Zero-carbon monitoring management platform for park

Abstract

The invention discloses a zero-carbon monitoring management platform for a park, and the platform comprises a zero-carbon implementation scheme research module which is responsible for carrying out the planning of a park carbon neutralization path, employing an implementation strategy of demand reduction, efficiency improvement, productivity, carbon sink and control, and customizing a staged specific strategy scheme according to a park diagnosis result; constructing a carbon accounting model, summarizing total carbon data, and making a staging carbon reduction plan; meanwhile, a suitable carbon neutralization technology is researched and screened, and a refined carbon emission control scheme is formed; the system has the beneficial effects that through comprehensive application of advanced means such as zero-carbon strategy planning, digital management, a block chain technology, big data and artificial intelligence, comprehensive monitoring and effective control of carbon emission of the park are realized, and transformation and upgrading of the park to a green and low-carbon direction are promoted; and a powerful technical support and management tool is provided for achieving the zero-carbon target.

Description

Technical Field

[0001] The present invention belongs to the technical field of carbon emission monitoring and management, and in particular relates to a zero-carbon monitoring and management platform for a park. Background Art

[0002] Industrial parks are an important area of ​​carbon emissions, among which industry, construction, transportation, etc. are the main sources of carbon emissions in the parks. Whether the parks can achieve "low-carbon" or even "zero-carbon" development will directly affect the realization of the "dual carbon goals"; therefore, improving overall energy efficiency, reducing carbon emissions, optimizing the energy structure, and promoting the construction of "zero-carbon" parks will become the focus of work to implement energy conservation and emission reduction and achieve carbon peak and carbon neutrality.

[0003] A smart park zero-carbon management system and its management method with publication number CN118365263A, the patent discloses environmental monitoring equipment, energy management equipment, intelligent analysis and scheduling equipment, green energy power generation equipment and global monitoring equipment, wherein the environmental monitoring equipment is installed in the park and is used to collect park environmental parameters, the environmental monitoring equipment is connected to the intelligent analysis and scheduling equipment by signal, the environmental monitoring equipment can transmit environmental parameter data to the intelligent analysis and scheduling equipment, the energy management equipment is installed on the energy-using equipment in the park and is used to monitor the energy usage of the energy-using equipment, the energy management equipment is connected to the intelligent analysis and scheduling equipment by signal, the energy-using equipment can transmit energy usage information to the intelligent analysis and scheduling equipment, the green energy power generation equipment is used to generate electricity using wind and solar energy and store electrical energy, the intelligent analysis and scheduling equipment is used to analyze the park environmental parameters, energy usage information and power generation information, and use the park environmental parameters and power generation information to control the operation of the energy-using equipment; the global monitoring equipment is used to monitor the operation of the environmental monitoring equipment, the energy management equipment, the intelligent analysis and scheduling equipment, and the green energy power generation equipment.

[0004] The smart park zero-carbon management system and management method of CN118365263A focus more on data collection and preliminary analysis, and are insufficient in terms of overall strategic planning for achieving zero-carbon goals, detailed formulation of carbon emission reduction plans, and the use of digital technology to optimize carbon monitoring and management systems. Summary of the invention

[0005] The purpose of the present invention is to provide a zero-carbon monitoring and management platform for a park, which not only integrates environmental monitoring, energy management and green energy control functions, but also focuses on the formulation and implementation of an overall zero-carbon implementation plan.

[0006] To achieve the above purpose, the present invention provides the following technical solutions: a zero-carbon monitoring and management platform for a park, comprising

[0007] Zero-carbon implementation plan research module: responsible for planning the carbon neutrality path of the park, adopting the implementation strategy of "demand reduction-efficiency increase-capacity-carbon sink-control", and customizing specific phased strategy plans based on the park's diagnosis results; building a carbon accounting model, summarizing the full amount of carbon data, and formulating a phased carbon reduction plan; at the same time, researching and selecting suitable carbon neutrality technologies to form a refined carbon emission control plan;

[0008] Digital management platform: Build a carbon monitoring system and an energy management platform during operation, use blockchain technology to encrypt and store park-related data, and achieve effective supervision of carbon emissions and carbon assets; combine big data and artificial intelligence technologies to improve the accuracy of carbon emission data and support managers to perform accurate carbon emission accounting through online monitoring;

[0009] Technical transformation and upgrading guidance module: Provide application suggestions for low-carbon equipment, technologies and materials to promote energy efficiency improvement in the park and green and low-carbon transformation of the industry.

[0010] As a preferred technical solution of the present invention, suitable carbon neutrality technologies are studied and screened, including carbon capture, carbon storage, carbon trading, and renewable energy substitution.

[0011] As a preferred technical solution of the present invention, a specific strategy solution is customized in stages, and the corresponding contents are as follows:

[0012] Demand reduction stage: Analyze the current energy consumption patterns and carbon emission sources of the park; identify and reduce unnecessary energy consumption; promote energy-saving awareness and behavior, and encourage employees to participate in energy-saving and emission-reduction activities;

[0013] Efficiency improvement stage: improve energy efficiency; optimize the energy distribution and transmission system within the park to reduce energy loss; introduce energy management system to monitor and optimize energy use in real time;

[0014] Capacity phase: Assess the potential for renewable energy within the park; install and expand renewable energy generation facilities; consider collaboration with external renewable energy suppliers;

[0015] Carbon sink stage: Research carbon sink opportunities inside and outside the park; implement carbon sink projects to offset the carbon emissions that are difficult to reduce within the park; explore carbon trading and carbon compensation mechanisms to promote carbon emission reduction through economic means;

[0016] Control phase: Establish a comprehensive carbon emissions monitoring system to ensure accurate tracking and reporting of carbon emissions; set clear carbon emissions reduction targets and develop a roadmap to achieve these targets; regularly evaluate carbon emissions reduction progress and adjust strategies as needed.

[0017] As a preferred technical solution of the present invention, improving energy efficiency includes upgrading equipment and adopting a more efficient energy system.

[0018] As a preferred technical solution of the present invention, the corresponding contents of constructing the carbon accounting model include:

[0019] Clarify the purpose of carbon accounting and define the geographical scope of accounting;

[0020] Delineating accounting boundaries;

[0021] Identify sources of carbon emissions;

[0022] Collect carbon data;

[0023] Select accounting method;

[0024] Constructing accounting models;

[0025] Establishing data collection and processing systems;

[0026] Construct accounting formulas and models;

[0027] By using information technology, the accounting model is integrated into the park's management information system to achieve automatic data collection, processing and accounting.

[0028] As a preferred technical solution of the present invention, the geographical scope of accounting is defined to include all buildings, facilities, activities within the park and the external supply chain links involved.

[0029] As a preferred technical solution of the present invention, the divided accounting boundaries include physical boundaries, management boundaries, economic statistics boundaries, and flow analysis boundaries.

[0030] As a preferred technical solution of the present invention, a carbon monitoring system and an energy management platform during operation are constructed, and blockchain technology is used to encrypt and store park-related data to achieve effective supervision of carbon emissions and carbon assets; big data and artificial intelligence technologies are combined to improve the accuracy of carbon emission data, and managers are supported to perform accurate carbon emission accounting through online monitoring. The implementation method is as follows:

[0031] Identify the carbon emission sources to be monitored; define the geographical scope of monitoring; install sensors and monitoring equipment at key emission points to collect carbon emission data in real time;

[0032] The data collected by the monitoring equipment is transmitted to the data center in real time; the data is encrypted and stored using blockchain technology to ensure the security and non-tamperability of the data;

[0033] Establish a park energy management platform that integrates energy monitoring, dispatching, and analysis functions to achieve comprehensive monitoring and management of energy use within the park;

[0034] Use big data technology to conduct in-depth analysis of energy usage data to identify energy-saving potential and waste points; optimize energy distribution and usage strategies through artificial intelligence algorithms to improve energy utilization efficiency;

[0035] Store key information such as carbon emission data and energy usage data on the chain; use the distributed ledger characteristics of blockchain to ensure data transparency and traceability; use encryption algorithms to encrypt sensitive data;

[0036] Use big data technology to clean and preprocess raw data to remove outliers and noise;

[0037] Apply artificial intelligence algorithms to conduct in-depth mining and analysis of carbon emission data; establish a carbon emission prediction model to provide decision support for managers.

[0038] Compared with the prior art, the present invention has the following beneficial effects:

[0039] By comprehensively using advanced means such as zero-carbon strategy planning, digital management, blockchain technology, big data and artificial intelligence, we have not only achieved comprehensive monitoring and effective control of the park's carbon emissions, but also promoted the park's transformation and upgrading towards a green and low-carbon direction, providing strong technical support and management tools for achieving zero-carbon goals. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 It is a schematic diagram of the present invention. DETAILED DESCRIPTION

[0041] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0042] Example 1

[0043] See also Figure 1 , which is the first embodiment of the present invention, and provides a zero-carbon monitoring and management platform for a park, including

[0044] Zero-carbon implementation plan research module: responsible for planning the carbon neutrality path of the park, adopting the implementation strategy of "demand reduction-efficiency increase-capacity-carbon sink-control", and customizing specific phased strategy plans based on the park's diagnosis results; building a carbon accounting model, summarizing the full amount of carbon data, and formulating a phased carbon reduction plan; at the same time, researching and selecting suitable carbon neutrality technologies, including carbon capture, carbon storage, carbon trading, and renewable energy substitution, to form a refined carbon emission control plan;

[0045] Digital management platform: Build a carbon monitoring system and an energy management platform during operation, use blockchain technology to encrypt and store park-related data, and achieve effective supervision of carbon emissions and carbon assets; combine big data and artificial intelligence technologies to improve the accuracy of carbon emission data and support managers to perform accurate carbon emission accounting through online monitoring;

[0046] Technical transformation and upgrading guidance module: Provide application suggestions for low-carbon equipment, technologies and materials to promote energy efficiency improvement in the park and green and low-carbon transformation of the industry.

[0047] In this embodiment, preferably, a specific strategy scheme is customized in stages, and the corresponding contents are as follows:

[0048] Demand reduction stage: Analyze the current energy consumption patterns and carbon emission sources of the park; identify and reduce unnecessary energy consumption by improving operating procedures and optimizing equipment use; promote energy-saving awareness and behavior, and encourage employees to participate in energy-saving and emission-reduction activities;

[0049] Efficiency improvement stage: Improve energy efficiency by upgrading equipment and adopting more efficient energy systems; optimize the energy distribution and transmission system within the park to reduce energy losses; introduce energy management systems to monitor and optimize energy use in real time;

[0050] Capacity phase: Assess the potential of renewable energy within the park, such as solar and wind power; install and expand renewable energy generation facilities, such as solar panels and wind turbines; consider cooperation with external renewable energy suppliers to ensure a stable supply of green energy;

[0051] Carbon sink stage: Research carbon sink opportunities inside and outside the park, such as afforestation and soil carbon sequestration; implement carbon sink projects to offset the carbon emissions that are difficult to reduce within the park; explore carbon trading and carbon compensation mechanisms to promote carbon emission reduction through economic means;

[0052] Control phase: Establish a comprehensive carbon emissions monitoring system to ensure accurate tracking and reporting of carbon emissions; set clear carbon emissions reduction targets and develop a roadmap to achieve these targets; regularly evaluate carbon emissions reduction progress and adjust strategies as needed.

[0053] Example 2

[0054] See also Figure 1 , which is the second embodiment of the present invention, is based on the previous embodiment, except that:

[0055] The corresponding contents of building a carbon accounting model include:

[0056] I. Clarify the scope and boundaries of accounting

[0057] Determine the accounting scope:

[0058] The purpose of carbon accounting is to understand the overall carbon emissions of the park;

[0059] Define the geographical scope of accounting, including all buildings, facilities, activities within the park and external supply chain links;

[0060] Demarcate accounting boundaries:

[0061] Physical boundaries: the actual jurisdiction of the park;

[0062] Management boundary: the scope of control and influence that the park management agency can exert;

[0063] Economic statistical boundary: the statistical scope based on economic activities, including related enterprises inside and outside the park;

[0064] Flow analysis boundary: used to analyze the boundary of material flow, energy flow, value flow and carbon flow, which can involve a wider area;

[0065] 2. Identify carbon emission sources

[0066] Direct emission sources: greenhouse gas emissions directly generated by facilities within the park, such as fossil fuel combustion, industrial production process emissions, etc.;

[0067] Indirect emission sources: emissions indirectly generated by park activities, such as emissions from the production of purchased electricity and heat;

[0068] Other indirect emissions: emissions generated by upstream and downstream activities in the supply chain, such as raw material procurement, product sales and transportation;

[0069] 3. Collecting Carbon Data

[0070] Energy consumption data: including the consumption of various fossil fuels, electricity and heat usage, etc.;

[0071] Production activity data: data related to industrial production processes, such as raw material usage, product output, etc.;

[0072] Supply chain data: data related to upstream and downstream activities in the supply chain, such as carbon emissions from raw material suppliers, carbon emission factors from transportation methods, etc.

[0073] 4. Select the accounting method

[0074] Emission factor method: the most commonly used accounting method, which calculates emissions by multiplying activity data by emission factors;

[0075] Mass balance method: Applicable to certain specific industrial processes, it calculates emissions by measuring the mass changes of material inputs and outputs;

[0076] Actual measurement method: directly measuring the emission of emission sources, applicable to situations where actual measurement is possible;

[0077] 5. Building an accounting model

[0078] Establish data collection and processing system: ensure the accuracy, completeness and traceability of data;

[0079] Construct accounting formulas and models: Construct corresponding accounting formulas and models based on the identified emission sources and selected accounting methods;

[0080] Integration and automation: Using information technology, the accounting model is integrated into the park's management information system to achieve automatic data collection, processing and accounting;

[0081] VI. Summarizing all carbon data

[0082] Periodic accounting: accounting is performed according to a set time period (such as annual or quarterly) to ensure the timeliness and accuracy of the data;

[0083] Data aggregation and analysis: Aggregate emissions from various emission sources to form a full carbon data report, and conduct in-depth data analysis to identify key emission sources and emission reduction potential.

[0084] In this embodiment, preferably, a carbon monitoring system and an energy management platform during operation are constructed, and blockchain technology is used to encrypt and store park-related data to achieve effective supervision of carbon emissions and carbon assets; big data and artificial intelligence technologies are combined to improve the accuracy of carbon emission data, and managers are supported to perform accurate carbon emission accounting through online monitoring. The implementation method is as follows:

[0085] Identify the carbon emission sources to be monitored; define the geographical scope of monitoring; install sensors and monitoring equipment at key emission points to collect carbon emission data in real time;

[0086] The data collected by the monitoring equipment is transmitted to the data center in real time; the data is encrypted and stored using blockchain technology to ensure the security and non-tamperability of the data;

[0087] Establish a park energy management platform that integrates energy monitoring, dispatching, and analysis functions to achieve comprehensive monitoring and management of energy use within the park;

[0088] Use big data technology to conduct in-depth analysis of energy usage data to identify energy-saving potential and waste points; optimize energy distribution and usage strategies through artificial intelligence algorithms to improve energy utilization efficiency;

[0089] Store key information such as carbon emission data and energy usage data on the chain; use the distributed ledger characteristics of blockchain to ensure data transparency and traceability; use encryption algorithms to encrypt sensitive data;

[0090] Use big data technology to clean and preprocess raw data to remove outliers and noise;

[0091] Apply artificial intelligence algorithms to conduct in-depth mining and analysis of carbon emission data; establish a carbon emission prediction model to provide decision support for managers.

[0092] Although the embodiments of the present invention have been shown and described, as detailed above, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A zero-carbon monitoring and management platform for a park, characterized by: include Zero-carbon implementation plan research module: responsible for planning the carbon neutrality path of the park, adopting the implementation strategy of "demand reduction-efficiency increase-capacity-carbon sink-control", and customizing specific phased strategy plans based on the park's diagnosis results; building a carbon accounting model, summarizing the full amount of carbon data, and formulating a phased carbon reduction plan; at the same time, researching and selecting suitable carbon neutrality technologies to form a refined carbon emission control plan; Digital management platform: Build a carbon monitoring system and an energy management platform during operation, use blockchain technology to encrypt and store park-related data, and achieve effective supervision of carbon emissions and carbon assets; combine big data and artificial intelligence technologies to improve the accuracy of carbon emission data and support managers to perform accurate carbon emission accounting through online monitoring; Technical transformation and upgrading guidance module: Provide application suggestions for low-carbon equipment, technologies and materials to promote energy efficiency improvement in the park and green and low-carbon transformation of the industry.

2. According to claim 1, a zero-carbon monitoring and management platform for a park is characterized by: Research and screen suitable carbon neutral technologies, including carbon capture, carbon storage, carbon trading, and renewable energy alternatives.

3. According to claim 1, a zero-carbon monitoring and management platform for a park is characterized by: Customize the specific strategy plan in different stages. The corresponding contents are as follows: Demand reduction stage: Analyze the current energy consumption patterns and carbon emission sources of the park; identify and reduce unnecessary energy consumption; promote energy-saving awareness and behavior, and encourage employees to participate in energy-saving and emission-reduction activities; Efficiency improvement stage: improve energy efficiency; optimize the energy distribution and transmission system within the park to reduce energy loss; introduce energy management system to monitor and optimize energy use in real time; Capacity phase: assessing the potential for renewable energy within the park; Install and expand renewable energy generation facilities; consider collaboration with external renewable energy suppliers; Carbon sink stage: Research carbon sink opportunities inside and outside the park; implement carbon sink projects to offset the carbon emissions that are difficult to reduce within the park; explore carbon trading and carbon compensation mechanisms to promote carbon emission reduction through economic means; Control phase: Establish a comprehensive carbon emissions monitoring system to ensure accurate tracking and reporting of carbon emissions; set clear carbon emissions reduction targets and develop a roadmap to achieve these targets; regularly evaluate carbon emissions reduction progress and adjust strategies as needed.

4. According to claim 3, a zero-carbon monitoring and management platform for a park is characterized by: Improving energy efficiency includes upgrading equipment and adopting more efficient energy systems.

5. The zero-carbon monitoring and management platform for a park according to claim 1 is characterized by: The corresponding contents of building a carbon accounting model include: Clarify the purpose of carbon accounting and define the geographical scope of accounting; Delineating accounting boundaries; Identify sources of carbon emissions; Collect carbon data; Select accounting method; Constructing accounting models; Establishing data collection and processing systems; Construct accounting formulas and models; By using information technology, the accounting model is integrated into the park's management information system to achieve automatic data collection, processing and accounting.

6. The zero-carbon monitoring and management platform for a park according to claim 5 is characterized by: Define the geographical scope of accounting, including all buildings, facilities, activities within the park and external supply chain links involved.

7. The zero-carbon monitoring and management platform for a park according to claim 5 is characterized by: The accounting boundaries described include physical boundaries, management boundaries, economic statistics boundaries, and flow analysis boundaries.

8. The zero-carbon monitoring and management platform for a park according to claim 1 is characterized by: Build a carbon monitoring system and an energy management platform during operation, use blockchain technology to encrypt and store park-related data, and achieve effective supervision of carbon emissions and carbon assets; combine big data and artificial intelligence technology to improve the accuracy of carbon emission data, and support managers to perform accurate carbon emission accounting through online monitoring. The implementation method is as follows: Identify the carbon emission sources to be monitored; define the geographical scope of monitoring; install sensors and monitoring equipment at key emission points to collect carbon emission data in real time; The data collected by the monitoring equipment is transmitted to the data center in real time; the data is encrypted and stored using blockchain technology to ensure the security and non-tamperability of the data; Establish a park energy management platform that integrates energy monitoring, dispatching, and analysis functions to achieve comprehensive monitoring and management of energy use within the park; Use big data technology to conduct in-depth analysis of energy usage data to identify energy-saving potential and waste points; optimize energy distribution and usage strategies through artificial intelligence algorithms to improve energy utilization efficiency; Store key information such as carbon emission data and energy usage data on the chain; use the distributed ledger characteristics of blockchain to ensure data transparency and traceability; use encryption algorithms to encrypt sensitive data; Use big data technology to clean and preprocess raw data to remove outliers and noise; Apply artificial intelligence algorithms to conduct in-depth mining and analysis of carbon emission data; establish a carbon emission prediction model to provide decision support for managers.

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