Integrated planning and operation of power systems: Flexibility in high penetration of wind and solar

• A framework is developed for linking power system's planning model to operational model • Impacts from different levels of cooperation between two power systems is assessed from both operational and planning perspectives • Two electrification and load growth scenarios are assessed to analyze impacts from the demand side decarbonization • A detailed hydropower operation formulation is implemented to investigate the flexibility provided by them • Details of planning for VRE and conventional plants is proposed based on the integration levels along with their costs • Operational costs, planning costs, and VRE curtailment are all shown to be reduced with deeper integration of the two power systems • Hydropower climate induced uncertainty is shown to have impacts on its flexibility potential, especially when the systems are not integrated Canada has set a target to become net zero by 2050. One of the key pathways for achieving this goal and supporting electrified demand is to expand variable renewable energy capacities. Such integration requires flexibility measures to respond to inherited variability, such as a reactive generation mix, responsive demand, or transmission. This study aims to find the impacts of coordinated planning and integrated operation of two power systems, one with flexible hydro capacities and the other with high shares of variable renewables. The present study uses a linked framework of planning and operational models to analyze different integration levels, load electrification scenarios, and sensitivity to hydropower constraints. The results show that the systems can achieve zero-emission goals with around one-third of the capital requirements when there is no constraint on the grid expansion between the two jurisdictions. Flexibility metrics, like curtailment, perform better when the large wind capacities in one power system are coupled with flexible hydro capacities in the other through the expanded grid. A sensitivity analysis is also done on hydropower constraints which shows a positive correlation between minimum hydropower output and curtailed wind generation when the integration is limited.

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Publication Details

Journal
Renewable and Sustainable Energy Transition
Published
2025-03-07
DOI
https://doi.org/10.1016/j.rset.2025.100106
Citations
6
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
4.38
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article

Integrated planning and operation of power systems: Flexibility in high penetration of wind and solar

Madeleine McPherson, Mohammad Miri, Jacob I. Monroe, Tamara Knittel
6 citations
Renewable and Sustainable Energy Transition
Integrated Energy Systems Optimization
4.38
article

Integrated planning and operation of power systems: Flexibility in high penetration of wind and solar

Madeleine McPherson, Mohammad Miri, Jacob I. Monroe, Tamara Knittel
article en
6 citations

Abstract

• A framework is developed for linking power system's planning model to operational model • Impacts from different levels of cooperation between two power systems is assessed from both operational and planning perspectives • Two electrification and load growth scenarios are assessed to analyze impacts from the demand side decarbonization • A detailed hydropower operation formulation is implemented to investigate the flexibility provided by them • Details of planning for VRE and conventional plants is proposed based on the integration levels along with their costs • Operational costs, planning costs, and VRE curtailment are all shown to be reduced with deeper integration of the two power systems • Hydropower climate induced uncertainty is shown to have impacts on its flexibility potential, especially when the systems are not integrated Canada has set a target to become net zero by 2050. One of the key pathways for achieving this goal and supporting electrified demand is to expand variable renewable energy capacities. Such integration requires flexibility measures to respond to inherited variability, such as a reactive generation mix, responsive demand, or transmission. This study aims to find the impacts of coordinated planning and integrated operation of two power systems, one with flexible hydro capacities and the other with high shares of variable renewables. The present study uses a linked framework of planning and operational models to analyze different integration levels, load electrification scenarios, and sensitivity to hydropower constraints. The results show that the systems can achieve zero-emission goals with around one-third of the capital requirements when there is no constraint on the grid expansion between the two jurisdictions. Flexibility metrics, like curtailment, perform better when the large wind capacities in one power system are coupled with flexible hydro capacities in the other through the expanded grid. A sensitivity analysis is also done on hydropower constraints which shows a positive correlation between minimum hydropower output and curtailed wind generation when the integration is limited.

Renewable and Sustainable Energy TransitionVol. 7
Integrated Systems Solutions (United States) (US), Sustainable Energy Systems (United Kingdom) (GB)
Affordable and clean energy
Openalex Percentile: Top 6%
Integrated Energy Systems Optimization
4.38
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