
智能网络与网络安全教育部重点实验室(西安交通大学),西安 710049
Received:26 February 2024,
Revised:2024-06-19,
Published:30 August 2024
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韩智涵,翟桥柱,周玉洲,等.适用于新型电力系统调度和规划的数学模型框架及碳排放指标分析[J].新型电力系统,2024,02(3):297-311.
HAN Zhihan,ZHAI Qiaozhu,ZHOU Yuzhou,et al.Mathematical Model for New Type Power System Scheduling and Planning and Analysis of Carbon Emission Indices[J].New Type Power Systems,2024,02(03):297-311.
韩智涵,翟桥柱,周玉洲,等.适用于新型电力系统调度和规划的数学模型框架及碳排放指标分析[J].新型电力系统,2024,02(3):297-311. DOI: 10.20121/j.2097-2784.ntps.240015.
HAN Zhihan,ZHAI Qiaozhu,ZHOU Yuzhou,et al.Mathematical Model for New Type Power System Scheduling and Planning and Analysis of Carbon Emission Indices[J].New Type Power Systems,2024,02(03):297-311. DOI: 10.20121/j.2097-2784.ntps.240015.
目前我国全社会总碳排放量中约35%~40%来自电力系统,因此,构建新能源高渗透率的新型电力系统,降低电力生产中的碳排放,是实现“2030碳达峰、2060碳中和”目标的必然选择。在双碳战略目标下的新型电力系统建设过程中,有两个问题尤为重要:第一,新型电力系统恰当的数学模型框架是什么样的?这是解决新型电力系统规划、运行调度、分析计算等问题的基础;第二,怎样准确评估新型电力系统碳减排潜力和在此基础上怎样准确识别系统中制约碳减排的瓶颈因素?文中从新型电力系统规划及运行调度角度对以上两个问题进行分析。首先,我们从新型电力系统源、网、荷、储4个方面对比总结了现有的各组成要素模型,对应当采用的系统框架提出了建议;接着,在新型电力系统数学模型框架基础上,提出了理想碳排放量、各因素对碳排放的灵敏度指标定义及其应用方法,这些指标将有助于为新型电力系统建设提供参考。
2
At present
about 35% to 40% of the total carbon emissions in China’s society come from the power system. Thus
building a new type power system with high penetration of renewable energy
and reducing carbon emissions in power production is the inevitable choice to achieve the target of realizing a carbon peak by 2030 and a carbon neutrality by 2060. In the process of building new type power systems
there are two pivotal questions: First
what is the appropriate mathematical architecture for a new type power system? This is the basis to solve the problems of planning
operation scheduling and analytical calculation in the new type power systems. Second
how to accurately evaluate the carbon emission reduction potential of a new type power system? On this basis
how to accurately identify the bottleneck factors that restrict the ability of carbon emission reduction in the system? This paper analyses the above two problems from the perspective of new type power systems planning and operation scheduling. Firstly
this paper compares and summarizes the existing component models of the new type power system from source
network
load and storage
and offers the proposal of the appropriate architecture. Then
based on the mathematical architecture and model of new type power systems
we define the ideal carbon emission and sensitivity index for each factor
and propose the corresponding application methods. The proposed index could provide a reference for the construction of new type power systems.
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