Typical Scenarios and Technical Requirements of China’s Power Grid towards 2030 for Power System Transformation

Qiang Zhao , Yuqiong Zhang , Ziwei Chen , Xiaoxin Zhou , Jiameng Gao , Honghua Yang

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Engineering ›› DOI: 10.1016/j.eng.2025.10.007
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Typical Scenarios and Technical Requirements of China’s Power Grid towards 2030 for Power System Transformation
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Qiang Zhao, Yuqiong Zhang, Ziwei Chen, Xiaoxin Zhou, Jiameng Gao, Honghua Yang. Typical Scenarios and Technical Requirements of China’s Power Grid towards 2030 for Power System Transformation. Engineering DOI:10.1016/j.eng.2025.10.007

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References

[1]

Statement by H.E. Xi Jinping President of the People's Republic of China at the General Debate of the 75th Session of The United Nations General Assembly [Internet]. 2020 Sep 22 [cited 2025 May 1]. Beijing: The State Council Information Office of China. Available from: http://english.scio.gov.cn/topnews/2020-09/23/content_76731466.htm.

[2]

Zhou X, Zhao Q, Zhang Y, Yang H.Analysis of the development trend of China’s energy and power system under the dual carbon target: green electricity substitution and green hydrogen substitution.Proc CSEE 2024; 44(17):6707-6720.

[3]

Zhao Q, Zhang Y, Zhou X, Chen Z, Yan H, Yang H.A discussion on the flexible regulation capacity requirements of China’s power system.Engineering 2024; 33(2):12-16.

[4]

Xu T, Wang G, Dong Y, Wang C, Li Z.Research on power balance mechanism and evolution of new power system.Proc CSEE 2025; 45(1):1-13.

[5]

Li H, Liu D, Yao D.Analysis and reflection on the development of power system towards the goal of carbon emission peak and carbon neutrality.Proc CSEE 2021; 41(18):6245-6258.

[6]

Zhang Z, Kang C.Challenges and prospects for constructing the new-type power system towards a carbon neutrality future.Proc CSEE 2022; 42(8):2806-2819.

[7]

Zhang C, Yang H, Zhao Y, Ma L, Larson E, Greig C.Realizing ambitions: a framework for iteratively assessing and communicating national decarbonization progress.iScience 2022; 25(1):103695.

[8]

Zhuo Z, Zhang N, Xie X, Kang C.Key technologies and developing challenges of power system with high proportion of renewable energy.Autom Electr Power Syst 2021; 45(9):171-191.

[9]

The National Energy Administration released the national power industry statistical data for 2024 [Internet]. 2025 Jan 21 [cited 2025 May 1]. Beijing: National Energy Administration of China. Available from: https://www.nea.gov.cn/20250121/097bfd7c1cd3498897639857d86d5dac/c.html. Chinese.

[10]

Zhou X.Research on the development trend of China’s energy and power systems under dual carbon targets: on a new energy system with non-fossil electricity coupling with hydrogen.Report. Beijing: 10th Anniversary of Tsinghua University Energy Internet Innovation Institute; 2025.

[11]

State Grid Energy Research Institute. Analysis report on the development of new power system 2024. Report. Beijing: China Electric Power Press; 2024.

[12]

China energy transformation outlook 2024. Report. Beijing: Energy Research Institute; 2024.

[13]

China power market outlook to 2035, update 2025—market trends, regulations, and competitive landscape. Report. London: GlobalData; 2025.

[14]

Cai X, Huang W, Li G, Guo Z, Cao R, Yuan Z.Research on operation control strategy of large-scale photovoltaic cluster transmission via grid-forming VSC-HVDC.Proc CSEE 2023; 43(22):8734-8745.

[15]

Xin B, Guo M, Wang S, Li X.Friendly HVDC transmission technologies for large-scale renewable energy and their engineering practice.Autom Electr Power Syst 2021; 45(22):1-8.

[16]

Liu T, Yan J, Liu Y.Frequent pattern growth-based identification of critical lines in cascading failures for renewable-dominant hybrid AC/DC power systems.Engineering 2025; 51:158-170.

[17]

Yao G, Yang H, Zhou L, Li D, Li C, Wang J.Development status and key technologies of large-capacity offshore wind turbines.Autom Electr Power Syst 2021; 45(21):33-47.

[18]

Pan E, Yue B, Li X, Zhao Z, Zhu Q.Integration technology and practice for long-distance offshore wind power in China.Energy Convers Econom 2020; 1(1):4-19.

[19]

Li Z, Hu P, Ma J, Gao M, Huang H, Liu X, et al.Analysis and prospect of offshore wind power development in China.China Offshore Oil Gas 2022; 34(5):229-236.

[20]

Zhang J, Cheng C, Yu S, Cheng C, Zhang Z, Yang Y.Progress, challenges and prospects of research on hydropower supporting the flexibility of new power systems.Proc CSEE 2024; 44(10):3862-3885.

[21]

Liu X, Guo C, Chi Y.Study on the power transmission capacity of multiple type power bundled HVDC transmission system under different wind–PV–hydro ratio conditions.Proc CSEE 2024; 44(13):5051-5063.

[22]

Li G, Wang T, Xin Y, Jiang S, Wang W, Liu X.A rapid identification method for commutation failure risk area in multi-infeed high voltage direct current receiving-end power grid.Proc CSEE 2022; 42(1):140-153.

[23]

Li P, Shu Y, Gu C, Liu T, Zhao L.Development and prospect of UHV transmission technology.Renew Energy Syst Equip 2025; 1(1):8-19.

[24]

Song F, Yu X.Adaptability analysis of UHV interconnection to metropolitan 500 kV power network.Electr Power Constr 2021; 42(7):58-64.

[25]

Chen W, Jin X, Wu M, Lv J, Zhang Y, Ning X, et al.Thinking on the rapid evolution of distribution network form under the carbon peaking and carbon neutrality goals.Proc CSEE 2024; 44(17):6811-6818.

[26]

Fu Y, Chong C, Arras M, Ma L, Li Z.A holistic picture of China’s distributed energy systems: tracing energy use from energy sources, infrastructure to final demand.Energy 2025; 328:136235.

[27]

Shu Y, Tang Y, Zhang Z, Zhang F, Yang L, Zhong W, et al.Construction of new distribution network and its key technologies.Proc CSEE 2024; 44(17):6721-6733.

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