Eine Plattform für die Wissenschaft: Bauingenieurwesen, Architektur und Urbanistik
Buffering volatility: Storage investments and technology-specific renewable energy support
Mitigating climate change will require integrating large amounts of highly intermittent renewable energy (RE) sources in future electricity markets. Considerable uncertainties exist about the cost and availability of future large-scale storage to alleviate the potential mismatch between demand and supply. This paper examines the suitability of regulatory (public policy) mechanisms for coping with the volatility induced by intermittent RE sources, using a numerical equilibrium model of a future wholesale electricity market. We find that the optimal RE subsidies are technology-specific reflecting the heterogeneous value for system integration. Differentiated RE subsidies reduce the curtailment of excess production, thereby preventing costly investments in energy storage. Using a simple cost-benefit framework, we show that a "smart" design of RE support policies significantly reduces the level of optimal storage. We further find that the marginal benefits of storage rapidly decrease for short-term (intra-day) storage and are small for long-term (seasonal) storage independent of the storage level. This suggests that storage is not likely to be the limiting factor for decarbonizing the electricity sector.
Buffering volatility: Storage investments and technology-specific renewable energy support
Mitigating climate change will require integrating large amounts of highly intermittent renewable energy (RE) sources in future electricity markets. Considerable uncertainties exist about the cost and availability of future large-scale storage to alleviate the potential mismatch between demand and supply. This paper examines the suitability of regulatory (public policy) mechanisms for coping with the volatility induced by intermittent RE sources, using a numerical equilibrium model of a future wholesale electricity market. We find that the optimal RE subsidies are technology-specific reflecting the heterogeneous value for system integration. Differentiated RE subsidies reduce the curtailment of excess production, thereby preventing costly investments in energy storage. Using a simple cost-benefit framework, we show that a "smart" design of RE support policies significantly reduces the level of optimal storage. We further find that the marginal benefits of storage rapidly decrease for short-term (intra-day) storage and are small for long-term (seasonal) storage independent of the storage level. This suggests that storage is not likely to be the limiting factor for decarbonizing the electricity sector.
Buffering volatility: Storage investments and technology-specific renewable energy support
Abrell, Jan (Autor:in) / Rausch, Sebastian (Autor:in) / Streitberger, Clemens (Autor:in)
01.01.2019
RePEc:eth:wpswif:19-310
Paper
Elektronische Ressource
Englisch
Subsidies , Climate Policy , Renewable Energy , ddc:330 , Intermittency , Energy Policy , Q54 , Q42 , Q48 , Technology-specific Regulation , Electricity , C63 , Storage , Volatility
Analysis of inventive problem-solving capacities for renewable energy storage investments
BASE | 2021
|Buffering Volatility: A Study on the Limits of Germany's Energy Revolution
BASE | 2016
|An Analysis of Renewable Energy Technology Integration Investments in Malaysia Using HOMER Pro
DOAJ | 2022
|Prestress buffering energy dissipation bridge vibration isolation support
Europäisches Patentamt | 2021
|