考虑运行时序特征的新能源电力系统短期随机生产模拟方法

IF 1.7 4区 综合性期刊 Q2 MULTIDISCIPLINARY SCIENCES Journal of Radiation Research and Applied Sciences Pub Date : 2024-10-12 DOI:10.1016/j.jrras.2024.101132
Hongwei Chen, Xiaoyu Ding, Binbin Zhong, Xiaobo Zhou, Mingwei Peng, Kanghong Ning
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引用次数: 0

摘要

短期随机生产模拟是新能源电力系统规划和评估的重要依据。为确保仿真结果符合实际运行条件,提出了一种考虑运行时序特性的新能源电力系统短期随机生产仿真方法。该方法构建了新能源运行模型,分析了其运行时序特性,综合考虑了新能源机组特性、运行约束条件和电力系统运行约束条件,实现了新能源电力系统的短期随机生产仿真,并对仿真结果的可靠性进行了评估。试验结果表明,当出力波动从2%增加到20%时,单个新能源接入的动态成本从3.44万元增加到10.65万元,而集成两个新能源的集成成本从10.55万元飙升到33.91万元,成本增加更为明显。在高输出功率(如 3500 MW)条件下,图 1 的总负荷损失概率仅为 1.88MWh ×a-1,明显低于图 2(5.97MWh ×a-1),图 1 的电池缺电和光储输出偏差的预期概率也较低,说明系统稳定性和控制精度较高。本文提出的方法在降低系统总成本方面表现优异,在光弃风率和光弃风率方面也表现出最低值。光弃风率仅为 2.1%,光弃风率为 1.4%,系统稳定指数达到 0.92,均明显优于对比方法,显示出较强的系统稳定性。考虑运行时序特性的新能源电力系统短期随机生产仿真是合理的,可以为仿真提供可靠依据,分析电力系统规划方案的可靠性,保证未来电力系统的规划和运行。
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A short-term stochastic production simulation method for new energy power systems considering operation timing characteristics
Short-term stochastic production simulation is an important basis for the planning and evaluation of new energy power systems. To ensure that the simulation results meet the actual operating conditions, a short-term stochastic production simulation method for new energy power systems is proposed, which considers the operation timing characteristics. The method constructs a new energy operation model, analyzes its operation timing characteristics, and realizes the short-term stochastic production simulation of the new energy power system by considering the characteristics, the operation constraints of the new energy units and the power system operation constraints, and evaluates the reliability of the simulation results. The test results show that when the output fluctuation increased from 2% to 20%, the dynamic cost of a single new energy access increased from 34,400 yuan to 106,500 yuan, while the integration cost of integrating two new energy sources soared from 105,500 yuan to 339,100 yuan, and the cost increase was more obvious. Under the condition of high output power (such as 3500 MW), the total load loss probability of Fig. 1 is only 1.88MWh × a−1, which is significantly lower than Fig. 2 (5.97MWh × a−1), and the expected probability of battery power shortage and optical storage output deviation of Fig. 1 is also lower, indicating high system stability and control accuracy. The method presented in this paper has excellent performance in reducing the total system cost, and also shows the lowest value in terms of optical wind abandonment rate and optical wind abandonment rate. The optical wind abandonment rate is only 2.1% and the optical wind abandonment rate is 1.4%, and the system stability index reaches 0.92, both of which are obviously superior to the comparison method, showing strong system stability. The short-term stochastic production simulation of the new energy power system considering the operation timing characteristics is reasonable and can provide a reliable basis for the simulation, analyze the reliability of the power system planning scheme, and ensure the future planning and operation of the power system.
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来源期刊
自引率
5.90%
发文量
130
审稿时长
16 weeks
期刊介绍: Journal of Radiation Research and Applied Sciences provides a high quality medium for the publication of substantial, original and scientific and technological papers on the development and applications of nuclear, radiation and isotopes in biology, medicine, drugs, biochemistry, microbiology, agriculture, entomology, food technology, chemistry, physics, solid states, engineering, environmental and applied sciences.
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