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|Title:||Benefits and cost implications from integrating small flexible nuclear reactors with off-shore wind farms in a virtual power plant|
|Authors:||SHROPSHIRE DAVID; PURVINS ARTURS; PAPAIOANNOU IOULIA; MASCHIO ISABELLA|
|Citation:||ENERGY POLICY vol. 46 no. 558–573 p. 15|
|Publisher:||ELSEVIER SCI LTD|
|Type:||Articles in periodicals and books|
|Abstract:||Nuclear power currently supports the goals of the European Union low-carbon society by being a dependable source of energy, while emitting no CO2. In the future, more flexible nuclear systems could enable wind to achieve a 50% share of the renewable contribution to the energy mix. Small and medium-sized reactors (SMRs) could provide firming power generation to back-up the supply from renewable resources and follow-load. This study involves the hypothetical combination of an off-shore wind farm and a SMR, operated together as a virtual power plant (VPP). Results using wind data from the North Sea indicate that the combination results in 80% less wind power variation to the grid, effectively creating a virtual baseload power plant. This gain comes at the loss of 30% SMR capacity utilization. The research identified that the reduction of 1000 MW off-shore wind farm variability was best achieved with 700 MW SMRs using 100 MW modules. In demand-following mode the VPP could maneuver output to improve synchronization with demand by 60–70% over a wind-only system. Power variability was indifferent to the SMR module size. The VPP could not reduce 100% of the wind variation, as additional balancing measures (e.g., smart grid, storage, and hybrid-nuclear systems) are still needed|
|JRC Institute:||Institute for Energy and Transport|
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