Carbon emission information integrated monitoring system

Abstract

The invention provides a carbon emission information integrated monitoring system. Carbon emission information obtained from enterprises of a plurality of industrial departments such as energy conversion, transportation, construction and factories is managed according to the industrial departments and is managed in the country in a unified mode, visual monitoring is achieved through a customized display screen aiming at the characteristics of all the industrial departments, meanwhile, effective carbon emission management is achieved, and the carbon emission management efficiency is improved. An information collection unit that collects carbon emission information from enterprises and individuals; the information transmission part is used for transmitting the information collected by the information collection part to a carbon emission management system; an information management unit that receives carbon emission amount information from the carbon emission amount collection unit; a carbon emission prediction unit for predicting the carbon emission in units of enterprises or individuals on the basis of the information collected by the basic information management unit; and providing the carbon emission information predicted by the basic carbon emission prediction part to a comprehensive condition room server and a terminal so as to generate and display carbon emission information of converted energy, transportation, construction and factory departments and national overall carbon emission information.

Description

Technical Field

[0001] This invention relates to a comprehensive carbon emission information monitoring system.

[0002] This invention provides more detailed management of carbon emission information obtained from enterprises in multiple industrial sectors, such as energy conversion, manual labor, construction, and factories, by industry sector and integrates it at the national level to achieve carbon emission reduction nationwide. Background Technology

[0003] Rapid industrialization is a major factor contributing to severe environmental damage. Hazardous emissions from various industries can pollute the atmosphere, water, and land. In developed countries, emission monitoring and reporting rules apply to various industries, and therefore strict emission monitoring and restrictions are being implemented. However, in emerging industrial countries, emerging economies, and developing countries, there is a tendency to postpone efforts to minimize environmental impacts, such as emission limits.

[0004] However, due to global pressure, developing countries, including China and India, are also raising awareness among their authorities about complying with environmental restrictions or their policies, such as emission limits.

[0005] Greenhouse gas emission sources involved in greenhouse gas energy target management and carbon emission trading systems can be broadly categorized into buildings, industries, and transportation.

[0006] Furthermore, the total carbon emissions allocated to a company by the government do not take into account the characteristics of the individual energy-consuming equipment owned by the company, but are allocated based on broad categories such as the company's size and industry.

[0007] In addition, certain companies, such as those in the passenger transport industry, need to investigate energy usage within buildings, such as their own buildings, not just vehicles. They also need to conduct comprehensive management of multiple subsidiaries belonging to the individual company and report to the national authorities.

[0008] Therefore, some enterprises need to use the total energy allocated by the state as a standard to allocate target values ​​for individual energy-consuming equipment within the enterprise, and perform other additional work.

[0009] However, traditional EMS systems only focus on simply monitoring and tracking the total carbon emissions allocated to enterprises. In reality, a method or system is needed to flexibly control the total carbon emissions allocated to enterprises based on their nature or policies.

[0010] Korean Patent Publication No. 10-2014-0101469 discloses a system for managing carbon emission targets and reducing emissions from the movement, buildings, and industrial sectors of an enterprise. This system establishes emission targets for each element of the enterprise, based on the total carbon emissions obtained from the national authorities, and allocates these targets to all energy consumption factors owned by the enterprise. The system includes: an emission target setting unit that allocates the total carbon emissions to each consumption factor and stores emission target DBs for each element; an emission element DB containing a complete list and attributes of energy consumption elements that can emit greenhouse gases from the enterprise; a system that converts the carbon emissions of each consumption factor into emissions equivalent to the energy units used by each consumption factor or the amount stored in tons of carbon dioxide; and an emission monitoring unit that monitors total energy consumption and greenhouse gas emissions based on the consumption factors. This system, characterized by its inclusion of components, manages the total emissions for each period based on the emission reduction target value set by the enterprise or institution, sets emission targets based on the weights of the consumption factors included in the enterprise, and manages the carbon emissions of each consumption factor to monitor their approach to the emission targets, thereby controlling the total carbon emissions.

[0011] Korean Patent Registration No. 10-1819176 discloses a greenhouse gas information collection device for collecting greenhouse gas information from various port entities; a greenhouse gas monitoring device for managing greenhouse gas emissions, current greenhouse gas emission status, and greenhouse gas emission targets based on the collected greenhouse gas information; and a greenhouse gas emission status assessment device based on the greenhouse gas emission status managed by the greenhouse gas monitoring device, including a greenhouse gas emission reduction potential assessment device for monitoring the progress of greenhouse gas emission reduction projects. The greenhouse gas monitoring device calculates greenhouse gas emissions based on the greenhouse gas information collected by the greenhouse gas information collection device, provides statistical data on greenhouse gas emissions calculated from the emissions, sets corresponding greenhouse gas emission statuses for greenhouse gas emission reduction targets, and provides an assessment of greenhouse gas emission reduction potential based on the greenhouse gas emission reduction plan. Based on the current emission status, simulations are used to understand the emission reduction effects during the implementation of greenhouse gas emission reduction projects. The system monitors and provides feedback on the results of actual greenhouse gas emission reduction efforts. The greenhouse gas monitoring device is based on greenhouse gas information collected by the greenhouse gas information collection device. It includes a greenhouse gas emission calculation unit that calculates greenhouse gas emissions for each type of greenhouse gas according to business processes; a greenhouse gas emission control unit that uses the greenhouse gas emission calculation unit to calculate greenhouse gas emissions for each business process and provides the current status of greenhouse gas emissions based on the business processes; and a greenhouse gas emission target management unit that uses the greenhouse gas emission status provided by the greenhouse gas emission control unit to include greenhouse gas emission target setting, implementation items, and target achievement. The greenhouse gas emission reduction potential assessment device is equipped with greenhouse gas filters that can filter corresponding greenhouse gases according to their types. It also confirms whether the greenhouse gas emissions of each business process have reached the predetermined targets after a specific period and collects information on greenhouse gas emissions and emission reduction effects from each entity based on the emission reduction results. Greenhouse gas information is collected using standard information, and then greenhouse gas emissions are calculated and provided for continuous management of greenhouse gas records.

[0012] Korean Patent Publication No. 10-2024-0068516 discloses a summary data input unit for receiving summary data of a construction site; an activity data input book for receiving activity data of the construction site; a greenhouse gas emission data input unit that inputs relevant greenhouse gas emission data for each activity data of the construction site based on the activity data input through the activity data; a construction site data collection server that constructs collected data through the summary data, the activity data, and the greenhouse gas emission data; and a greenhouse gas emission analysis unit that calculates the greenhouse gas emissions of a new construction site using an LSTM (Long-Short Term Memory) model based on the collected data; and a greenhouse gas emission prediction system for construction sites, which includes a greenhouse gas emission prediction system for construction sites. Through a user-friendly construction site carbon emission calculation and prediction management platform, users can conveniently collect and input on-site activity data at construction sites, analyze the calculation and prediction results of greenhouse gas emissions, and then automatically output the results in the system in the form of reports to achieve the national carbon neutrality policy for the construction industry.

[0013] Existing technical documents

[0014] Patent documents

[0015] (Patent Document 0001) Korean Patent Publication No. 10-2014-0101469 (Published on August 20, 2014, Title: Carbon Emission Target Management and Emission Reduction Monitoring System Based on Consumption Factors)

[0016] (Patent Document 0002) Republic of Korea Patent Registration No. 10-1819176 (Registered on January 10, 2018, Title: Port Carbon Management Method and Operating System)

[0017] (Patent Document 0003) Korean Patent Publication No. 10-2024-0068516 (Published on May 17, 2024, Title: Greenhouse Gas Emission Prediction System and Method in the Building Sector) Summary of the Invention

[0018] The problem that the invention aims to solve

[0019] The purpose of this invention is to manage carbon emission information obtained from enterprises in multiple industrial sectors such as energy conversion, transportation, construction, and factories, according to industrial sectors, and to integrate and manage it at the national level, so as to achieve carbon emission reduction at the national level. This is achieved through a carbon emission information integrated monitoring system that provides intuitive monitoring and effective carbon emission management by tailoring the display to the characteristics of each industrial sector.

[0020] The technical issues of this invention are not limited to those mentioned above. Other unmentioned technical issues can be clearly understood by the owner from the following description.

[0021] means for solving problems

[0022] To achieve the aforementioned objective, the carbon emission information integrated monitoring system of the present invention includes:

[0023] An information collection department that gathers encrypted carbon emission information from businesses and individuals;

[0024] The information collected by the information collection unit is transmitted to the information transmission unit of the carbon emission management system; the carbon emission collection unit is composed of [missing information].

[0025] An information management unit that receives carbon emission information from the carbon emission collection unit;

[0026] Based on the information collected by the Information Management Department, the Carbon Emission Prediction Department predicts carbon emissions on a corporate or individual basis.

[0027] The carbon emission forecasting information is provided to the integrated status room server and terminals to generate and display carbon emission information for the energy conversion, transportation, construction, and manufacturing sectors, as well as overall national carbon emission information; and

[0028] The carbon emission information is stored in a management information database, organized by enterprise and individual, and categorized by industry sector.

[0029] The integrated status room server is a server that can provide multilingual support. Its feature is that it divides carbon emission information obtained by enterprises and individuals belonging to specific industry sectors into industry sector information and national overall information, driving the display so as to carry out integrated management at the national level.

[0030] In this invention, the information processed by the comprehensive status room server is divided into solar power generation, wind power generation, biomass, hydrogen energy, and energy storage systems. It also includes the overall progress, progress of energy conversion policies, monthly progress trends, and comparisons of the implementation rates of various local governments to generate comprehensive carbon emission information.

[0031] The transportation sector is divided into cars, vans, trucks, and special vehicles. It generates and processes total carbon emissions, number of registered vehicles, average mileage, carbon reduction targets, and monthly carbon reduction trends by integrating carbon emission information.

[0032] The building sector is divided into municipal governments, libraries, stadiums, apartments, commercial streets, and residences. It generates and processes comprehensive carbon emission information based on different types of average emission reduction rates, including total electricity consumption, total carbon emissions, average emission reduction rates, public institutions, and citizen participation.

[0033] The factory department is categorized by each factory. Its characteristic is that it processes information on total carbon emissions, electricity, heat, transportation emissions, the proportion of each emission source such as electricity, heat, production, and transportation, monthly carbon emission trends, and comparative information on emissions from each factory to generate comprehensive carbon emission information.

[0034] In this invention, the comprehensive status room server is located in the upper area, where total carbon emissions, year-on-year emission reduction rate, proportion of renewable energy, and per capita emissions are represented numerically.

[0035] The lower section is divided into two areas, left and right, which respectively display the carbon emissions of each region and the carbon emissions of each sector.

[0036] The carbon emissions of each region are displayed as circular graphs with different colors for each region, and the proportions are also displayed in numerical form. The carbon emissions of each sector are displayed as bar charts with specified colors on the drive display.

[0037] In this invention, the integrated status room server displays the monthly carbon emission reduction trend in the upper area.

[0038] The lower section features detailed information for each region. If a specific region is selected, the display will show the region's carbon emissions, year-on-year emission reduction rate, and figures for major emitting sectors.

[0039] In this invention, the integrated status room server

[0040] In the left-hand area, the overall progress of each local government is displayed as circular graphics and numerical values ​​of different colors.

[0041] Its feature is that the drive display digitally shows the policy progress of each local government in the right-hand area.

[0042] Invention Effects

[0043] According to the carbon emission information integrated monitoring system of the present invention, carbon emission information obtained from enterprises in multiple industrial sectors such as energy conversion, transportation, construction, and factories is managed by industrial sectors and integrated at the national level, thereby achieving carbon emission reduction at the national level. Through customized display tailored to the characteristics of each industrial sector, intuitive monitoring is achieved, and effective carbon emission management is realized at the same time.

[0044] This means tracking carbon emissions in real time across various industrial sectors such as energy, transportation, construction, and factories, accurately predicting carbon emissions based on AI, and proposing the best emission reduction strategies.

[0045] In addition to the above, the specific effects of the present invention will be described in conjunction with the explanation of the specific matters of implementing the invention below. Attached Figure Description

[0046] Figure 1 and Figure 2 This is a schematic diagram of a carbon emission information integrated monitoring system according to an embodiment of the present invention.

[0047] Figure 3 This is a network diagram showing the connections between the comprehensive situation offices of various industry sectors and the national comprehensive situation office.

[0048] Figure 4 This is a flowchart of the operation of a carbon emission information integrated monitoring system according to an embodiment of the present invention.

[0049] Figure 5 This is a diagram illustrating the composition of a carbon emission information integrated monitoring system according to an embodiment of the present invention.

[0050] Figure 6 The screen shows the situation in the energy sector.

[0051] Figure 7 This is a view of the transportation department's situation room.

[0052] Figure 8 This is a view of the building department's situation room.

[0053] Figure 9 and Figure 10 This is footage from the factory's departmental information room.

[0054] Figures 11 to 13 This is footage from the National Comprehensive Situation Room.

[0055] The drawings illustrate specific embodiments of the invention, which are described in more detail below. These drawings are not intended to limit the scope of the invention in any way, but are provided to enable those skilled in the art to understand the concept of the invention by referring to particular embodiments.

[0056] Explanation of reference numerals in the attached figures

[0057] 1, 2: Comprehensive Status Room 10: Enterprise / Personal Terminals

[0058] 20: Carbon Emissions Collection Department 21: Information Collection Department

[0059] 22: Information Transmission Department; 30: Carbon Emission Management System

[0060] 31: Information Management Department; 32: Carbon Emission Prediction Department

[0061] 33: Information Provision Department 34: Management Information Database

[0062] 40: Status control room display screen; 50: Terminal Detailed Implementation

[0063] This invention can be modified in many ways and can take many forms. Specific implementation examples will be shown in the figures and described in detail herein.

[0064] However, this is not intended to limit the invention to a specific form of initiation, but should be understood to include all modifications, equivalents or substitutions within the scope of the inventive concept and technology.

[0065] The terminology used in this application is for illustrative purposes only and is not intended to limit the invention. Singular expressions include plural expressions unless the context clearly distinguishes them.

[0066] Unless otherwise defined, all terms used herein, including technical or scientific terms, have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains.

[0067] Terms defined in commonly used dictionaries should be interpreted as having a meaning consistent with the meaning in the context of the relevant art, and should not be interpreted as having an ideal or overly formal meaning unless explicitly defined in this application.

[0068] The following is a detailed description of the present invention with reference to the accompanying drawings of embodiments.

[0069] Figure 1 and Figure 2 This is a schematic diagram of a carbon emission information integrated monitoring system according to an embodiment of the present invention. Figure 3 This is a network diagram showing the connections between the comprehensive situation offices of various industry sectors and the national comprehensive situation office. Figure 4 This is a flowchart illustrating the operation of the integrated carbon emission information monitoring system according to an embodiment of the present invention. Figure 5 This is a diagram illustrating the composition of a carbon emission information integrated monitoring system according to an embodiment of the present invention. Figure 6 This is a screenshot from the Energy Conversion Department's information room. Figure 7 This is a view of the transportation department's situation room. Figure 8 This is a view from the construction department's information room. Figure 9 and Figure 10 This is a view of the factory department's situation room. Figures 11 to 13 This is footage from the National Comprehensive Situation Room.

[0070] This invention manages carbon emission information by categorizing it into energy conversion, transportation, construction, and industrial sectors. Combined with monitoring mechanisms on a national integrated status server, it allows for real-time viewing of carbon emission information. This enables various industrial sectors and the nation as a whole to manage and reduce carbon emissions. Furthermore, it provides carbon emission information to individual terminals and businesses, including those connected to wired communication networks. This provides an integrated carbon emission information management solution for practical application.

[0071] Above, it is designated as the energy conversion sector, transportation sector, construction sector, and factory (industry) sector, but is not necessarily limited to these industrial sectors.

[0072] This invention employs a multilingual system that supports multiple languages, including Korean, English, Chinese, Japanese, and Spanish, and allows for the reflection of international standards and national carbon policies. It consists of cloud-based services and can be accessed from anywhere in the world.

[0073] like Figure 1 and Figure 2 As shown, the carbon emission information integration management server installed on the national comprehensive status room (server) for comprehensive management of carbon emission information runs the national unified carbon emission information database (DB). It divides the various carbon emission information stored in the comprehensive carbon emission information database into carbon emission information of various industrial sectors such as energy conversion, transportation, construction, and factories, and manages and displays it in multiple forms. After national unification, it is displayed and managed.

[0074] The comprehensive carbon emission information database of the carbon emission information management server set up by the National Comprehensive Status Office generates database codes for carbon emission information of enterprises under each industry sector. Using these generated carbon emission information, after an object filtering process, they can be stored as unique information for each enterprise.

[0075] The national integrated status room can comprehensively manage carbon emission information from energy conversion, transportation, buildings, and factories, based on multiple languages. It generates and displays status room screens for these sectors, including necessary or basic information such as representative name, company name, company registration, contact information, industry classification code, and ID / PW, as well as industry classification information for energy conversion, transportation, buildings, and factories. This provides detailed information on total carbon emissions, annual emission reductions, per capita emissions, emissions from various industry sectors, and industry-specific emissions. After generation, AI-based analysis and prediction, real-time calculation of key performance indicators for each industry, anomaly detection and alerts, customized charts and graphs for each industry, future carbon emission predictions, and the automatic generation of improvement measures to achieve carbon reduction targets are all integrated and communicated to companies in each industry sector, thereby achieving nationwide carbon reduction goals.

[0076] To this end, companies in various industrial sectors can transmit carbon emission information to the National Integrated Status Office through the Internet of Things (IoT) environment.

[0077] As another example, carbon emission information from companies in various industry sectors can also be compiled separately by the integrated status offices of each industry sector, so that the integrated status offices of each industry sector can manage it.

[0078] In other words, just as Figure 3As shown, a network is formed between the comprehensive status rooms 10 of each industry sector and the national comprehensive status room 20. Each enterprise can send the carbon emission information collected in real time through the Internet of Things environment to the comprehensive status room 10 of its department. The comprehensive status rooms 10 of each industry sector can be reconfigured to send carbon emission information to the national comprehensive status room 20.

[0079] In all embodiments mentioned in this invention, such as Figure 4 As shown, information such as AI-based analysis and prediction of carbon emissions, real-time calculation of core performance indicators of various departments, detection and alarm of abnormal signs, customized charts and chart generation of data from various departments, and prediction of future carbon emissions will be visualized and monitored. After identifying the areas that need improvement to achieve the carbon emission reduction target, by making this information known to all parties, the national carbon emission reduction target can be achieved.

[0080] like Figure 5 As shown, according to an embodiment of the present invention, the carbon emission information integrated monitoring system may consist of an enterprise / individual terminal 10, a carbon emission collection unit 20, a carbon emission management system 30, a comprehensive status room monitor 40, and a management terminal 50.

[0081] The carbon emission collection unit 20 may include an information transmission unit 21 and an information collection unit 22.

[0082] The information collection unit 22 collects carbon emission information from enterprises / individuals 10, and the information transmission unit 21 sends the information collected by the information collection unit 22 to the carbon emission management system 30.

[0083] The carbon emission management system 30 may include an information management department 31, a carbon emission prediction department 32, an information provision department 33, and a management information database 34.

[0084] Information Management Department 31 receives carbon emission information from Carbon Emission Collection Department 20.

[0085] The carbon emission prediction unit 32 predicts carbon emissions on a per-enterprise or per-individual basis, based on information collected by the information management unit 31.

[0086] The information provision unit 33 provides the carbon emission information predicted by the carbon emission prediction unit 32 to the integrated status room monitor 40 and terminal 50 so that each industry sector can generate and display carbon emission information screens and the national integrated status room screen.

[0087] DB34 Management Information can database and store past carbon emission information in enterprises, individuals, or various industry sectors.

[0088] This invention, constructed in this way, is based on a microservice architecture consisting of IoT devices, APIs, ETL and other data collection layers, real-time stream processing, batch processing and other data processing layers, big data analysis, AI model training and inference and other analysis layers, RESTful APIs, GraphQL and other application layers, reactive web interfaces, mobile applications and other demonstration layers, which can provide scalability, flexibility and fault isolation.

[0089] In addition, large amounts of data can be processed and stored efficiently through data lakes (such as raw data storage and management), data warehouses for structured data analysis, time-series databases for storing time-series information such as sensor data, and Redis available memory caches for fast data access.

[0090] In addition, it employs encryption technologies such as TLS / SSL and data encryption (AES-256), authentication and access control technologies such as OAuth 2.0 and JWT, network security technologies such as firewalls, VPNs, and IDS / IPS, application security technologies such as OWASP response and static / dynamic code analysis, real-time security event monitoring, auditing and monitoring technologies such as logs, data backup and recovery technologies such as regular backups and disaster recovery plans, and privacy protection technologies such as data anonymization and pseudonymization to ensure the confidentiality, integrity, security, and layering of data.

[0091] In addition, by obtaining ISMS-P (Information Protection and Privacy Management System), ISO / IEC 27001 (Information Security Management System), GDPR (General Data Protection Regulation), and CSA STAR (Cloud Security Certification), one can comply with domestic and international security and data protection regulations.

[0092] Next, the carbon emission management and monitoring systems for each industry sector will be explained as follows:

[0093] like Figure 6 As shown, the convertible energy sector can be subdivided into solar power generation, wind power generation, biomass, hydrogen energy, energy storage systems, etc. Carbon emission information can be managed, and comprehensive carbon emission information of the convertible energy sector can be generated from the overall progress, the progress of convertible energy policies, monthly progress trends, and comparisons of completion rates of various local governments.

[0094] At this point, the progress of each policy, the overall progress, the monthly progress trend, and the completion rate comparison information of each local autonomous body are displayed in four regions. The policy progress of solar power generation, wind power generation, biomass, hydrogen energy, and energy storage systems are displayed simultaneously as a percentage (%) and in line bars of different colors to clearly distinguish them visually and improve the overall progress of solar power generation, wind power generation, biomass, hydrogen energy, and energy storage systems, i.e., the overall completion rate (%) and visual awareness.

[0095] In addition, monthly progress trends are displayed using charts, and completion rates are compared among local governments using bar charts.

[0096] Based on this information, it is possible to provide advice on formulating energy transition policies, monitor the progress of renewable energy policies in real time, compare and analyze the target achievement rates of various local governments, and make recommendations for optimizing energy mix.

[0097] For example, if the main strategy for the energy sector is to reduce coal-fired power generation, expand new renewable energy sources, and improve energy efficiency, then energy mix can be monitored in real time, renewable energy generation can be tracked, and energy efficiency analysis can be conducted.

[0098] like Figure 7 As shown, the transportation sector can be subdivided into vehicle types such as cars, vans, trucks, and special-purpose vehicles, and carbon emission information can be managed. Their total carbon emissions, number of vehicle registrations, average mileage, and achievement of carbon reduction targets can generate comprehensive carbon emission information for the transportation sector. Furthermore, monthly carbon reduction trend information can also be generated from the comprehensive carbon emission information of the transportation sector.

[0099] At this point, information on the current status of carbon emission reduction in the transportation sector is displayed numerically in the upper area, showing total carbon emissions, number of registered vehicles, average mileage, and carbon emission reduction target achievement. The lower area is divided into left and right sections, displaying the carbon emission reduction of each vehicle type and the carbon emission reduction trend for each month. The carbon emission reduction of each vehicle type is displayed as a circular graphic with different colors for each type, and the percentage is also shown numerically. The carbon emission reduction trend for each month is also displayed in a slightly different color, which increases visibility.

[0100] Based on this displayed information, carbon emissions from different vehicle models and fuels can be tracked, dynamic emissions can be tracked through real-time traffic data, and the effects of introducing environmentally friendly vehicles can be simulated.

[0101] For example, if the main strategy of the transportation sector is to expand the use of environmentally friendly vehicles, activate the use of public transportation, and introduce environmentally friendly ships / aircraft, then it is possible to monitor the emissions of each vehicle in real time, simulate the effect of environmentally friendly vehicle conversion, and calculate the reduction in public transportation use.

[0102] like Figure 8 As shown, the building sector can be further subdivided into buildings such as city halls, libraries, stadiums, apartments, commercial streets, and residences, and carbon emission information can be managed accordingly. Their total electricity consumption, total carbon emissions, and average emission reduction rates can generate comprehensive carbon emission information for the building sector. In addition, the average emission reduction rates for various types of buildings, such as public institutions and those involving citizen participation, can also be generated from the comprehensive carbon emission information of the building sector.

[0103] At this point, the display is divided into three areas: the top area shows the total electricity consumption, total carbon emissions, and average emission reduction rate in numerical form; the middle area is divided into left and right sections to show the carbon emissions of each building and the average emission reduction rate of each type; the carbon emissions of each building are shown as circular graphics of different colors, and the proportions are also shown together in numerical form; the average emission reduction rate of each type is shown as a bar chart with a certain color, which improves visual visibility.

[0104] In addition, in the lowest zone, building types will be differentiated, with separate numerical displays of electricity usage and carbon emissions.

[0105] Based on this displayed information, it is possible to monitor building energy consumption and carbon emissions, automatically calculate building energy efficiency ratings, conduct energy-saving potential analysis, and propose improvement plans.

[0106] For example, if the main strategy of the building sector is to improve building energy efficiency, expand zero-energy buildings, and activate green retrofits, then the energy usage of each building can be monitored in real time, energy efficiency ratings can be automatically calculated, and potential for improvement can be analyzed.

[0107] As Figure 9 and Figure 10 As shown, the factory sector can be subdivided into individual factories, and carbon emission information can be managed. Their total carbon emissions, electricity, heat, transportation emissions, etc., can generate comprehensive carbon emission information for the factory sector. In addition, the proportion of each emission source such as electricity, heat, production, and transportation, monthly carbon emission trends, and comparisons of emissions from each factory can also be generated from the comprehensive carbon emission information of the factory sector.

[0108] At this point, the information on the current status of carbon emissions in the factory is displayed numerically in the upper area, showing the total carbon emissions, electricity, heat, and transportation emissions. The lower area is divided into left and right sections, displaying the proportion of each emission source and the monthly carbon emission trend. The proportion of each emission source is displayed as a circular graphic of different colors, and the proportions are displayed together numerically. The monthly carbon emission trend is displayed as a bar chart with a certain color to improve visual visibility.

[0109] In addition, the total emissions of each factory are displayed numerically in the upper area, and the emissions of each factory are compared in the lower area, but the proportion of each emission source in each factory is displayed as a bar chart with different colors.

[0110] Based on this displayed information, the electricity, heat, and engineering emissions of each plant can be comprehensively monitored, providing industry benchmarks and best practices, and predicting the effects of adopting carbon reduction technologies.

[0111] For example, if the main strategies of the factory sector are to switch to low-carbon fuels, improve energy efficiency, and expand smart factories, then the energy usage and emissions of each factory can be monitored, industry benchmarks can be conducted, and the effects of the introduction of low-carbon technologies can be predicted.

[0112] like Figure 11 As shown, the National Comprehensive Status Office can manage carbon emission information by region, and can generate comprehensive carbon emission information by including their total carbon emissions, year-on-year emission reduction rate, renewable energy share, per capita emissions, and carbon emissions of each sector.

[0113] At this point, the total carbon emissions, year-on-year emission reduction rate, renewable energy share, and per capita emissions are displayed numerically in the upper area. The lower area is divided into two sections, left and right, which respectively display the carbon emissions of each region and the carbon emissions of each sector. The carbon emissions of each region are displayed as circular graphs with different colors for each region, and the percentage figures are displayed together. The carbon emissions of each sector are displayed as bar graphs with small whole colors to improve visual visibility.

[0114] like Figure 12 As shown, the National Comprehensive Status Room can graphically display the monthly carbon emission reduction trend through other screens.

[0115] At this point, the screen is divided into upper and lower sections. The upper section displays the monthly carbon emission reduction trend, while the lower section displays detailed information for each region. After selecting a region, the region's carbon emissions, year-on-year emission reduction rate, and major emitting sectors will be displayed numerically.

[0116] like Figure 13 As shown, the National Comprehensive Status Room can use other screens to graphically display the comprehensive progress of each local government.

[0117] At this point, the screen is divided into left and right areas. On the left, the overall progress of each local government is displayed using circular graphics of different colors and numerical values. On the right, the policy progress of each local government is displayed at a glance, thereby increasing visibility.

[0118] As described above, the preferred embodiments of the invention have been illustrated in the detailed description of the invention, but this indicates the best embodiment and is not intended to limit the invention. Furthermore, anyone skilled in the art to which this invention pertains can make various modifications and imitations without departing from the spirit and concept of the invention.

Claims

1. A carbon emission information integrated monitoring system, characterized in that, The carbon emission information integrated monitoring system includes: An information collection department that gathers encrypted carbon emission information from businesses and individuals; The information collected by the information collection unit is transmitted to the information transmission unit of the carbon emission management system. An information management unit that receives carbon emission information from the carbon emission collection unit; Based on the information collected by the Information Management Department, the Carbon Emission Prediction Department predicts carbon emissions on a corporate or individual basis. The carbon emission forecasting information is provided to the integrated status room server and terminals to generate and display carbon emission information for the energy conversion, transportation, construction, and manufacturing sectors, as well as overall national carbon emission information; and The carbon emission information is stored in a management information database, organized by enterprise and individual, and categorized by industry sector. The integrated status room server is a server that can provide multilingual support, and it divides carbon emission information obtained by enterprises and individuals belonging to specific industry sectors into industry sector information and national overall information, and drives the display for integrated management at the national level.

2. The carbon emission information integrated monitoring system according to claim 1, characterized in that, The information processed by the integrated status room server is divided into energy conversion sectors: solar power, wind power, biomass, hydrogen energy, and energy storage systems. It includes overall progress, energy conversion policy progress, monthly progress trends, and comparisons of implementation rates by local governments, generating comprehensive carbon emission information. The transportation sector is divided into passenger cars, vans, trucks, and special vehicles. It generates and processes data on total carbon emissions, number of registered vehicles, average mileage, carbon reduction targets achieved, and monthly carbon reduction trends by integrating comprehensive carbon emission information. The building sector is divided into municipal governments, libraries, stadiums, apartments, commercial streets, and residences. Based on total electricity consumption, total carbon emissions, average emission reduction rates, and average emission reduction rates for different types of public institutions and citizen participation, comprehensive carbon emission information is generated and processed. The factory department categorizes factories and generates comprehensive carbon emission information based on total carbon emissions, electricity, heat, transportation emissions, the proportion of each emission source (electricity, heat, production, transportation, etc.), monthly carbon emission trends, and comparative information on emissions from each factory. This information is then processed.

3. The carbon emission information integrated monitoring system according to claim 1, characterized in that, The comprehensive data center server, located in the upper area, displays numerical values ​​for total carbon emissions, year-on-year emission reduction rate, the proportion of renewable energy, and per capita emissions. The lower section is divided into two areas, left and right, which respectively display the carbon emissions of each region and the carbon emissions of each sector. The carbon emissions of each region are displayed as circular graphs with different colors for each region, and the proportions are also displayed numerically. The carbon emission status of each sector is displayed as bar charts with specific colors on the drive display.

4. The carbon emission information integrated monitoring system according to claim 1, characterized in that, The integrated status room server displays the monthly carbon emission reduction trend in the upper area. In the lower-level area, if a specific region is selected as the detailed information for each region, the display will show the region's carbon emissions, year-on-year emission reduction rate, and figures for major emitting sectors.

5. The carbon emission information integrated monitoring system according to claim 1, characterized in that, The integrated status room server, located in the left-hand area, displays the integrated progress of each local government as circular graphics and numerical values ​​of different colors. The driver displays the policy progress of each local government body digitally in the right-hand area.

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