Comprehensive management system for low-carbon park

Abstract

The invention provides a comprehensive management system for a low-carbon park, and relates to the technical field of park low-carbon management, the comprehensive management system comprises a carbon emission accounting platform and a carbon emission planning platform, the input end of the carbon emission accounting platform is connected with a data acquisition module, and the output end of the carbon emission accounting platform is connected with a difference comparison module. The output end of the difference comparison module is connected with a data selection module, and the output end of the data selection module is connected with a carbon emission planning platform. The technical key points are as follows: water consumption data, power consumption data and operation system data of each unit are acquired by using a data acquisition module, and are processed by a carbon emission accounting platform, a difference comparison module and a data selection module to obtain units which may influence the energy consumption configuration condition in the operation of each unit; and finally, the carbon emission planning platform determines the energy consumption peak of each unit and arranges the energy consumption peak of each unit to be staggered, so that the situation that the energy consumption load of the park is too large at a certain time point, the system crashes, and local energy supply of the park is insufficient is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of low-carbon park management, in particular to a low-carbon park comprehensive management system. Background Art

[0002] The so-called park generally refers to a standard building or a group of buildings planned and built by the government (including cooperation between private enterprises and the government), which has complete water supply, electricity supply, gas supply, communications, roads, warehousing and other supporting facilities, and a reasonable layout, and can meet the needs of production and scientific experiments in a specific industry.

[0003] In the process of deepening reform and opening up in my country, various "parks" have emerged, including industrial parks, economic and technological development zones, high-tech industrial development zones, and industrial parks. The various "parks" are not mutually exclusive, and a park may have multiple identities. Parks can be divided into service-oriented, production-oriented, and cultural-oriented parks; according to the leading industries, parks can be divided into software parks, logistics parks, cultural and creative industrial parks, high-tech industrial parks, film and television industrial parks, chemical industrial parks, medical industrial parks, and animation industrial parks.

[0004] Low-carbon industrial parks are industrial areas centrally planned by the government. They are people-oriented, take into account both carbon emissions and sustainable development, actively adopt clean production technologies, vigorously improve the efficiency of raw materials and energy consumption, eliminate the emission of environmental pollutants in the production process as much as possible, and rationally plan, design and manage the landscape and ecosystem in the area, with the ultimate development goal of forming a low-carbon industrial cluster.

[0005] The patent document with publication number CN116502921A discloses a park comprehensive energy system optimization management system and its coordinated scheduling method, including an energy flow generation module, an energy flow conversion and storage module, an energy flow comprehensive demand response module, and an energy flow conversion and storage module to establish a system optimization model, and convert and store the above energy generated by the energy flow generation module into transmittable energy within the park. The energy flow comprehensive demand response module uses energy consumption indicators in the three energy forms of electricity and heat to measure the performance of comprehensive demand response considering electric energy substitution from the perspective of changes in the load-side energy consumption curve, and generates a comprehensive demand response information flow.

[0006] However, in the process of implementing the above technical solution, it is found that the above technical solution has the following technical problems:

[0007] The existing park comprehensive energy system optimization management system and its coordination and scheduling method can optimize the energy allocation within the industrial park to achieve the low-carbon goal. However, in the actual application process, the various units in the park are not related, and the energy provided by the park is too heavy when the units work at the same time. In the long-term operation process, it is easy to have insufficient local energy supply in the park. Summary of the invention

[0008] In order to overcome the problem that the existing park comprehensive energy system optimization management system and its coordination and scheduling method are not related to each unit in the park, the energy provided by the park is too heavy when each unit works at the same time, and in the long-term operation process, it is easy to have a shortage of local energy supply in the park, the embodiment of the present application provides a low-carbon park comprehensive management system, which uses the data acquisition module to collect the water consumption data, electricity consumption data and operation system data of each unit, and the carbon emission accounting platform calculates the energy consumption type, total energy consumption, and proportion of energy consumption in the overall energy consumption of each unit, and processes them through the difference comparison module and the data selection module to obtain the units that may affect the energy consumption configuration during the operation of each unit. Finally, the carbon emission planning platform determines the energy consumption peak of each unit and arranges the energy consumption peaks of each unit to avoid excessive energy consumption load in the park at a certain point in time, which causes system crash and insufficient local energy supply in the park.

[0009] The technical solution adopted by the embodiment of the present application to solve the technical problem is:

[0010] A low-carbon park integrated management system, including a carbon emission accounting platform and a carbon emission planning platform;

[0011] Among them, the input end of the carbon emission accounting platform is connected to a data acquisition module, the output end of the carbon emission accounting platform is connected to a difference comparison module, the output end of the difference comparison module is connected to a data selection module, and the output end of the data selection module is connected to a carbon emission planning platform.

[0012] In a possible implementation, the data collected by the data collection module includes water consumption data, electricity consumption data and operation system data of each unit, and the unit operation system data includes the actual number of on-the-job personnel, unit working hours and unit overtime situation.

[0013] In a possible implementation, the carbon emission accounting platform calculates each unit's energy consumption type, total energy consumption, and the proportion of energy consumption in the overall energy consumption.

[0014] In one possible implementation, the difference comparison module is used to compare the energy consumption differences of similar units and infer the reasons for the differences, and pass the data together with the water consumption data, electricity consumption data and operation system data of each unit to the data selection module.

[0015] In a possible implementation, the data selection module is used to screen out unit data that has little impact on the overall situation based on the proportion of each unit's energy consumption in the overall situation, and propose units that may affect the energy consumption configuration during the operation of each unit.

[0016] In one possible implementation, the carbon emission planning platform determines the peak energy consumption of each unit based on the data selected by the data selection module, transfers the variable equipment and projects under the peak state to a fixed time period, or guides the working hours of each unit.

[0017] In one possible implementation, the output end of the carbon emission accounting platform and the output end of the carbon emission planning platform are jointly connected to a data storage module. The data storage module compares the data on the carbon emission accounting platform and the carbon emission planning platform, and provides guidance to the carbon emission accounting platform according to the plan planned by the carbon emission planning platform, and directly selects units that may affect the energy consumption configuration.

[0018] The beneficial effects of this application are:

[0019] In this plan, the data collection module is used to collect the water consumption data, electricity consumption data and operation system data of each unit. The carbon emission accounting platform calculates the energy consumption type, total energy consumption and the proportion of energy consumption in the overall energy consumption of each unit. After processing by the difference comparison module and the data selection module, the units that may affect the energy consumption configuration during the operation of each unit are obtained. Finally, the carbon emission planning platform determines the energy consumption peak of each unit and arranges the energy consumption peaks of each unit to avoid excessive energy consumption load in the park at a certain point in time, causing system crash and insufficient local energy supply in the park. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the system flow of the present invention;

[0021] Figure 2 It is a structural schematic diagram of the data acquisition module of the present invention. DETAILED DESCRIPTION

[0022] The technical solution in the embodiment of the present application is to solve the problems of the above-mentioned background technology, and the overall idea is as follows:

[0023] Embodiment 1:

[0024] This embodiment introduces a specific structure of a low-carbon park integrated management system. Figure 1-Figure 2 As shown, it includes a carbon emission accounting platform and a carbon emission planning platform, and the input end of the carbon emission accounting platform is connected to a data acquisition module;

[0025] Among them, the data collected by the data collection module (water consumption data, electricity consumption data and operation system data of each unit), and the operation system data of each unit among the numerous data includes the actual number of on-the-job personnel, unit working hours and unit overtime;

[0026] Secondly, the carbon emission accounting platform calculates the energy consumption type, total energy consumption, and proportion of energy consumption in the overall energy consumption of each unit. By using the energy consumption type and total energy consumption of each unit and calculating the proportion of the total energy consumption of the unit to the total energy consumption of each unit, it is helpful to provide data support for the subsequent carbon emission planning platform to plan the working hours and workload of each unit;

[0027] like Figure 1 As shown, the output end of the carbon emission accounting platform is connected to a difference comparison module, and the output end of the difference comparison module is connected to a data selection module;

[0028] Among them, the difference comparison module is used to compare the energy consumption differences of similar units and infer the reasons for the differences. The data is passed to the data selection module together with the water consumption data, electricity consumption data and operation system data of each unit. According to the proportion of each unit's energy consumption in the whole, the unit data with little impact on the whole is screened out, and the units that may affect the energy consumption configuration in the operation of each unit are proposed to reduce the burden of data processing and improve the accuracy of processing target data;

[0029] like Figure 1 As shown, the output end of the data selection module is connected to the carbon emission planning platform;

[0030] Among them, the carbon emission planning platform determines the energy consumption peak of each unit based on the data selected by the data selection module. By transferring the changeable equipment and projects under the peak state of a unit to a fixed time period, the energy consumption peaks of each unit can be staggered to avoid excessive energy consumption load in the park at a certain time point, causing system crashes and affecting the normal production work of each unit, or guiding the working hours of each unit to avoid overlapping energy consumption peaks of each unit, which will cause a heavy burden on the entire system;

[0031] In some examples, the output end of the carbon emission accounting platform and the output end of the carbon emission planning platform are connected to a data storage module;

[0032] Among them, the data storage module compares the data on the carbon emission accounting platform and the carbon emission planning platform, and provides guidance for the carbon emission accounting platform according to the plan planned by the carbon emission planning platform, directly selecting units that may affect the energy consumption configuration, so as to facilitate the subsequent data collection process. Directly deduce similar data information, eliminating the process of the carbon emission planning platform planning the specific work of each unit.

[0033] The above design uses the data collection module to collect the water consumption data, electricity consumption data and operation system data of each unit. The carbon emission accounting platform calculates the energy consumption type, total energy consumption and the proportion of energy consumption in the overall energy consumption of each unit. After processing by the difference comparison module and the data selection module, the units that may affect the energy consumption configuration during the operation of each unit are obtained to reduce the burden of data processing. Finally, the carbon emission planning platform determines the energy consumption peak of each unit. By transferring the variable equipment and projects under the peak state of a unit to a fixed time period, the energy consumption peaks of each unit can be staggered to avoid excessive energy consumption load in the park at a certain point in time, which may cause system crashes and affect the normal production work of each unit.

[0034] Finally, it should be noted that: Obviously, the above embodiments are only examples for clearly explaining the present invention, and are not intended to limit the implementation methods. For ordinary technicians in the relevant field, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to list all the implementation methods here. The obvious changes or modifications derived from this are still within the scope of protection of the present invention.

Claims

1. A low-carbon park integrated management system, characterized in that: include: Carbon emissions accounting platform; Carbon emissions planning platform; Among them, the input end of the carbon emission accounting platform is connected to a data acquisition module, the output end of the carbon emission accounting platform is connected to a difference comparison module, the output end of the difference comparison module is connected to a data selection module, and the output end of the data selection module is connected to a carbon emission planning platform.

2. A low-carbon park integrated management system as claimed in claim 1, characterized in that: The data collected by the data collection module include water consumption data, electricity consumption data and operation system data of each unit. The operation system data of each unit include the actual number of on-the-job personnel, unit working hours and unit overtime situation.

3. A low-carbon park integrated management system as claimed in claim 2, characterized in that: The carbon emission accounting platform calculates the energy consumption type, total energy consumption, and proportion of each unit's energy consumption in the overall energy consumption.

4. A low-carbon park integrated management system as claimed in claim 3, characterized in that: The difference comparison module is used to compare the energy consumption differences of similar units and infer the reasons for the differences, and pass the data together with the water consumption data, electricity consumption data and operation system data of each unit to the data selection module.

5. A low-carbon park integrated management system as claimed in claim 4, characterized in that: The data selection module is used to screen out unit data that have little impact on the overall situation according to the proportion of each unit's energy consumption in the overall situation, and propose units that may affect the energy consumption configuration during the operation of each unit.

6. A low-carbon park integrated management system as claimed in claim 5, characterized in that: The carbon emission planning platform determines the energy consumption peak of each unit based on the data selected by the data selection module, transfers the variable equipment and projects under the peak state to a fixed time period, or guides the working hours of each unit.

7. A low-carbon park integrated management system as claimed in claim 1, characterized in that: The output end of the carbon emission accounting platform and the output end of the carbon emission planning platform are jointly connected to a data storage module. The data storage module compares the data on the carbon emission accounting platform and the carbon emission planning platform, and provides guidance to the carbon emission accounting platform according to the plan planned by the carbon emission planning platform, and directly selects units that may affect the energy consumption configuration.

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