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As intelligent and digital technologies continue to deepen in the new energy field, new energy enterprises adhere to the "one enterprise, one policy" to formulate carbon peak action plans based on the links they are in and their own understanding, strive to promote the transformation and upgrading of the industrial structure, and adjust and optimize the energy structure. , strengthen the innovation, promotion and application of green and low-carbon science and technology, and promote the synergy of pollution reduction and carbon reduction. Carbon Dafeng digital system management platforms have been launched one after another.

The Canary Enterprise Carbon Peaking System Platform realizes the analysis of energy consumption data of energy-consuming enterprises by installing energy consumption IoT meters on energy-consuming enterprises, automatically collecting and uploading IoT data, and using a multi-index comprehensive energy efficiency evaluation model for analysis. Real-time monitoring and early warning and energy efficiency assessment, and on this basis, other functions and application scenarios have been enriched and expanded, closely matching the national carbon peak strategic goal.

The overall structure of the platform

Platform Business Architecture

The platform includes: monitoring capability module, carbon trading capability module, and smart management module.

Platform functional architecture

The platform includes physical layer, support layer, application layer and framework layer. The framework layer also includes: industrial operations, industrial organization optimization, industrial services, global diagnosis, and carbon peak target calculation.

real-time monitoring

Including: carbon emission quota, current emission indicators, energy types, current carbon emission details, transaction quota, transaction time, etc., are all authoritatively released to the outside world through this platform.

data governance

Including: fulfillment status, quota information, transaction trends, market trends, real-time data, and historical data.

cockpit

Including: total carbon emissions, trend analysis, carbon emission types, TOP industries, etc.

Early warning module

Including: equipment, carbon emissions, carbon sinks, corporate points, performance, safety and other early warning information. ​​Inquiry details

Environmental Monitoring

Including: gas, environment, pollution, energy consumption, video surveillance and other information.

Asset Management

Including: management of sensors, equipment, assets, costs, etc.

Reporting and visualization

Including: comprehensive information reports such as energy consumption, carbon emissions, quotas, points, etc.

data analysis

Including: energy consumption, carbon emissions, quota, points and other statistical data.

Carbon sink function

Including: carbon sink quota, used quota, remaining quota, tradable quota, estimated cost, transaction amount, etc.

Overview

Including: energy consumption data, emission data, emission reduction data, comprehensive results, etc.

In view of the pain points of enterprises in achieving dual carbon goals such as heavy tasks and tight time, lack of management systems, and lack of digital tools, the platform uses a microservice architecture system to respond to customers' needs for rapid construction and adapt to the rapid development of business, and the application of big data and algorithms Rich experience, supporting energy big data analysis and application of millions of data points, with secondary development capabilities and strong scalability.

The system involves front-end carbon capture, management, monitoring, application, trading, and evaluation of the low-carbon industry. It has six major characteristics, including: system flexibility and elasticity, high degree of digitalization, open ecology, integrated supply and management, low latency, and intelligence.

Digitizing

Use Internet of Things collection technology to realize real-time monitoring of energy consumption data and digitally display the energy usage of enterprises/parks. Relying on the provincial +24 industry accounting guide, we build an accurate carbon calculation model covering the five major areas of energy, industry, construction, transportation, residents, and agricultural life.

The Canary Enterprise Carbon Peak System Platform builds a digital carbon measurement system for enterprises, greatly improving the efficiency and accuracy of carbon measurement, and realizing carbon emission data monitoring throughout the entire life cycle of the enterprise, carbon emission accounting throughout the production process, and product process monitoring. Carbon footprint accounting fully releases the value of carbon data and optimizes allocation, balancing the relationship between energy conservation and emission reduction and corporate development.

Low latency

This system combines existing Internet of Things technology and integrates a large number of front-end sensors (cameras, atmospheric sensors, CO2 detection sensors, new energy sensors, energy consumption sensors, drones, environmental soil sensors, etc.) into the platform to obtain massive concurrent data. , managed through a unique platform architecture to ensure system reliability under high concurrency.

The backhaul network of this system uses 5G network or advanced high-speed optical fiber transmission technology to quickly backhaul front-end carbon-related data. The minimum network delay can be shortened to the ms level, ensuring real-time data transmission.

Flexible and elastic

This platform is suitable for: new energy management, electric power, industry, parks, construction, Internet, people's livelihood and other fields. It has good flexible and elastic design and has been well applied in actual use.

Open ecosystem

The platform stands from a regional and industry perspective and involves traditional industries, green new energy, ecological environmental protection, low-carbon finance, smart buildings and many other aspects.

Integrated supply and use pipe

From the multi-dimensional settings of carbon digital policy, carbon digital smart construction, carbon digital smart management, carbon digital smart camp, and carbon digital smart evaluation, they include: basic network subsystem, carbon emission monitoring subsystem, new energy generation electronic system, building energy-saving system, Dual carbon management subsystem, carbon sink trading subsystem, financial support subsystem, low-carbon portrait subsystem, and auxiliary decision-making subsystem.

Personal scene needs

According to the needs of customer scenarios, the platform can be divided into four types of applications in different scenarios: enterprise-level management platform, park management platform, industry and management platform, and city management platform.

AI intelligence

Through the monitoring subsystem, the platform conducts unified low-carbon management, creates thermal images of carbon emissions and carbon sinks, and issues warnings and controls to companies with high energy consumption that exceed standards until measures are taken for rectification. Incorporate carbon emissions, new energy, and green economic industries within the jurisdiction into a unified carbon sink trading platform, and implement unified planning, deployment, scheduling, real-time monitoring, and trading in accordance with low-carbon plans. The front-end of the system adopts large-screen visualization mode for display, integrates scattered data information, and has various built-in business models, which are presented graphically. Convenient for managers to perform maintenance, operation and judgment

Carrying out refined management of the carbon peaking campaign at both the micro and macro levels to ensure stable income for local governments is an important assist in building a high-quality, highly available digital platform and is currently the best choice for enterprises to implement low-carbon overall solutions. Enterprises can effectively reduce the labor cost of carbon verification and reduce the risk of unqualified audit reports. Through the platform's continuous tracking and data analysis, they can obtain reasonable and effective carbon emission reduction suggestions to optimize carbon assets, increase revenue, and pass carbon footprints. Accounting optimization improves product competitiveness.

New energy field

AI helps smart microgrids achieve "low carbon emissions." After the introduction of artificial intelligence technology, various types of photovoltaic panels are installed on the roofs of residential buildings and street lights next to roads according to different lighting conditions. Wind turbines, charging piles, and energy storage battery systems are all available, forming an integrated "wind, solar, storage and charging" oriented smart energy projects. Monitor and manage through the enterprise digital carbon emission system.

Industrial field

Deploy and install digital circuit breakers, electrical monitoring and other devices at energy consumption terminals to realize intelligent collection and multi-level measurement of carbon emissions. The data is uploaded to the carbon emission management system to realize equipment management, multi-dimensional energy efficiency analysis, and full life cycle management of electrical equipment. , analysis of the operating status of electrical equipment, dynamic calibration of energy levels; intuitive display of historical power consumption status of electrical equipment, analysis of equipment carbon emission indicators, comprehensive analysis of equipment, equipment maintenance or replacement recommendations, and information recording.

Transportation field

The energy management system performs distributed monitoring and centralized management of energy-related equipment, stores and analyzes data from on-site monitoring points in accordance with relevant guidelines and regulatory requirements, and realizes online measurement and monitoring of the entire network, as well as statistical analysis and diagnosis of energy consumption. , prediction, early warning, assisted decision-making, etc. Allow subway station managers to improve energy consumption management and reduce energy costs. Achieve the energy consumption goals of “safety, reliability, economy, efficiency and cleanliness”.

Through energy-saving management and control, optimized dispatching, tapping potential, and rational energy conservation, we will guide subway energy consumption and build an efficient and energy-saving smart subway energy management system to achieve subway energy saving and efficiency improvement, and ultimately achieve the 25% energy saving goal.

Environmental protection field

Focusing on the four directions of "increasing foreign exchange, fixing foreign exchange, spreading foreign exchange, and generating foreign exchange", we will implement city-wide greening actions for cities and enterprises. It is expected that the ecosystem will continue to be repaired and the annual carbon sink will exceed 2 million tons.

Carbon sink field

Sell the excess carbon quotas of enterprises to areas or enterprises in cities where there is demand. Adhere to the path of green development and increase production and income through carbon sink trading

Zero carbon park

Zero-carbon parks must meet the other life and work needs of talents, and play a vital role in the construction of "zero-carbon" parks and improving their core competitiveness; at the same time, the gathering of high-quality professional and skilled talents can produce numerous economic spillover effects in the parks .