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考虑温度舒适度与碳交易的综合能源系统优化调控
引用本文:姜河,周航,解相朋,杨东升,赵琰.考虑温度舒适度与碳交易的综合能源系统优化调控[J].控制理论与应用,2022,39(3):519-526.
作者姓名:姜河  周航  解相朋  杨东升  赵琰
作者单位:沈阳工程学院,沈阳工程学院,南京邮电大学,东北大学,沈阳工程学院
基金项目:辽宁省博士科研启动基金项目(2020–BS–181), 国家重点研发计划项目(2018YFB1700503), 国家自然科学基金优秀青年基金项目(62022044), 兴辽英才计划项目(XLYC1907138), 辽宁省重点研发计划项目(2020JH2/10300101)资助.
摘    要:综合能源系统可以实现多能互补、能源梯级利用,但设备间复杂的耦合关系对新能源消纳与源荷波动平抑带来了极大挑战.针对此类问题,本文提出基于舒适度的温差储能与阶梯奖惩碳交易机制的调控模型.首先,在电价需求响应的基础上,构建由舒适度划分的冷热需求响应的温差储能模型.其次,建立以系统运行成本与碳排放量最低为目标的综合调控模型,在优化供给侧设备出力的基础上提高用户响应能力,并考虑多种能量转换设备以提升系统运行的多能互补能力.最后,通过Gurobi求解器进行算例仿真,验证了该模型的可行性与有效性.

关 键 词:综合能源系统  碳交易  优化调控  多能互补
收稿时间:2021/7/25 0:00:00
修稿时间:2021/10/31 0:00:00

Optimal control of integrated energy system considering temperature comfort and carbon trade
JIANG He,ZHOU Hang,XIE Xiang-peng,YANG Dong-sheng and ZHAO Yan.Optimal control of integrated energy system considering temperature comfort and carbon trade[J].Control Theory & Applications,2022,39(3):519-526.
Authors:JIANG He  ZHOU Hang  XIE Xiang-peng  YANG Dong-sheng and ZHAO Yan
Affiliation:Shenyang Institute of Engineering,Shenyang Institute of Engineering,Nanjing University of Posts and Telecommunications,Northeastern University,Shenyang Institute of Engineering
Abstract:Integrated energy system can realize multi-energy complementation and energy cascade utilization. The complex coupling relationship between the various devices has brought great challenges to the consumption of new energy and the suppression of source and load fluctuations. For such problems, this paper proposes a dispatching model based on comfortable temperature difference energy storage and reward-punishment tiered carbon trading mechanism. First, temperature comfort is used as a stimulus factor to construct a temperature difference energy storage model based on cold and heat demand response. Secondly, a comprehensive dispatching model of an integrated energy system to maximize economic benefits and minimize carbon emissions is established. This model improves user responsiveness while optimizing the output of supply-side equipment. In addition, the ability to complement multiple energy sources is significantly improved through a variety of high-energy conversion equipments. Finally, the effectiveness and feasibility of the model are verified by a numerical example using Gurobi solver.
Keywords:integrated energy system  carbon trade  optimal control  multi-energy complementarity
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