Title
Spatiotemporal Modeling of Wind Generation for Optimal Energy Storage Sizing
Abbreviated Journal Title
IEEE Trans. Sustain. Energy
Keywords
Autocorrelation; data models; distributed power generation; energy; storage; higher order statistics; renewable energy; time series; analysis; wind power generation; TIME-SERIES MODELS; DEPENDENT RANDOM-VARIABLES; POWER-SYSTEMS; VINES; INTEGRATION; SCENARIOS; SELECTION; Energy & Fuels; Engineering, Electrical & Electronic
Abstract
Ever increasing penetration of wind power generation along with the integration of energy storage systems (ESSs) makes the successive states of the power system interdependent and more stochastic. Appropriate stochastic modeling of wind power is required to deal with the existence of uncertainty either in observations of the data (spatial) or in the characteristics that drive the evolution of the data (temporal). Particularly, for capturing spatiotemporal interdependencies and determining energy storage requirements, this paper proposes a versatile model using advanced statistical modeling based on the vine-copula theory. To tackle the complexity and computational burden of modeling high-dimensional wind data, a systematic truncation method is utilized that significantly reduces computational burden of the method while preserving the required accuracy. By constructing a graphical dependency model, unlike existing autoregressive and Markov chain models, the proposed method can replicate the exact auto-correlation function (ACF) and cross-correlation function (CCF), while retaining the correct distribution of the original data as well as the effective dependence between different sites under study. The practical importance of the proposed model is demonstrated through an example of ESS sizing for wind power.
Journal Title
Ieee Transactions on Sustainable Energy
Volume
6
Issue/Number
1
Publication Date
1-1-2015
Document Type
Article
Language
English
First Page
113
Last Page
121
WOS Identifier
ISSN
1949-3029
Recommended Citation
"Spatiotemporal Modeling of Wind Generation for Optimal Energy Storage Sizing" (2015). Faculty Bibliography 2010s. 6559.
https://stars.library.ucf.edu/facultybib2010/6559
Comments
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