeholders are obtained by querying the contact list. Interact with sub-stakeholders based on the sub-implementation plan, and confirm the feasibility of the sub-implementation plan based on the interaction data of the sub-stakeholders to update the sub-implementation plan; determine the updated sub-implementation plan as the solution corresponding to the energy carbon task. Through continuous decomposition and refinement of the energy carbon implementation plan, as well as repeated communication with stakeholders and sub-stakeholders, the sub-implementation plan is updated multiple times, and the final version is confirmed as the solution corresponding to the energy carbon task.

[0101] In an embodiment of the present application, the purpose of interaction is adjusted based on feedback data; based on the adjusted purpose of interaction, the interaction with the stakeholders is performed again to update the energy carbon implementation plan; or, based on the feedback data, the stakeholders are adjusted; based on the interaction purpose, the interaction with the adjusted stakeholders is performed to update the energy carbon implementation plan; the updated energy carbon implementation plan is determined as the solution corresponding to the energy carbon task. After interacting with the stakeholders, if it is confirmed based on the feedback data that the purpose of interaction needs to be changed, the purpose of interaction is adjusted and then interacted with the stakeholders again to obtain new feedback data, and the energy carbon implementation plan is updated based on the new feedback data. Alternatively, after interacting with the stakeholders, if the stakeholders cannot provide the corresponding energy carbon data, the stakeholders are adjusted to obtain new stakeholders. After interacting with the new stakeholders, new feedback data is obtained, and the energy carbon implementation plan is updated based on the new feedback data. By repeatedly evaluating and collecting feedback from stakeholders, the interaction tasks can be adjusted continuously. Then, based on the adjusted interaction tasks, it is determined whether stakeholders need to be added or adjusted. After the stakeholder list is updated, the contact information, roles, and responsibilities of stakeholders are updated. It is worth noting that when adjusting the energy and carbon issues, the technical modules and interaction platforms also need to be adjusted or updated to obtain the final solution.

[0102] It should be noted that the project management tools mentioned in the embodiments of the present application include Asana, Trello, etc., which are used to update and track the execution of chat plans, programs, and action items. The online collaboration platforms used include Microsoft Teams, Slack, etc., which are used to communicate and collaborate with stakeholders in real time and share updated data and programs.

[0103] In an embodiment of the present application, after the updated sub-implementation plan is determined as the solution corresponding to the energy carbon task, the method further includes: evaluating the sub-implementation plan based on the energy carbon task, the interaction purpose and the feedback data to obtain an evaluation result; modifying the interaction task based on the evaluation result; updating the interaction purpose and stakeholders based on the modified interaction task; interacting with stakeholders based on the updated interaction purpose to modify the sub-implementation plan. Specifically, after the solution to the energy carbon task is finally confirmed, the solution is evaluated based on the data involved in the entire link to obtain an evaluation result. If the evaluation result meets the requirements, the solution is confirmed to be feasible; if the evaluation result does not meet the requirements, the interaction task is modified based on the evaluation result, and then the interaction purpose, stakeholders, etc. are further updated; the sub-implementation plan is modified based on the updated interaction purpose or stakeholders, and evaluated again until the evaluation result meets the requirements.

[0104] like Figure 2 , Figure 3 and Figure 6 As shown, some embodiments of the present application also provide an energy carbon management method, the method comprising:

[0105] Q1: Determine the purpose, stakeholders, chat plan and solution according to the carbon management task plan;

[0106] Q11: Determine the purpose and stakeholders of the chat according to the carbon management task plan. There may be one or more stakeholders.

[0107] Q12: Determine the chat plan and solution based on the purpose and stakeholders of the chat;

[0108] Q13: Execute chat plans and programs, update chat plans, programs, stakeholders based on deviation data, and provide feedback on goal achievement;

[0109] Q2: Execute chat plans and programs, collect stakeholder data, identify problems, call capability modules, and handle knowledge problems;

[0110] Q21: Confirm and communicate with stakeholders, contact them, and clarify task objectives and plans;

[0111] Q22: Communicate with stakeholders, collect communication data, and data submitted by stakeholders (data sets, information, etc.);

[0112] Q23: Based on the above communication data and submission data, combined with the task verification data, perform intent and / or problem identification;

[0113] Q24: Based on the above identification results, the controller calls the matching capabilities and / or knowledge to empower and assist stakeholders;

[0114] Q25: Repeat steps Q22 to Q24 to output task result data;

[0115] Q3: Update the chat plan, program, and stakeholders based on the above execution status, execute step Q2 until the task is completed, and provide feedback on the achievement of the goals.

[0116] like Figure 4 As shown, some embodiments of the present application also provide an energy carbon management method, the method comprising:

[0117] M1: The system receives the task: calculate and certify the carbon footprint of a product and obtain stakeholders;

[0118] M2: Establish connections with stakeholders, clarify overall goals and plans with general stakeholders, and clarify subtasks and plans with sub-stakeholders;

[0119] M3: Execute one or more subtask plans, call on data collection, modeling, calculation, report generation capabilities, carbon database data, call on standard knowledge, and assist stakeholders in advancing tasks;

[0120] M4: Check the completion status of each task, align feedback with stakeholders, and update the task plan until completion.

[0121] like Figure 5 As shown, some embodiments of the present application also provide an energy carbon management method, the method comprising:

[0122] N1: The system receives the task: calculate energy consumption and save energy for a project and obtain stakeholders;

[0123] N2: Establish connections with stakeholders, clarify overall goals and plans with general stakeholders, and clarify subtasks and plans with sub-stakeholders;

[0124] N3: Execute one or more subtask plans, call at least one capability among data collection, system optimization, and special energy conservation, electricity price data, generate plan data, call energy conservation and equipment knowledge, and assist stakeholders in advancing tasks;

[0125] N4: Review the completion status of each task plan, align feedback with stakeholders, and update the task plan until completion.

[0126] like Figure 7 As shown, some embodiments of the present application also provide an energy carbon management method, the method comprising:

[0127] K1: Communicate and chat with stakeholders according to the task to obtain data (including at least one of voice, text, time series data, files, pictures, and videos);

[0128] K2: Process the data and compare it with the task objectives. If there is a deviation, continue to communicate until the requirements are met or the task termination conditions are met;

[0129] K3: Integrate the acquired data and conduct energy and carbon management.

[0130] It is understandable that the energy carbon management method provided by this application determines the specific interaction purpose and stakeholders after detailed analysis and clear decomposition of energy carbon tasks; by formulating a meeting agenda, multiple stakeholders are gathered together for interaction based on a communication platform to obtain relevant energy carbon issues in energy carbon tasks; after obtaining the energy carbon issues, the energy carbon issues are solved through skill modules to obtain the energy carbon data corresponding to the energy carbon issues, and all the solved energy carbon data are analyzed to finally obtain the corresponding energy carbon implementation plan. This application will integrate multiple related departments and personnel involved in energy carbon, refine the huge and complex data, improve the efficiency of energy carbon management, and achieve comprehensive management and timely monitoring of data in energy carbon management.

[0131] like Figure 8 As shown, the embodiment of the present application also provides an energy carbon management system, adopting the energy carbon management method provided by any of the above, the system includes: a data acquisition module, a chat management module and a data output module; wherein the data acquisition module is configured to obtain energy carbon tasks; the chat management module is configured to determine the interactive tasks based on the energy carbon tasks, and the interactive tasks include the interactive purpose and stakeholders; the chat management module is also configured to interact with the stakeholders based on the interactive purpose, and obtain interactive data, and the interactive data includes energy carbon problems; the energy carbon problems are configured to generate energy carbon implementation plans; the data output module is configured to output energy carbon implementation plans; wherein the chat management module is also configured to interact with the stakeholders based on the energy carbon implementation plans, and obtain feedback data; the feedback data is configured to improve the energy carbon implementation plans to obtain solutions corresponding to the energy carbon tasks. Specifically, the data acquisition module can be used to obtain energy carbon tasks and pre-input process templates, and the energy carbon tasks can be input by the staff or obtained by extracting the corresponding keywords from the contract. According to the input energy carbon tasks and keywords combined with the knowledge base data and the process template, the energy carbon tasks are analyzed and clearly decomposed to clarify the specific purposes, expected effects and key requirements involved in the energy carbon tasks. The chat management module is used to arrange meeting agendas and share information before management interacts with stakeholders; when interacting with stakeholders, it obtains feedback data provided by stakeholders; after the meeting, it forms a summary or report based on the feedback data and sends the summary or report to stakeholders for confirmation. The data output module is mainly used to output data to stakeholders or system interfaces. The energy carbon tasks and related stakeholders are obtained through the data acquisition module, and the energy carbon tasks are refined and decomposed through the chat management module to determine the interactive tasks. Interactions are established with stakeholders based on the interactive tasks to obtain the corresponding energy carbon data. After interacting, evaluating and modifying with stakeholders, the solution to the energy carbon task is finally obtained; the solution to the energy carbon task is output through the data output module.

[0132] It can be understood that the energy carbon management system provided in the embodiment of the present application can refine and decompose energy carbon tasks, and repeatedly confirm energy carbon data with stakeholders to ultimately obtain solutions to energy carbon tasks, thereby improving the efficiency of energy carbon management and being able to comprehensively manage and timely monitor energy carbon management.

[0133] like Fig. 9 As shown, in an embodiment of the present application, the chat management module includes a chat task management module, a stakeholder management module, a problem management module and a data management module; the chat task management module is configured to generate interactive tasks based on energy carbon tasks; the stakeholder management module is configured to obtain and store stakeholders and information related to stakeholders; the problem management module is configured to obtain energy carbon problems fed back by stakeholders, and analyze the energy carbon problems to determine the type of energy carbon problems; the data management module is configured to store energy carbon implementation plans. Specifically, the chat task management module formulates a meeting agenda based on interactive tasks, arranges meeting times by using calendar tools or online meeting platforms (such as Google Calendar, Microsoft Outlook, etc.), and sends invitation notifications to relevant stakeholders, and communicates with stakeholders by calling the communication platform to obtain energy carbon data fed back by stakeholders. The problem management module is used to call the corresponding voice or text recognition module to record the voice or text content provided by the stakeholders, and organize the voice or text content into corresponding text content for storage. The data management module is used to save the acquired energy and carbon tasks, interactive tasks, stakeholder information, voice or text content of stakeholder feedback, and energy and carbon data.

[0134] It can be understood that through the chat task management module, stakeholder management module, problem management module and data management module, it is realized to obtain interactive tasks based on energy carbon task planning, and to interact with stakeholders based on interactive tasks, so as to obtain corresponding energy carbon data. The chat management module can not only manage energy carbon tasks but also manage stakeholders, thereby realizing the matching and updating of stakeholders, avoiding energy carbon data errors caused by omissions of stakeholders, and realizing the monitoring and management of stakeholders.

[0135] like Fig.10 As shown, in an embodiment of the present application, a task / plan management module is also included, and the task / plan management module is connected to the data acquisition module for acquiring data collected by the data acquisition module; the task / plan management module is connected to the chat management module for generating an energy-carbon implementation plan based on the energy-carbon problem and the data collected by the data acquisition module; the task / plan management module is connected to the data output module for outputting the generated energy-carbon implementation plan through the data output module.

[0136] It can be understood that by setting up the task / plan management module, the generated tasks / plans can be managed and monitored, avoiding omissions in the implementation of tasks / plans and ensuring comprehensive management of tasks by the system.

[0137] like Fig.11 and Fig.12 As shown, in an embodiment of the present application, it also includes an energy carbon large model module, a capability library module and a knowledge base module, and the energy carbon large model module, the capability library module and the knowledge base module are all connected to the chat management module; the energy carbon large model module includes a large language model for interacting with stakeholders to obtain interaction data and feedback data; the capability library module is used to solve the energy carbon problems in the energy carbon implementation plan through calculation or analysis when called by the chat management module; the knowledge base module is used to output corresponding professional knowledge when called by the chat management module.

[0138] It is understandable that when encountering professional problems, the corresponding answers to the questions can be searched in the knowledge base module or the capability library module through intelligent retrieval, or the corresponding skill module can be called up to solve the corresponding problems; at the same time, the corresponding energy-carbon problems can be solved by building and training a large energy-carbon model, thereby improving the efficiency of solving energy-carbon problems and avoiding inconsistencies.

[0139] like Fig.13 As shown, in an embodiment of the present application, a communication tool module is also included, which is respectively connected to the chat management module, the data acquisition module and the data output module; the communication tool module is used to interact with stakeholders when called by the chat management module; the communication tool module includes one or more of text messages, voice, video and email.

[0140] It is understandable that the communication tool module makes communication with stakeholders more convenient and efficient by providing multiple communication methods. It reduces the time and cost of communication and promotes the rapid transmission and sharing of information. Through the communication tool module, the carbon management system can interact with stakeholders in real time, provide timely feedback and communication channels, and help enhance stakeholders' participation and willingness to cooperate, and promote their active participation and support for carbon management activities.

[0141] like Fig.15 As shown, in the embodiment of the present application, a controller module is also included, and the chat management module is connected to the data acquisition module and the data output module through the controller module; or Fig.16 As shown, the controller module is connected to the chat management module, the data acquisition module and the data output module respectively; the controller module is used to receive instructions and control the chat management module, the data acquisition module or the data output module to perform corresponding steps according to the instructions.

[0142] It can be understood that the control module is a controller chip, which is used to control various modules and processes in the energy carbon management system, realize the acquisition, judgment, analysis, decomposition of data, and the call of the energy carbon large model and skill module, etc., and realize the overall management of the energy carbon management system, so that the energy carbon tasks can be carried out in an orderly manner according to the plan, and finally obtain the solution to the energy carbon task.

[0143] The energy carbon management system provided in this application interacts with relevant stakeholders in the energy carbon field through a chat management module, thereby breaking down large and complex data and tasks into small data and small tasks, thereby improving the efficiency of energy carbon management and achieving comprehensive management and timely monitoring of data in energy carbon management.

[0144] The following describes the carbon inventory management task by using the energy carbon management method provided by this application through an example:

[0145] Collect a company's energy and carbon data for one month, and perform inventory calculations and output reports in accordance with ISO14064 standards.

[0146] Users involved in the embodiments of the present application: company / organization leaders, project leaders, project members;

[0147] The service providers corresponding to the users: project managers, consultants, reviewers, and certification teams;

[0148] The service providers provided by the energy carbon management system in the embodiment of the present application include: the energy carbon management system, the energy carbon management system operators, the audit teachers, and the certification group.

[0149] Step 1: The energy carbon management system forms a prompt template based on the energy carbon task content and the knowledge base data, and generates an overall energy carbon plan based on the query model, or the energy carbon management system extracts keywords based on the energy carbon task content, searches for matching task plan template library / knowledge base to determine the overall energy carbon plan. Among them, the energy carbon task content is input by the system operator or pulled from the customer relationship management (Customer Relationship Management) / contract system.

[0150] Step 2: The operator of the energy carbon management system inputs or the energy carbon management system obtains the information and contact information of stakeholders, including the user's project leader and / or user's leader, from the database.

[0151] Step 3: The energy carbon management system calls the relevant communication module to establish contact with the stakeholders based on the information and contact information of the above stakeholders, arranges the meeting time with the stakeholders, and clarifies the theme and purpose of the meeting (confirms the project content, determines the project team members, and the overall energy carbon plan).

[0152] Step 4: The energy carbon management system prepares materials in advance, forms a prompt template based on the task content, overall plan, user information, and knowledge base data, and generates a project plan based on the query model, which can also include task instructions. The task content is used to clarify the project boundaries and implementation standards. It is necessary to sort out the emission sources of categories 1 to 6 specified in the standards within the boundaries, identify the relevant responsible departments based on the emission sources, and determine the project personnel involved based on the relevant departments. Among them, the emission sources of categories 1 to 6 include:

[0153] Category 1: Direct greenhouse gas emissions, including stationary source combustion emissions, mobile source combustion emissions, industrial process emissions, fugitive emissions, etc. within the organizational boundary;

[0154] Category 2: Indirect emissions from energy input, i.e. indirect emissions from electricity and heat input;

[0155] Category 3: Indirect emissions from transportation, including emissions from the transportation of raw materials from suppliers to the organization, emissions from the transportation of the organization's products to downstream customers, and emissions from employee commuting and travel;

[0156] Category 4: Indirect emissions from products and services used by the organization, including emissions from the manufacturing process of products purchased by the organization, emissions from the treatment of solid and liquid waste output by the organization, etc.

[0157] Category 5: Emissions related to the use of an organization's products, including emissions generated by the use of products sold by the organization throughout their life cycle, emissions related to the scrapping process of products sold by the organization, etc.

[0158] Category 6: Other indirect emission sources, special emission sources that are not included in the above five categories. This type of emission is defined by the organization itself.

[0159] Step 5: The energy carbon management system organizes the first meeting determined in step 3, calls the text and / or voice module, and displays and introduces the generated project plan, which can also include task instructions and the overall energy carbon plan. Interact with participants (i.e. stakeholders), collect energy carbon issues, combine energy carbon issue information with knowledge base data to form a prompt template, and generate question answers based on the query model.

[0160] Step 6: The energy carbon management system collects meeting feedback information and prioritizes it (according to the priority of personnel roles, the number of people who agree, etc.), eliminates contradictory information, and forms the final feedback information. Modify the project content, project team members, and the overall energy carbon plan based on the final feedback information. Or further refine the tasks (for example: divide the tasks, clarify the project leader, project members 2~n, and other stakeholders) and plans for the overall energy carbon plan to obtain subtasks and subplans. Set the priority weights for the subtasks according to the subtask data weight (for example: the subtask with large collected emission data has a heavy weight). Agree on the above content with the stakeholders (form a prompt template based on the content combined with the knowledge base data, and generate meeting reports and meeting minutes based on the query model).

[0161] Examples of project leaders and project members:

[0162] Project leader: Company safety and environmental manager;

[0163] Project members: Logistics Department Engineer, Product Project Department Project Manager, Hardware Department Engineer, Structural Department Engineer, Production Information Department Engineer, Warehousing Department Engineer, Manufacturing Department Engineer, Equipment Power Department Engineer, Supplier Management Department Specialist, Factory 1 to 3 Production Process Department Engineer.

[0164] Step 7: The energy carbon management system contacts the project leader and project members 2 to n respectively, and executes subtasks and subplans according to the methods of steps 3 to 6 above.

[0165] Step 8: When the project leader and project members 2 to n complete the subtasks, they submit the energy carbon data to the energy carbon management system. The energy carbon management system calls the data verification module to verify the energy carbon data and feeds back the verification results to the stakeholders who submitted the energy carbon data. If some stakeholders report problems, they will be handled and responded to according to the methods of steps 5 to 6.

[0166] Step 9: If the user fails to complete the task within the planned time, the system will proactively initiate communication with relevant stakeholders and notify the project leader and relevant project team members to increase the risk level data of the subtask.

[0167] Step 10: Update the overall energy carbon plan based on the energy carbon data in steps 8 and 9, sort the subtasks according to the completion status, subtask priority, and subtask risk level, and focus on managing high-priority subtasks.

[0168] Step 11: Assess the overall risk (time and quality). If the risk threshold is exceeded, synchronize the relevant information with the user side: company / organization leaders, project leaders and relevant project members, as well as energy carbon management system operators, and initiate a special meeting to promote solutions by referring to the methods of steps 3 to 6 above.

[0169] Step 12: After completing all subtasks, the carbon management system can automatically model the data according to the standards, calculate carbon emissions based on the factor library data, call the inventory generation module to generate the inventory, call the report generation module to generate the inventory report, and save the data to the database.

[0170] Step 13: If the operator of the Energy Carbon Management System has configured the certification information, the Energy Carbon Management System will notify the relevant third-party organization to conduct verification and certification, and collect feedback information by referring to the methods of steps 3 to 6 above. If certification materials (inventory, report, evidence) need to be submitted, refer to the methods of steps 3 to 6 above to communicate and modify with the user project team.

[0171] Step 14: If the carbon management system operator has configured the analysis report requirements, the corresponding analysis model module will be called according to the analysis report requirements to further analyze the inventory data and output an improved report.

[0172] Step 15: The energy carbon management system optimizes the project plan formulation algorithm based on historical database data, expands the knowledge base and project plan template library, improves the analysis model, and continuously upgrades knowledge and algorithms.

[0173] An embodiment of the present application also provides an electronic device, including a memory and a processor; the memory is used to store a computer program; the processor is used to implement any of the energy and carbon management methods described above when executing the computer program.

[0174] The above is a detailed introduction to an energy carbon management method, system and electronic device provided in the embodiments of the present application. Specific examples are used in this article to illustrate the principles and implementation methods of the present application. The description of the above embodiments is only used to help understand the technical solution and its core idea of ​​the present application. Ordinary technicians in this field should understand that they can still modify the technical solutions recorded in the aforementioned embodiments, or replace some of the technical features therein with equivalents; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the scope of the technical solutions of the embodiments of the present application.

Claims

1. A method for carbon management, characterized in that: The method comprises: Determine an interaction task based on the acquired energy and carbon task, wherein the interaction task includes an interaction purpose and stakeholders; Interacting with the stakeholder based on the interaction purpose to obtain interaction data, wherein the interaction data includes energy-carbon issues; generating an energy-carbon implementation plan based on the energy-carbon problem; Interacting with the stakeholders based on the energy carbon implementation plan to obtain feedback data; The energy carbon implementation plan is updated based on the feedback data to obtain a solution corresponding to the energy carbon task.

2. The energy carbon management method according to claim 1, characterized in that: The method of interacting with the stakeholder based on the interaction purpose to obtain interaction data includes: Establishing a meeting agenda with the stakeholders based on the interaction purpose; Send the pre-prepared communication documents to the stakeholders; Interact with the stakeholders through text or voice to obtain interaction data; The interactive data include energy-carbon issues, decision-making information and energy-carbon parameters.

3. The energy carbon management method according to claim 2, characterized in that: The purpose of the interaction includes one or more of collecting energy-carbon data, establishing energy-carbon models, formulating energy-carbon plans, discussing reducing carbon emissions, discussing energy efficiency improvements, solving technical problems, and formulating new energy-carbon management strategies.

4. The energy carbon management method according to claim 1, characterized in that: The method for generating an energy-carbon solution based on the energy-carbon problem comprises: Identify the energy-carbon problem and obtain the type of the energy-carbon problem; Based on the type, the corresponding technical module is called to analyze the energy-carbon problem to obtain an energy-carbon implementation plan; The technical modules include one or more of a knowledge base, intelligent search, a natural language processing module, a data analysis tool, an expert system or a decision support system, a carbon calculation module, an energy-carbon simulation module, an energy-saving and carbon reduction module, and an application program module.

5. The energy carbon management method according to claim 1, characterized in that: The method for interacting with the stakeholders based on the energy-carbon implementation plan to obtain feedback data includes: Obtaining contact information of the relevant person; Sending the energy carbon implementation plan and interaction method to the stakeholder based on the contact method; Calling a communication module to interact with the stakeholders based on the energy carbon implementation plan; Obtaining feedback data from the stakeholders based on the energy-carbon implementation plan; The feedback data includes the interaction results and the stakeholders' satisfaction with the energy-carbon implementation plan, and the communication module includes any one or more of a voice module, a video module and a text module.

6. The energy carbon management method according to claim 1, characterized in that: The method for updating the energy carbon implementation plan based on the feedback data to obtain a solution corresponding to the energy carbon task includes: Decomposing the energy-carbon implementation plan based on the feedback data to obtain sub-implementation plans; Interacting with the stakeholders based on the sub-implementation plan to obtain sub-stakeholders; Interacting with the sub-stakeholder based on the sub-implementation to update the sub-implementation; The updated sub-implementation plan is determined as the solution corresponding to the energy-carbon task.

7. The energy-carbon management method according to claim 6, characterized in that: After determining the updated sub-implementation plan as the solution corresponding to the energy-carbon task, the method further includes: Evaluate the sub-implementation plan based on the energy-carbon task, the interaction purpose and the feedback data to obtain an evaluation result; modifying the interactive task based on the evaluation result; updating the interaction purpose and the stakeholders based on the modified interaction task; The method further comprises interacting with the stakeholders based on the updated interaction purpose to modify the sub-implementation.

8. The energy carbon management method according to claim 1, characterized in that: The energy carbon tasks include any one of energy carbon assessment, energy carbon planning, energy use optimization, carbon emission reduction, energy carbon operation and energy carbon compliance requirements.

9. An energy carbon management system, characterized in that: According to any one of claims 1 to 8, the energy-carbon management method is adopted, wherein the system comprises: A chat management module, wherein the chat management module is configured to determine an interaction task based on the energy-carbon task, wherein the interaction task includes an interaction purpose and a stakeholder; the chat management module is further configured to interact with the stakeholder based on the interaction purpose to obtain interaction data, wherein the interaction data includes an energy-carbon problem; and the energy-carbon problem is configured to generate an energy-carbon implementation plan; A data output module, wherein the data output module is configured to output the energy carbon implementation plan; Wherein, the chat management module is also configured to interact with the stakeholders based on the energy carbon implementation plan to obtain feedback data; the feedback data is configured to improve the energy carbon implementation plan to obtain a solution corresponding to the energy carbon task.

10. The energy carbon management system according to claim 9, characterized in that: The chat management module includes a chat task management module, a stakeholder management module, a problem management module and a data management module; The chat task management module is configured to generate an interactive task based on the energy carbon task; The stakeholder management module is configured to obtain and store the stakeholders and information related to the stakeholders; The problem management module is configured to obtain the energy-carbon problem fed back by the stakeholders, and analyze the energy-carbon problem to determine the type of the energy-carbon problem; The data management module is configured to store the energy carbon implementation plan.

11. The energy carbon management system according to claim 9, characterized in that: It also includes an energy carbon model module, a capability library module and a knowledge base module, wherein the energy carbon model module, the capability library module and the knowledge base module are all connected to the chat management module; The energy carbon large model module includes a large language model, which is used to interact with the stakeholders to obtain interaction data and feedback data; The capability library module is used to solve the energy carbon problem in the energy carbon implementation plan by calculation or analysis when called by the chat management module; The knowledge base module is used to output corresponding professional knowledge when called by the chat management module.

12. An electronic device, characterized in that: It comprises a memory and a processor; the memory is used to store a computer program; the processor is used to implement the energy carbon management method according to any one of claims 1 to 9 when executing the computer program.

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