Comparing the Impacts of Different Spinning Reserve Targets in Electric Power Systems with Increased Penetration of Renewable Energy
Abstract
This paper explores the effects of different spinning reserve requirements for electric
power systems and examines the DEC & DEP balancing authority in the Carolinas. A deterministic
production cost model was used to simulate power system operations of a) 2019 electricity
generation fleet and b) a theoretical decarbonized 2030 fleet. The model was run for
the month of February for both cases and spinning reserve practices were evaluated
through the lens of system cost, system reliability, and CO2 emissions. A 27% non-spinning
reserve cap was chosen as the baseline for the analysis. Relative to the baseline,
a 20% non-spinning reserve cap showed the greatest percent decrease in system costs
for 2019, and maintained system reliability, while slightly increasing emissions.
A 0% non-spinning reserve cap showed the greatest percent decrease in system costs
for the theoretical 2030 simulation and improved reliability from the baseline, while
maintaining the level of CO2 emissions.
Type
Master's projectDepartment
Nicholas School of the EnvironmentPermalink
https://hdl.handle.net/10161/27140Citation
Hari Gopal, Abbhijith; & Mitchell, Jack (2023). Comparing the Impacts of Different Spinning Reserve Targets in Electric Power Systems
with Increased Penetration of Renewable Energy. Master's project, Duke University. Retrieved from https://hdl.handle.net/10161/27140.Collections
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