An Optimization Method Based on Time-Sharing Energy Complementation to Determine Transmission Capacity of Wind-CSP Plants Combined System

Yang Cui, Huiquan Zhang, Siyu Huang, Bo Xu
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引用次数: 1

Abstract

Since northwest China has abundant wind and solar resources, constructing the concentrating solar power (CSP) plant near to the wind-generated electricity factory tend to a common form of energy exploiting. How to size for the capacity of the transmission line to meet the demand of delivery of the wind-concentrated solar power (CSP) plant system becomes an intensive problem. Based on the theory of time-sharing energy complementarity, this paper proposes a mathematical optimization model of the integrated output of Wind farm and CSP plant to suppress the power fluctuations. Then, by independently considering the impacts of the thermal storage capacity of CSP plant, the capacity optimization model of transmission line of wind power-CSP combined system is established. The case result demonstrates that the proposed method can reduce the investment cost of transmission line by reasonably configuring the thermal storage capacity of CSP. Moreover, the proposed strategy significantly improves the utilization rate of the transmission line and increases the comprehensive income of the joint generation system.
基于分时能量互补的风电-光热联合系统输电容量优化方法
由于中国西北地区拥有丰富的风能和太阳能资源,在风力发电厂附近建设聚光太阳能发电厂(CSP)是一种常见的能源开发形式。如何确定输电线路的容量大小以满足聚光太阳能发电系统的输电需求,成为一个亟待解决的问题。基于分时能量互补理论,提出了风电场与光热电站综合出力抑制功率波动的数学优化模型。然后,在独立考虑光热电站蓄热能力影响的情况下,建立了风电-光热联产系统输电线路容量优化模型。实例结果表明,通过合理配置光热发电的蓄热容量,可以降低输电线路的投资成本。此外,该策略显著提高了输电线路的利用率,增加了联产系统的综合收益。
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