Research on Capacity Optimization Allocation of a Grid-friendly Large Energy Base Containing Wind Power, Photovoltaic and Hydrogen Energy Storage Whose Load Changes With the Power Supply
|更新时间:2026-02-02
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Research on Capacity Optimization Allocation of a Grid-friendly Large Energy Base Containing Wind Power, Photovoltaic and Hydrogen Energy Storage Whose Load Changes With the Power Supply
WU Jian, HE Bingchen, ZHANG Xunkui, et al. Research on Capacity Optimization Allocation of a Grid-friendly Large Energy Base Containing Wind Power, Photovoltaic and Hydrogen Energy Storage Whose Load Changes With the Power Supply[J]. 2025, 45(16): 6259-6269.
DOI:
WU Jian, HE Bingchen, ZHANG Xunkui, et al. Research on Capacity Optimization Allocation of a Grid-friendly Large Energy Base Containing Wind Power, Photovoltaic and Hydrogen Energy Storage Whose Load Changes With the Power Supply[J]. 2025, 45(16): 6259-6269. DOI: 10.13334/j.0258-8013.pcsee.240679.
Research on Capacity Optimization Allocation of a Grid-friendly Large Energy Base Containing Wind Power, Photovoltaic and Hydrogen Energy Storage Whose Load Changes With the Power Supply
Driven by the goal of "carbon peaking and carbon neutrality"
the construction of large-scale wind power and photovoltaic bases is accelerating
and the proportion of new energy access is rising rapidly. The proportion of new energy installed capacity in China has reached 30%
and the actual reliable capacity is only 5%
how new power systems with new energy as the main body can achieve safe and stable operation under the premise of economic feasibility has become a key research direction. The power system with thermal power as the base load has been operating safely and stably for many years and has important reference value for the construction of new power systems. This article proposes that taking into account the economic investment on the power side
the wind
solar
and hydrogen storage bases should be used to benchmark the output stability and frequency adjustment capabilities of thermal power units to quantify the actual reliable capacity
to realize the dual-energy transmission of electricity and hydrogen and the large-scale energy supply with load following the source. Optimize the allocation of base capacity and analyze the significance of energy suppliers' participation in source-load bilateral investment in promoting the rapid transformation of the power system towards safe