Multi-stage Multi-energy Flow Integrated Energy Systems of Electricity, Gas, and Heat Based on Heterogeneous Energy Flow Characteristics

Authors

DOI:

https://doi.org/10.4108/ew.5799

Keywords:

Integrated Energy Systems, Multi-Energy Flow, Multi-Stage, Power Flow Calcultation

Abstract

INTRODUCTION: The development of integrated energy systems (IES) is of paramount significance in addressing climate change and other challenges. Ensuring the rapid and accurate calculation of energy flow states is crucial for their efficient operation. However, the difference in response time of various heterogeneous energy flows in IES will lead to the inaccuracy of the steady-state model.

OBJECTIVES: This paper proposes a model for multi-stage multi-energy flow IES of electricity, gas, and heat based on heterogeneous energy flow characteristics.

Methods: IES was divided into fast variable networks and slow variable networks, and a multi-energy flow multi-stage model was established.  Suitable models were matched for different subnets at different stages to improve the calculation accuracy.

RESULTS: Selected a practical Electrical-Gas-Heat IES as a case study for simulation. Through case studies, the effectiveness and accuracy of the proposed method are demonstrated.

CONCLUSION: The multi-stage model proposed in this paper can improve the accuracy of multi-energy flow in IES.

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References

Zhu Hongyu, Goh Hwang Hui, Zhang Dongdong, Ahmad Tanveer, Liu Hui, Wang Shuyao, Li Shenwang, Liu Tianhao, Dai Hang, Wu Thomas. Key technologies for smart energy systems: Recent developments, challenges, and research opportunities in the context of carbon neutrality[J]. Journal of Cleaner Production. 2022;331:20.

Busu, Mihai. The Role of Renewables in a Low-Carbon Society: Evidence from a Multivariate Panel Data Analysis at the EU Level[J]. Sustainability. 2019;11:16.

Zhao Wenhui, Zou Ruican, Yuan Guanghui, Wang Hui, Tan, Zhongfu. Long-Term Cointegration Relationship between China's Wind Power Development and Carbon Emissions[J]. Sustainability. 2019; 11:12.

Gizaw, Mintesnot, Bekele, Getachew. Investigation of Sustainable Technology Options: Wind, Pumped-hydro-storage and Solar potential to Electrify Isolated Ziway Islanders in Ethiopia[J].EAI Endorsed Transactions on Energy Web. 2023;10:12.

Erixno Oon, Abd Rahim Nasrudin, Ramadhani Farah, Adzman Noriah Nor. Energy management of renewable energy-based combined heat and power systems: A review[J]. Sustainable Energy Technologies and Assessments. 2022; 51:25.

Subramani R.,Vijayalakshmi C..Augmented Lagrangian algorithm for hydrothermal scheduling[J]. EAI Endorsed Transactions on Energy Web. 2018;5:7.

Gustafsson Jonas, Delsing Jerker, van Deventer Jan. Improved district heating substation efficiency with a new control strategy[J]. Applied Energy.2010;87(6):1996-2004.

Karki, Shankar, Kulkarni Manohar, Mann, Michael D., Salehfar, Hossein. Efficiency improvements through combined heat and power for onsite distributed generation technologies[J]. Cogeneration & Distributed Generation Journal.2007;22(3):19-34.

Hast Aira, Syri Sanna, Lekavicius Vidas, Galinis Arvydas. District heating in cities as a part of low-carbon energy system[J].Energy.2018;152:627-639.

Zang Haixiang, Geng Minghao, Huang Manyun, Wei Zhingnong, Chen Sheng, Sun Guoqiang. Review and Prospect of State Estimation for Electricity-Heat-Gas Integrated Energy System[J]. Automation of Electric Power Systems. 2022; 46(07): 187-199.

Li Jinghua, Zhu Mengshu, Lu Yuejiang, Huang Yujin, Wu Tong. Review on Optimal Scheduling of Integrated Energy Systems[J]. Power System Technology. 2021; 45(06):2256-2272.

Chen Guoping, Dong Yu, Liang Zhifeng. Analysis and Reflection on High-quality Development of New Energy With Chinese Characteristics in Energy Transition[J]. Proceedings of the CSEE. 2020; 40(17):5493-5506.

Luo Zhao, Liu Dewen, Shen Xin; Wang Gang, Yu Pingqin, Li Zhao. Review of Research on Optimal Operation Technology of Integrated Energy System[J].Electric Power Construction. 2022.43(12):3-14.

Lyu Jiawei, Zhang Shenxi, Cheng Haozhong, Han Feng, Yuan Kai, Song Yi, Fang Sidun. Review on District-level Integrated Energy System Planning Considering Interconnection and Interaction. Proceedings of the CSEE. 2022;46(07):187-199.

Wang Mingjun, Mu Yunfei, Meng Xianjun, Jia Hongjie, WANG Xudong, HUO Xianxu. Optimal Scheduling Method for Integrated Electro-thermal Energy System Considering Heat Transmission Dynamic Characteristics[J]. Power System Technology.2020; 44(01): 132-142.

Zeng Aidong, Wang Jiawei, Zou Yuhang, Wan Yaheng, Hao Sipeng, Yuan Yubo. Multi-time-scale Optimal Scheduling of Integrated Energy System Considering Heat Storage Characteristics of Heating Network[J]. High Voltage Engineering. 2023; 49(10): 4192-4202.

Li Hairun, Mu Yunfei, Jia Hongjie, Yu Xiaodan, Zhang Jiarui, Tang Zhipeng. Optimal Scheduling of Multi-regional Integrated Power and Heating System Considering Quantified Thermal Storage[J]. Proceedings of the CSEE. 2021;41(S1):16-27.

Li Yongqiu, Xu Jin, Wang Keyou. Dynamic Simulation Algorithm of Integrated Energy System Natural Gas Network Based on Time-domain Two-port Model[J/OL]. Proceedings of the CSEE. 2023; doi:10.13334/j.0258-8013.pcsee.230419.

Tian Weikun, Yu Hao, Li Peng, Ji Haoran, Wang Chengshan. Projective integration-based dynamic simulation method for community integrated energy system with gas-electricity coupling[J]. Electric Power Automation Equipment. 2020;40(11):40-50.

Zhai Jiang, Zhou Xiaoxin, Li Yalou, Li Fang, Yang Xiaoyu. Research on Control Strategy of Pressure and Flow of Natural Gas Pipeline in Integrated Energy System[J]. Proceedings of the CSEE. 2022,42(11):3911-3924.

Zhong Junjie, Li Yong, Zeng Zilong, Cao Yijia. Quasi-steady-state analysis and calculation of multi-energy flow for integrated energy system[J]. Electric Power Automation Equipment. 2019; 39(08):22-30.

Liu Xinrui, Li Yao, Sun Qiuye, Pan Yilin. Interaction and Joint State Estimation of Electric-gas-thermal Coupling Network[J]. Power System Technology. 2021, 45(02):479-490.

Wang Yingrui, Zeng Bo, Guo Jing, Shi Jiaqi, Zhang Jianhua. Multi-Energy Flow Calculation Method for Integrated Energy System Containing Electricity, Heat and Gas[J]. Power System Technology. 2016; 40(10):2942-2951.

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Published

16-04-2024

How to Cite

1.
Gou Q, Wang Y, Yan Q. Multi-stage Multi-energy Flow Integrated Energy Systems of Electricity, Gas, and Heat Based on Heterogeneous Energy Flow Characteristics. EAI Endorsed Trans Energy Web [Internet]. 2024 Apr. 16 [cited 2024 May 4];11. Available from: https://publications.eai.eu/index.php/ew/article/view/5799